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		<title>hERG assay publications</title>
		<link>http://neurobiosis.wordpress.com/2008/06/10/herg-assay-publications/</link>
		<comments>http://neurobiosis.wordpress.com/2008/06/10/herg-assay-publications/#comments</comments>
		<pubDate>Tue, 10 Jun 2008 05:57:08 +0000</pubDate>
		<dc:creator>Samrat Roy</dc:creator>
				<category><![CDATA[Cardiophysiology]]></category>

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		<description><![CDATA[  Citation Score 1. Relationships between preclinical cardiac electrophysiology, clinical QT interva Cardiovasc Res 58: 32-45. (2003). 571.4 2. Molecular basis of transient outward potassium current downregulation in human h Circulation 98: 1383-93. (1998). 317.2 3. Pentamidine-induced long QT syndrome and block of hERG trafficking. J Pharmacol Exp Ther 312: 316-23. (2005). 200.0 4. Tissue [...]<img alt="" border="0" src="http://stats.wordpress.com/b.gif?host=neurobiosis.wordpress.com&amp;blog=1383715&amp;post=33&amp;subd=neurobiosis&amp;ref=&amp;feed=1" width="1" height="1" />]]></description>
			<content:encoded><![CDATA[<table border="0">
<tbody>
<tr>
<td> </td>
<td>Citation Score</td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12667944">1. Relationships between preclinical cardiac electrophysiology, clinical QT interva <em>Cardiovasc Res</em><strong> 58</strong>: 32-45. (2003).</p>
<p></a></td>
<td><strong>571.4</strong></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9760292">2. Molecular basis of transient outward potassium current downregulation in human h <em>Circulation</em><strong> 98</strong>: 1383-93. (1998).</p>
<p></a></td>
<td><strong>317.2</strong></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15340016">3. Pentamidine-induced long QT syndrome and block of hERG trafficking. <em>J Pharmacol Exp Ther</em><strong> 312</strong>: 316-23. (2005).</p>
<p></a></td>
<td><strong>200.0</strong></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9012748">4. Tissue and species distribution of mRNA for the IKr-like K+ channel, erg. <em>Circ Res</em><strong> 80</strong>: 261-8. (1997).</p>
<p></a></td>
<td><strong>166.7</strong></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15280551">5. In vivo identification of genes that modify ether-a-go-go-related gene activity <em>Proc Natl Acad Sci U S A</em><strong> 101</strong>: 11773-8. (2004).</p>
<p></a></td>
<td><em>149</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10860024">6. Effects of calcium channel blockers on cloned cardiac K+ channels IKr and IKs. <em>Therapie</em><strong> 55</strong>: 195-202. (0).</p>
<p></a></td>
<td><em>115</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16678449">7. Electrical alternans and hemodynamics in the anesthetized guinea pig can discrim <em>J Pharmacol Toxicol Methods</em><strong> 55</strong>: 78-85. (0).</p>
<p></a></td>
<td><em>113</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14585842">8. KvLQT1 modulates the distribution and biophysical properties of HERG. A novel al <em>J Biol Chem</em><strong> 279</strong>: 1233-41. (2004).</p>
<p></a></td>
<td><em>106</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11099479">9. Glucose- and arginine-induced insulin secretion by human pancreatic beta-cells: <em>FASEB J</em><strong> 14</strong>: 2601-10. (2000).</p>
<p></a></td>
<td><strong>105.6</strong></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15812674">10. HERG K+ channel expression-related chemosensitivity in cancer cells and its modu <em>Cancer Chemother Pharmacol</em><strong> 56</strong>: 212-20. (2005).</p>
<p></a></td>
<td><em>105</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15798395">11. Characterization of a hERG screen using the IonWorks HT: comparison to a hERG ru <em>Assay Drug Dev Technol</em><strong> 3</strong>: 47-57. (2005).</p>
<p></a></td>
<td><em>102</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18471075">12. Development of the predictor HERG fluorescence polarization assay using a membrane protein <em>Assay Drug Dev Technol</em><strong> 6</strong>: 213-23. (2008).</p>
<p></a></td>
<td><em>102</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16086867">13. [Correlation of HERG K+ channel protein expression to chemosensitivity of tumor <em>Ai Zheng</em><strong> 24</strong>: 924-9. (2005).</p>
<p></a></td>
<td><em>100</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15936217">14. Automated electrophysiology in the preclinical evaluation of drugs for potential <em>J Pharmacol Toxicol Methods</em><strong> 52</strong>: 123-35. (0).</p>
<p></a></td>
<td><em>100</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15846098">15. The Potent Inhibitory Effects of Cisapride, a Specific Blocker for Human Ether-a <em>Cancer Biol Ther</em><strong> 4</strong>: 295-301. (2005).</p>
<p></a></td>
<td><em>100</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15272206">16. Validation of a [3H]astemizole binding assay in HEK293 cells expressing HERG K+ <em>J Pharmacol Sci</em><strong> 95</strong>: 311-9. (2004).</p>
<p></a></td>
<td><em>100</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12388285">17. Functional and pharmacological properties of canine ERG potassium channels. <em>Am J Physiol Heart Circ Physiol</em><strong> 284</strong>: H256-67. (2003).</p>
<p></a></td>
<td><strong>100.0</strong></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11689132">18. Development and evaluation of high throughput functional assay methods for HERG <em>J Biomol Screen</em><strong> 6</strong>: 325-31. (2001).</p>
<p></a></td>
<td><strong>100.0</strong></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16563806">19. Optimisation and validation of a medium-throughput electrophysiology-based hERG <em>J Pharmacol Toxicol Methods</em><strong> 0</strong>: . (2006).</p>
<p></a></td>
<td><em>100</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16629826">20. A QSAR model of HERG binding using a large, diverse, and internally consistent t <em>Chem Biol Drug Des</em><strong> 67</strong>: 284-96. (2006).</p>
<p></a></td>
<td><em>100</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17011782">21. Design, synthesis, structure-activity relationship, and in vivo activity of azab <em>Bioorg Med Chem</em><strong> 0</strong>: . (2006).</p>
<p></a></td>
<td><em>100</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16757186">22. Safety pharmacology assessment of drug-induced QT-prolongation in dogs with redu <em>J Pharmacol Toxicol Methods</em><strong> 54</strong>: 130-40. (0).</p>
<p></a></td>
<td><em>100</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17596950">23. Estimation of hERG inhibition of drug candidates using multivariate property and <em>Bioorg Med Chem</em><strong> 0</strong>: . (2007).</p>
<p></a></td>
<td><em>100</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17604185">24. Action potential experiments complete hERG assay and QT-interval measurements in <em>J Pharmacol Toxicol Methods</em><strong> 0</strong>: . (2007).</p>
<p></a></td>
<td><em>100</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17641836">25. Expression and fuactional role of HERG1, K(+) channels in leukemic cells and leu <em>J Huazhong Univ Sci Technolog Med Sci</em><strong> 27</strong>: 257-60. (2007).</p>
<p></a></td>
<td><em>100</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17938585">26. Expression and significance of HERG protein in gastric cancer. <em>Cancer Biol Ther</em><strong> 7</strong>: . (2007).</p>
<p></a></td>
<td><em>100</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18197627">27. hERG Classification Model Based on a Combination of Support Vector Machine Metho <em>Mol Pharm</em><strong> 0</strong>: . (2008).</p>
<p></a></td>
<td><em>100</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16314404">28. Identification of Novel Kv1.3 Blockers Using a Fluorescent Cell-Based Ion Channe <em>J Biomol Screen</em><strong> 0</strong>: . (2005).</p>
<p></a></td>
<td><em>99</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15964935">29. Evaluation of a high-throughput fluorescence assay method for HERG potassium cha <em>J Biomol Screen</em><strong> 10</strong>: 339-47. (2005).</p>
<p></a></td>
<td><em>99</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15799960">30. Identifying modulators of hERG channel activity using the PatchXpress planar pat <em>J Biomol Screen</em><strong> 10</strong>: 168-81. (2005).</p>
<p></a></td>
<td><em>99</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11897058">31. A novel membrane potential-sensitive fluorescent dye improves cell-based assays <em>J Biomol Screen</em><strong> 7</strong>: 79-85. (2002).</p>
<p></a></td>
<td><em>99</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15950494">32. HERG-Lite: a novel comprehensive high-throughput screen for drug-induced hERG ri <em>J Pharmacol Toxicol Methods</em><strong> 52</strong>: 136-45. (0).</p>
<p></a></td>
<td><em>97</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16407206">33. Chronic inhibition of cardiac Kir2.1 and hERG potassium channels by celastrol wi <em>J Biol Chem</em><strong> 0</strong>: . (2006).</p>
<p></a></td>
<td><em>95</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16227343">34. Isolation and characterization of IKr in cardiac myocytes by Cs+ permeation. <em>Am J Physiol Heart Circ Physiol</em><strong> 0</strong>: . (2005).</p>
<p></a></td>
<td><em>90</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16506891">35. Evaluation of the rubidium efflux assay for preclinical identification of HERG b <em>Assay Drug Dev Technol</em><strong> 4</strong>: 73-82. (2006).</p>
<p></a></td>
<td><em>85</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11926362">36. A high-throughput HERG potassium channel function assay: an old assay with a new <em>Drug Dev Ind Pharm</em><strong> 28</strong>: 177-91. (2002).</p>
<p></a></td>
<td><strong>83.3</strong></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16506892">37. Application of cryopreserved cells to HERG screening using a non-radioactive Rb+ <em>Assay Drug Dev Technol</em><strong> 4</strong>: 83-8. (2006).</p>
<p></a></td>
<td><em>82</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16843688">38. ILSI-HESI cardiovascular safety subcommittee initiative: evaluation of three non <em>J Pharmacol Toxicol Methods</em><strong> 54</strong>: 116-29. (0).</p>
<p></a></td>
<td><em>79</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17982510">39. Comparative evaluation of hERG potassium channel blockade by antipsychotics. <em>Methods Find Exp Clin Pharmacol</em><strong> 29</strong>: 457-65. (2007).</p>
<p></a></td>
<td><em>79</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18497958">40. Pharmacological separation of hEAG and hERG K+ channel function in the human mammary carci <em>Oncol Rep</em><strong> 19</strong>: 1511-6. (2008).</p>
<p></a></td>
<td><em>79</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15771419">41. Novel indolylindazolylmaleimides as inhibitors of protein kinase C-beta: synthes <em>J Med Chem</em><strong> 48</strong>: 1725-8. (2005).</p>
<p></a></td>
<td><em>78</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15056006">42. NR2B-selective N-methyl-D-aspartate antagonists: synthesis and evaluation of 5-s <em>J Med Chem</em><strong> 47</strong>: 2089-96. (2004).</p>
<p></a></td>
<td><em>78</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17064075">43. Optimization of Chromone-2-carboxamide Melanin Concentrating Hormone Receptor 1 <em>J Med Chem</em><strong> 49</strong>: 6569-84. (2006).</p>
<p></a></td>
<td><em>78</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17536794">44. Fluorescently Labeled Analogues of Dofetilide as High-Affinity Fluorescence Pola <em>J Med Chem</em><strong> 0</strong>: . (2007).</p>
<p></a></td>
<td><em>78</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18096051">45. Improved functional expression of recombinant human ether-a-go-go (hERG) K+ chan <em>BMC Biotechnol</em><strong> 7</strong>: 93. (2007).</p>
<p></a></td>
<td><em>78</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17928249">46. Exploring QSTR and toxicophore of hERG K(+) channel blockers using GFA and HypoG <em>J Mol Graph Model</em><strong> 0</strong>: . (2007).</p>
<p></a></td>
<td><em>77</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15961988">47. A pharmacokinetic-pharmacodynamic model for the quantitative prediction of dofet <em>Clin Pharmacol Ther</em><strong> 77</strong>: 572-82. (2005).</p>
<p></a></td>
<td><em>75</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17141530">48. Early evaluation of compound QT prolongation effects: A predictive 384-well fluo <em>J Pharmacol Toxicol Methods</em><strong> 0</strong>: . (2006).</p>
<p></a></td>
<td><em>75</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16507548">49. Utility of hERG Assays as Surrogate Markers of Delayed Cardiac Repolarization an <em>Toxicol Pathol</em><strong> 34</strong>: 81-90. (2006).</p>
<p></a></td>
<td><em>74</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15475478">50. Rb+ flux through hERG channels affects the potency of channel blocking drugs: co <em>J Biomol Screen</em><strong> 9</strong>: 588-97. (2004).</p>
<p></a></td>
<td><em>73</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16321428">51. Preclinical cardiac safety assessment of pharmaceutical compounds using an integ <em>Prog Biophys Mol Biol</em><strong> 90</strong>: 414-43. (0).</p>
<p></a></td>
<td><em>73</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11698075">52. [3H]dofetilide binding to HERG transfected membranes: a potential high throughpu <em>Eur J Pharmacol</em><strong> 430</strong>: 147-8. (2001).</p>
<p></a></td>
<td><strong>71.4</strong></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15519905">53. The [3H]dofetilide binding assay is a predictive screening tool for hERG blockad <em>J Pharmacol Toxicol Methods</em><strong> 50</strong>: 187-99. (0).</p>
<p></a></td>
<td><em>71</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14660002">54. Dopamine receptor agonists differ in their actions on cardiac ion channels. <em>Eur J Pharmacol</em><strong> 482</strong>: 31-7. (2003).</p>
<p></a></td>
<td><em>71</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15110144">55. Drugs, hERG and sudden death. <em>Cell Calcium</em><strong> 35</strong>: 543-7. (2004).</p>
<p></a></td>
<td><em>70</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16493186">56. QT PRODACT: Evaluation of the Potential of Compounds to Cause QT Interval Prolon <em>J Pharmacol Sci</em><strong> 99</strong>: 449-57. (2005).</p>
<p></a></td>
<td><em>70</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17369411">57. Mechanism of block of the hERG K+ channel by the scorpion toxin CnErg1. <em>Biophys J</em><strong> 0</strong>: . (2007).</p>
<p></a></td>
<td><em>68</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16782336">58. Overcoming HERG affinity in the discovery of the CCR5 antagonist maraviroc. <em>Bioorg Med Chem Lett</em><strong> 0</strong>: . (2006).</p>
<p></a></td>
<td><em>67</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16377185">59. Synthesis of the first sulfur-35-labeled hERG radioligand. <em>Bioorg Med Chem Lett</em><strong> 16</strong>: 1692-5. (2006).</p>
<p></a></td>
<td><em>67</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17350253">60. Identification of diamino chromone-2-carboxamides as MCHr1 antagonists with mini <em>Bioorg Med Chem Lett</em><strong> 0</strong>: . (2006).</p>
<p></a></td>
<td><em>67</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16050262">61. HERG channel trafficking. <em>Novartis Found Symp</em><strong> 266</strong>: 57-69; discussi. (2005).</p>
<p></a></td>
<td><em>65</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16251317">62. Maraviroc (UK-427,857), a potent, orally bioavailable, and selective small-molec <em>Antimicrob Agents Chemother</em><strong> 49</strong>: 4721-32. (2005).</p>
<p></a></td>
<td><em>64</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17549583">63. Understanding hERG inhibition with QSAR models based on a one-dimensional molecu <em>J Comput Aided Mol Des</em><strong> 0</strong>: . (2007).</p>
<p></a></td>
<td><em>64</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16023163">64. Use of in vitro methods to predict QT prolongation. <em>Toxicol Appl Pharmacol</em><strong> 207</strong>: 446-50. (2005).</p>
<p></a></td>
<td><em>63</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11755529">65. Mapping the receptor site for ergtoxin, a specific blocker of ERG channels. <em>FEBS Lett</em><strong> 510</strong>: 45-9. (2002).</p>
<p></a></td>
<td><em>59</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17425296">66. 1,4-Dihydroindeno[1,2-c]pyrazoles with Acetylenic Side Chains as Novel and Poten <em>J Med Chem</em><strong> 0</strong>: . (2007).</p>
<p></a></td>
<td><em>58</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16543716">67. Involvement of Golgin-160 in Cell Surface Transport of Renal ROMK Channel: Co-ex <em>Cell Physiol Biochem</em><strong> 17</strong>: 1-12. (2006).</p>
<p></a></td>
<td><em>57</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16967047">68. Combined hERG channel inhibition and disruption of trafficking in drug-induced l <em>Br J Pharmacol</em><strong> 0</strong>: . (2006).</p>
<p></a></td>
<td><em>54</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17095614">69. Cardiac Glycosides as Novel Inhibitors of HERG Channel Trafficking. <em>J Pharmacol Exp Ther</em><strong> 0</strong>: . (2006).</p>
<p></a></td>
<td><em>54</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18054910">70. Doxazosin induces apoptosis of cells expressing hERG K(+) channels. <em>Eur J Pharmacol</em><strong> 0</strong>: . (2007).</p>
<p></a></td>
<td><em>51</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18184764">71. Erg K+ channels modulate contractile activity in the bovine epididymal duct. <em>Am J Physiol Regul Integr Comp Physiol</em><strong> 0</strong>: . (2008).</p>
<p></a></td>
<td><em>48</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17956279">72. hERG channel trafficking: novel targets in drug-induced long QT syndrome. <em>Biochem Soc Trans</em><strong> 35</strong>: 1060-3. (2007).</p>
<p></a></td>
<td><em>47</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11524404">73. Long-QT syndrome-associated missense mutations in the pore helix of the HERG pot <em>Circulation</em><strong> 104</strong>: 1071-5. (2001).</p>
<p></a></td>
<td><strong>46.7</strong></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15707699">74. Acute administration of alcohol modulates pyroglutamyl amino peptidase II activi <em>Neurochem Int</em><strong> 46</strong>: 347-56. (2005).</p>
<p></a></td>
<td><em>45</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17010640">75. Electrophysiological effects of brompheniramine on cardiac ion channels and acti <em>Pharmacol Res</em><strong> 0</strong>: . (2006).</p>
<p></a></td>
<td><em>44</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18092154">76. Electrophysiological profile of propiverine &#8211; relationship to cardiac risk. <em>Naunyn Schmiedebergs Arch Pharmacol</em><strong> 0</strong>: . (2007).</p>
<p></a></td>
<td><em>37</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11170080">77. Bradycardia-induced long QT syndrome caused by a de novo missense mutation in th <em>Am J Med Genet</em><strong> 98</strong>: 348-52. (2001).</p>
<p></a></td>
<td><strong>33.3</strong></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16375754">78. QT interval prolongation: and the beat goes on. <em>Mini Rev Med Chem</em><strong> 5</strong>: 1083-91. (2005).</p>
<p></a></td>
<td><em>26</em></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15076220">79. The utility of hERG and repolarization assays in evaluating delayed cardiac repo <em>J Cardiovasc Pharmacol</em><strong> 43</strong>: 369-79. (2004).</p>
<p></a></td>
<td><strong>25.0</strong></td>
</tr>
<tr>
<td><a href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10790218">80. Analysis of the human KCNH2(HERG) gene: identification and characterization of a <em>Hum Mutat</em><strong> 15</strong>: 483. (2000).</p>
<p></a></td>
<td><strong>22.7</strong></td>
</tr>
</tbody>
</table>
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		<title>hERG related publications</title>
		<link>http://neurobiosis.wordpress.com/2008/06/10/herg-related-publications/</link>
		<comments>http://neurobiosis.wordpress.com/2008/06/10/herg-related-publications/#comments</comments>
		<pubDate>Tue, 10 Jun 2008 05:53:28 +0000</pubDate>
		<dc:creator>Samrat Roy</dc:creator>
				<category><![CDATA[Cardiophysiology]]></category>

		<guid isPermaLink="false">http://neurobiosis.wordpress.com/?p=32</guid>
		<description><![CDATA[Citation Score 1. A structural basis for drug-induced long QT syndrome. Proc Natl Acad Sci U S A 97: 12329-33. (2000). 894.4 2. Relationships between preclinical cardiac electrophysiology, clinical QT interva Cardiovasc Res 58: 32-45. (2003). 571.4 3. Allelic variants in long-QT disease genes in patients with drug-associated torsa Circulation 105: 1943-8. (2002). 558.3 4. [...]<img alt="" border="0" src="http://stats.wordpress.com/b.gif?host=neurobiosis.wordpress.com&amp;blog=1383715&amp;post=32&amp;subd=neurobiosis&amp;ref=&amp;feed=1" width="1" height="1" />]]></description>
			<content:encoded><![CDATA[<p><TABLE><br />
<TBODY><br />
<TR><br />
<TD></TD><br />
<TD>Citation Score</TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11005845">1. A structural basis for drug-induced long QT syndrome. <I>Proc Natl Acad Sci U S A</I><B> 97</B>: 12329-33. (2000).<BR><BR></A></TD><br />
<TD><B>894.4</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12667944">2. Relationships between preclinical cardiac electrophysiology, clinical QT interva <I>Cardiovasc Res</I><B> 58</B>: 32-45. (2003).<BR><BR></A></TD><br />
<TD><B>571.4</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11997281">3. Allelic variants in long-QT disease genes in patients with drug-associated torsa <I>Circulation</I><B> 105</B>: 1943-8. (2002).<BR><BR></A></TD><br />
<TD><B>558.3</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=7604285">4. HERG, a human inward rectifier in the voltage-gated potassium channel family. <I>Science</I><B> 269</B>: 92-5. (1995).<BR><BR></A></TD><br />
<TD><B>532.7</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15466077">5. The sudden infant death syndrome gene: does it exist? <I>Pediatrics</I><B> 114</B>: e506-12. (2004).<BR><BR></A></TD><br />
<TD><B>500.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9845367">6. Crystal structure and functional analysis of the HERG potassium channel N termin <I>Cell</I><B> 95</B>: 649-55. (1998).<BR><BR></A></TD><br />
<TD><I>469</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=8587608">7. The inward rectification mechanism of the HERG cardiac potassium channel. <I>Nature</I><B> 379</B>: 833-6. (1996).<BR><BR></A></TD><br />
<TD><B>466.7</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9753711">8. Influence of genotype on the clinical course of the long-QT syndrome. Internatio <I>N Engl J Med</I><B> 339</B>: 960-5. (1998).<BR><BR></A></TD><br />
<TD><I>466</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10646604">9. A constitutively open potassium channel formed by KCNQ1 and KCNE3. <I>Nature</I><B> 403</B>: 196-9. (2000).<BR><BR></A></TD><br />
<TD><B>465.2</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14676148">10. Sudden death associated with short-QT syndrome linked to mutations in HERG. <I>Circulation</I><B> 109</B>: 30-5. (2004).<BR><BR></A></TD><br />
<TD><B>425.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9449325">11. Properties of HERG channels stably expressed in HEK 293 cells studied at physiol <I>Biophys J</I><B> 74</B>: 230-41. (1998).<BR><BR></A></TD><br />
<TD><B>412.1</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9323097">12. Sodium channel block with mexiletine is effective in reducing dispersion of repo <I>Circulation</I><B> 96</B>: 2038-47. (1997).<BR><BR></A></TD><br />
<TD><B>373.5</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=7736582">13. A mechanistic link between an inherited and an acquired cardiac arrhythmia: HERG <I>Cell</I><B> 81</B>: 299-307. (1995).<BR><BR></A></TD><br />
<TD><I>369</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=7889573">14. A molecular basis for cardiac arrhythmia: HERG mutations cause long QT syndrome. <I>Cell</I><B> 80</B>: 795-803. (1995).<BR><BR></A></TD><br />
<TD><I>365</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=8521555">15. Long QT syndrome patients with mutations of the SCN5A and HERG genes have differ <I>Circulation</I><B> 92</B>: 3381-6. (1995).<BR><BR></A></TD><br />
<TD><B>364.7</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=8700910">16. Spectrum of HERG K+-channel dysfunction in an inherited cardiac arrhythmia. <I>Proc Natl Acad Sci U S A</I><B> 93</B>: 2208-12. (1996).<BR><BR></A></TD><br />
<TD><B>347.6</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11459060">17. Molecular mechanism of cAMP modulation of HCN pacemaker channels. <I>Nature</I><B> 411</B>: 805-10. (2001).<BR><BR></A></TD><br />
<TD><B>333.3</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9230439">18. A minK-HERG complex regulates the cardiac potassium current I(Kr). <I>Nature</I><B> 388</B>: 289-92. (1997).<BR><BR></A></TD><br />
<TD><B>320.6</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10219239">19. MiRP1 forms IKr potassium channels with HERG and is associated with cardiac arrh <I>Cell</I><B> 97</B>: 175-87. (1999).<BR><BR></A></TD><br />
<TD><I>320</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9760292">20. Molecular basis of transient outward potassium current downregulation in human h <I>Circulation</I><B> 98</B>: 1383-93. (1998).<BR><BR></A></TD><br />
<TD><B>317.2</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11101505">21. KCNE2 confers background current characteristics to the cardiac KCNQ1 potassium <I>EMBO J</I><B> 19</B>: 6326-30. (2000).<BR><BR></A></TD><br />
<TD><B>316.7</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=8900282">22. K(V)LQT1 and lsK (minK) proteins associate to form the I(Ks) cardiac potassium c <I>Nature</I><B> 384</B>: 78-80. (1996).<BR><BR></A></TD><br />
<TD><I>295</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11339975">23. HERG K+ channels: friend and foe. <I>Trends Pharmacol Sci</I><B> 22</B>: 240-6. (2001).<BR><BR></A></TD><br />
<TD><B>283.3</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=8740374">24. Fast inactivation causes rectification of the IKr channel. <I>J Gen Physiol</I><B> 107</B>: 611-9. (1996).<BR><BR></A></TD><br />
<TD><B>273.9</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=8790040">25. Genetically defined therapy of inherited long-QT syndrome. Correction of abnorma <I>Circulation</I><B> 94</B>: 1018-22. (1996).<BR><BR></A></TD><br />
<TD><B>267.6</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9511785">26. The long QT syndrome: ion channel diseases of the heart. <I>Mayo Clin Proc</I><B> 73</B>: 250-69. (1998).<BR><BR></A></TD><br />
<TD><B>266.7</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10694252">27. Trapping of a methanesulfonanilide by closure of the HERG potassium channel acti <I>J Gen Physiol</I><B> 115</B>: 229-40. (2000).<BR><BR></A></TD><br />
<TD><B>265.2</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10531299">28. Correction of defective protein trafficking of a mutant HERG potassium channel i <I>J Biol Chem</I><B> 274</B>: 31123-6. (1999).<BR><BR></A></TD><br />
<TD><B>254.2</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16554806">29. hERG potassium channels and cardiac arrhythmia. <I>Nature</I><B> 440</B>: 463-9. (2006).<BR><BR></A></TD><br />
<TD><I>250</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9486667">30. Molecular determinants of dofetilide block of HERG K+ channels. <I>Circ Res</I><B> 82</B>: 386-95. (1998).<BR><BR></A></TD><br />
<TD><B>248.5</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10325236">31. Mechanism of block and identification of the verapamil binding domain to HERG po <I>Circ Res</I><B> 84</B>: 989-98. (1999).<BR><BR></A></TD><br />
<TD><B>246.2</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10617464">32. A mutation in the C. elegans EXP-2 potassium channel that alters feeding behavio <I>Science</I><B> 286</B>: 2501-4. (1999).<BR><BR></A></TD><br />
<TD><I>244</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11602820">33. Drug block of I(kr): model systems and relevance to human arrhythmias. <I>J Cardiovasc Pharmacol</I><B> 38</B>: 737-44. (2001).<BR><BR></A></TD><br />
<TD><B>235.7</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=8772706">34. HERG, a primary human ventricular target of the nonsedating antihistamine terfen <I>Circulation</I><B> 94</B>: 817-23. (1996).<BR><BR></A></TD><br />
<TD><B>229.4</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12839862">35. Blockade of HERG potassium currents by fluvoxamine: incomplete attenuation by S6 <I>Br J Pharmacol</I><B> 139</B>: 887-98. (2003).<BR><BR></A></TD><br />
<TD><B>220.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11009462">36. Novel characteristics of a misprocessed mutant HERG channel linked to hereditary <I>m J Physiol Heart Circ Physiol</I><B> 279</B>: H1748-56. (2000).<BR><BR></A></TD><br />
<TD><B>216.7</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15721475">37. Blockade of HERG channels by HIV protease inhibitors. <I>Lancet</I><B> 365</B>: 682-6. (0).<BR><BR></A></TD><br />
<TD><I>215</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10648647">38. Molecular determinant of high-affinity dofetilide binding to HERG1 expressed in <I>Mol Pharmacol</I><B> 57</B>: 367-74. (2000).<BR><BR></A></TD><br />
<TD><B>213.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=8593709">39. Class III antiarrhythmic drugs block HERG, a human cardiac delayed rectifier K+ <I>Circ Res</I><B> 78</B>: 499-503. (1996).<BR><BR></A></TD><br />
<TD><B>211.9</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10187793">40. Long QT syndrome-associated mutations in the Per-Arnt-Sim (PAS) domain of HERG p <I>J Biol Chem</I><B> 274</B>: 10113-8. (1999).<BR><BR></A></TD><br />
<TD><B>211.5</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12209010">41. Position of aromatic residues in the S6 domain, not inactivation, dictates cisap <I>Proc Natl Acad Sci U S A</I><B> 99</B>: 12461-6. (2002).<BR><BR></A></TD><br />
<TD><B>210.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12208728">42. HERG K+ channel, a regulator of tumor cell apoptosis and proliferation. <I>Cancer Res</I><B> 62</B>: 4843-8. (2002).<BR><BR></A></TD><br />
<TD><B>210.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10226095">43. Novel mechanism associated with an inherited cardiac arrhythmia: defective prote <I>Circulation</I><B> 99</B>: 2290-4. (1999).<BR><BR></A></TD><br />
<TD><B>207.7</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15340016">44. Pentamidine-induced long QT syndrome and block of hERG trafficking. <I>J Pharmacol Exp Ther</I><B> 312</B>: 316-23. (2005).<BR><BR></A></TD><br />
<TD><B>200.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14557918">45. Drug binding to aromatic residues in the HERG channel pore cavity as possible ex <I>Naunyn Schmiedebergs Arch Pharmacol</I><B> 368</B>: 404-14. (2003).<BR><BR></A></TD><br />
<TD><B>200.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9694935">46. The antipsychotic agent sertindole is a high affinity antagonist of the human ca <I>J Pharmacol Exp Ther</I><B> 286</B>: 788-93. (1998).<BR><BR></A></TD><br />
<TD><B>200.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=8649354">47. High affinity open channel block by dofetilide of HERG expressed in a human cell <I>Mol Pharmacol</I><B> 49</B>: 949-55. (1996).<BR><BR></A></TD><br />
<TD><B>200.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9390998">48. Identification of two nervous system-specific members of the erg potassium chann <I>J Neurosci</I><B> 17</B>: 9423-32. (1997).<BR><BR></A></TD><br />
<TD><B>194.3</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11854117">49. Increased risk of arrhythmic events in long-QT syndrome with mutations in the po <I>Circulation</I><B> 105</B>: 794-9. (2002).<BR><BR></A></TD><br />
<TD><B>192.3</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=8799887">50. Molecular determinants for activation and inactivation of HERG, a human inward r <I>J Physiol</I><B> 493</B>: 635-42. (1996).<BR><BR></A></TD><br />
<TD><B>191.3</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12096056">51. KCNE4 is an inhibitory subunit to the KCNQ1 channel. <I>J Physiol</I><B> 542</B>: 119-30. (2002).<BR><BR></A></TD><br />
<TD><B>190.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11306531">52. Instability and triangulation of the action potential predict serious proarrhyth <I>Circulation</I><B> 103</B>: 2004-13. (2001).<BR><BR></A></TD><br />
<TD><B>188.9</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11022966">53. Familial and acquired long qt syndrome and the cardiac rapid delayed rectifier p <I>Clin Exp Pharmacol Physiol</I><B> 27</B>: 753-66. (2000).<BR><BR></A></TD><br />
<TD><B>188.9</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9374794">54. Blockage of the HERG human cardiac K+ channel by the gastrointestinal prokinetic <I>Am J Physiol</I><B> 273</B>: H2534-8. (1997).<BR><BR></A></TD><br />
<TD><B>188.6</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9351446">55. Electrophysiological characterization of an alternatively processed ERG K+ chann <I>Circ Res</I><B> 81</B>: 719-26. (1997).<BR><BR></A></TD><br />
<TD><B>188.6</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15090139">56. High throughput ion-channel pharmacology: planar-array-based voltage clamp. <I>Assay Drug Dev Technol</I><B> 1</B>: 127-35. (2003).<BR><BR></A></TD><br />
<TD><B>187.5</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10837251">57. Cyclic AMP regulates the HERG K(+) channel by dual pathways. <I>Curr Biol</I><B> 10</B>: 671-4. (2000).<BR><BR></A></TD><br />
<TD><B>186.4</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9973011">58. Auditory stimuli as a trigger for arrhythmic events differentiate HERG-related ( <I>J Am Coll Cardiol</I><B> 33</B>: 327-32. (1999).<BR><BR></A></TD><br />
<TD><B>186.2</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11739282">59. HERG K(+) channel activity is regulated by changes in phosphatidyl inositol 4,5- <I>Circ Res</I><B> 89</B>: 1168-76. (2001).<BR><BR></A></TD><br />
<TD><B>178.6</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11741928">60. The binding site for channel blockers that rescue misprocessed human long QT syn <I>J Biol Chem</I><B> 277</B>: 4989-98. (2002).<BR><BR></A></TD><br />
<TD><B>176.9</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14661677">61. Ethnic differences in cardiac potassium channel variants: implications for genet <I>Mayo Clin Proc</I><B> 78</B>: 1479-87. (2003).<BR><BR></A></TD><br />
<TD><B>175.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14642687">62. A new oral therapy for long QT syndrome: long-term oral potassium improves repol <I>J Am Coll Cardiol</I><B> 42</B>: 1777-82. (2003).<BR><BR></A></TD><br />
<TD><B>175.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12431979">63. Cell cycle-dependent expression of HERG1 and HERG1B isoforms in tumor cells. <I>J Biol Chem</I><B> 278</B>: 2947-55. (2003).<BR><BR></A></TD><br />
<TD><B>175.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11156880">64. Ion channel remodeling is related to intraoperative atrial effective refractory <I>Circulation</I><B> 103</B>: 684-90. (2001).<BR><BR></A></TD><br />
<TD><B>172.2</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9509262">65. The molecular genetics of the long QT syndrome: genes causing fainting and sudde <I>Annu Rev Med</I><B> 49</B>: 263-74. (1998).<BR><BR></A></TD><br />
<TD><B>169.7</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10510461">66. Inhibition of the current of heterologously expressed HERG potassium channels by <I>Br J Pharmacol</I><B> 128</B>: 479-85. (1999).<BR><BR></A></TD><br />
<TD><B>169.6</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15749156">67. Predicting drug-hERG channel interactions that cause acquired long QT syndrome. <I>Trends Pharmacol Sci</I><B> 26</B>: 119-24. (2005).<BR><BR></A></TD><br />
<TD><I>169</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12354768">68. A novel mutation (T65P) in the PAS domain of the human potassium channel HERG re <I>J Biol Chem</I><B> 277</B>: 48610-6. (2002).<BR><BR></A></TD><br />
<TD><B>166.7</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11960982">69. Molecular determinants of voltage-dependent human ether-a-go-go related gene (HE <I>J Biol Chem</I><B> 277</B>: 23587-95. (2002).<BR><BR></A></TD><br />
<TD><B>166.7</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9012748">70. Tissue and species distribution of mRNA for the IKr-like K+ channel, erg. <I>Circ Res</I><B> 80</B>: 261-8. (1997).<BR><BR></A></TD><br />
<TD><B>166.7</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15711592">71. Pentamidine reduces hERG expression to prolong the QT interval. <I>Br J Pharmacol</I><B> 145</B>: 15-23. (2005).<BR><BR></A></TD><br />
<TD><I>165</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9693036">72. Genomic structure of three long QT syndrome genes: KVLQT1, HERG, and KCNE1. <I>Genomics</I><B> 51</B>: 86-97. (1998).<BR><BR></A></TD><br />
<TD><I>164</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11805215">73. The antidepressant drug fluoxetine is an inhibitor of human ether-a-go-go-relate <I>J Pharmacol Exp Ther</I><B> 300</B>: 543-8. (2002).<BR><BR></A></TD><br />
<TD><B>161.5</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10400998">74. Cellular dysfunction of LQT5-minK mutants: abnormalities of IKs, IKr and traffic <I>Hum Mol Genet</I><B> 8</B>: 1499-507. (1999).<BR><BR></A></TD><br />
<TD><B>160.9</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9688586">75. Ion channels in microglia (brain macrophages). <I>Am J Physiol</I><B> 275</B>: C327-42. (1998).<BR><BR></A></TD><br />
<TD><B>160.7</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12815161">76. APETx1, a new toxin from the sea anemone Anthopleura elegantissima, blocks volta <I>Mol Pharmacol</I><B> 64</B>: 59-69. (2003).<BR><BR></A></TD><br />
<TD><B>160.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11440975">77. Molecular interactions between two long-QT syndrome gene products, HERG and KCNE <I>Circ Res</I><B> 89</B>: 33-8. (2001).<BR><BR></A></TD><br />
<TD><B>160.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10899088">78. Sildenafil (Viagra) prolongs cardiac repolarization by blocking the rapid compon <I>Circulation</I><B> 102</B>: 275-7. (2000).<BR><BR></A></TD><br />
<TD><B>159.1</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15522280">79. Role of a KCNH2 polymorphism (R1047 L) in dofetilide-induced Torsades de Pointes <I>J Mol Cell Cardiol</I><B> 37</B>: 1031-9. (2004).<BR><BR></A></TD><br />
<TD><I>159</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11864984">80. Interactions between S4-S5 linker and S6 transmembrane domain modulate gating of <I>J Biol Chem</I><B> 277</B>: 18994-9000. (2002).<BR><BR></A></TD><br />
<TD><B>158.3</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11113008">81. Retention in the endoplasmic reticulum as a mechanism of dominant-negative curre <I>J Mol Cell Cardiol</I><B> 32</B>: 2327-37. (2000).<BR><BR></A></TD><br />
<TD><B>155.6</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9765513">82. HERG and KvLQT1/IsK, the cardiac K+ channels involved in long QT syndromes, are <I>Mol Pharmacol</I><B> 54</B>: 695-703. (1998).<BR><BR></A></TD><br />
<TD><B>155.2</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9024139">83. Four novel KVLQT1 and four novel HERG mutations in familial long-QT syndrome. <I>Circulation</I><B> 95</B>: 565-7. (1997).<BR><BR></A></TD><br />
<TD><B>152.8</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15213294">84. Mechanisms of arsenic-induced prolongation of cardiac repolarization. <I>Mol Pharmacol</I><B> 66</B>: 33-44. (2004).<BR><BR></A></TD><br />
<TD><B>150.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14500335">85. Kv1.5 is an important component of repolarizing K+ current in canine atrial myoc <I>Circ Res</I><B> 93</B>: 744-51. (2003).<BR><BR></A></TD><br />
<TD><B>150.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12021266">86. Defective human Ether-à-go-go-related gene trafficking linked to an endoplasmic <I>J Biol Chem</I><B> 277</B>: 27442-8. (2002).<BR><BR></A></TD><br />
<TD><B>150.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11278781">87. Analysis of the cyclic nucleotide binding domain of the HERG potassium channel a <I>J Biol Chem</I><B> 276</B>: 17244-51. (2001).<BR><BR></A></TD><br />
<TD><B>150.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15280551">88. In vivo identification of genes that modify ether-a-go-go-related gene activity <I>Proc Natl Acad Sci U S A</I><B> 101</B>: 11773-8. (2004).<BR><BR></A></TD><br />
<TD><I>149</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11463728">89. Homozygous SCN5A mutation in long-QT syndrome with functional two-to-one atriove <I>Circ Res</I><B> 89</B>: E16-21. (2001).<BR><BR></A></TD><br />
<TD><B>146.7</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12407082">90. Structural and functional role of the extracellular s5-p linker in the HERG pota <I>J Gen Physiol</I><B> 120</B>: 723-37. (2002).<BR><BR></A></TD><br />
<TD><B>144.4</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12324418">91. KCNE5 induces time- and voltage-dependent modulation of the KCNQ1 current. <I>Biophys J</I><B> 83</B>: 1997-2006. (2002).<BR><BR></A></TD><br />
<TD><B>144.4</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12775586">92. Role of the cytosolic chaperones Hsp70 and Hsp90 in maturation of the cardiac po <I>Circ Res</I><B> 92</B>: e87-100. (2003).<BR><BR></A></TD><br />
<TD><B>142.9</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12529362">93. RNA interference reveals that endogenous Xenopus MinK-related peptides govern ma <I>J Biol Chem</I><B> 278</B>: 11739-45. (2003).<BR><BR></A></TD><br />
<TD><B>142.9</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9658196">94. Molecular basis for the lack of HERG K+ channel block-related cardiotoxicity by <I>Mol Pharmacol</I><B> 54</B>: 113-21. (1998).<BR><BR></A></TD><br />
<TD><B>142.9</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12070109">95. Pharmacological rescue of human K(+) channel long-QT2 mutations: human ether-a-g <I>Circulation</I><B> 105</B>: 2830-5. (2002).<BR><BR></A></TD><br />
<TD><B>141.7</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12829172">96. Regulation of HERG potassium channel activation by protein kinase C independent <I>Cardiovasc Res</I><B> 59</B>: 14-26. (2003).<BR><BR></A></TD><br />
<TD><B>140.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12176106">97. A comparison of the receptor binding and HERG channel affinities for a series of <I>Eur J Pharmacol</I><B> 450</B>: 37-41. (2002).<BR><BR></A></TD><br />
<TD><B>140.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=8635231">98. Differential response to Na+ channel blockade, beta-adrenergic stimulation, and <I>Circ Res</I><B> 78</B>: 1009-15. (1996).<BR><BR></A></TD><br />
<TD><B>139.1</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16848931">99. Computational biology in the study of cardiac ion channels and cell electrophysi <I>Q Rev Biophys</I><B> 0</B>: 1-60. (2006).<BR><BR></A></TD><br />
<TD><I>139</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15718164">100. Predictive in silico modeling for hERG channel blockers. <I>Drug Discov Today</I><B> 10</B>: 149-55. (2005).<BR><BR></A></TD><br />
<TD><I>138</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=8823008">101. Sex hormones prolong the QT interval and downregulate potassium channel expressi <I>Circulation</I><B> 94</B>: 1471-4. (1996).<BR><BR></A></TD><br />
<TD><I>138</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17693551">102. Structural basis of action for a human ether-a-go-go-related gene 1 potassium ch <I>Proc Natl Acad Sci U S A</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>136</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9694927">103. Blockade of HERG and Kv1.5 by ketoconazole. <I>J Pharmacol Exp Ther</I><B> 286</B>: 727-35. (1998).<BR><BR></A></TD><br />
<TD><B>135.7</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15148258">104. Inhibition of cardiac HERG currents by the DNA topoisomerase II inhibitor amsacr <I>Br J Pharmacol</I><B> 142</B>: 485-94. (2004).<BR><BR></A></TD><br />
<TD><B>133.3</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11090546">105. Probing the interaction between inactivation gating and Dd-sotalol block of HERG <I>Circ Res</I><B> 87</B>: 1012-8. (2000).<BR><BR></A></TD><br />
<TD><B>133.3</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11046096">106. Interactions of the 5-hydroxytryptamine 3 antagonist class of antiemetic drugs w <I>J Pharmacol Exp Ther</I><B> 295</B>: 614-20. (2000).<BR><BR></A></TD><br />
<TD><B>133.3</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15642761">107. Targeted modification of atrial electrophysiology by homogeneous transmural atri <I>Circulation</I><B> 111</B>: 264-70. (2005).<BR><BR></A></TD><br />
<TD><I>131</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17709632">108. Common Genetic Variation in KCNH2 Is Associated With QT Interval Duration. The F <I>Circulation</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>131</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10483966">109. Sinus node function and ventricular repolarization during exercise stress test i <I>J Am Coll Cardiol</I><B> 34</B>: 823-9. (1999).<BR><BR></A></TD><br />
<TD><B>130.4</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=8873679">110. Multiple mechanisms in the long-QT syndrome. Current knowledge, gaps, and future <I>Circulation</I><B> 94</B>: 1996-2012. (1996).<BR><BR></A></TD><br />
<TD><I>130</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16284303">111. Mechanism of action of NS1643, a novel hERG channel activator. <I>Mol Pharmacol</I><B> 0</B>: . (2005).<BR><BR></A></TD><br />
<TD><I>129</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11334834">112. Cellular consequences of HERG mutations in the long QT syndrome: precursors to s <I>Cardiovasc Res</I><B> 50</B>: 301-13. (2001).<BR><BR></A></TD><br />
<TD><B>127.8</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11320260">113. Distinct gene-specific mechanisms of arrhythmia revealed by cardiac gene transfe <I>Proc Natl Acad Sci U S A</I><B> 98</B>: 5335-40. (2001).<BR><BR></A></TD><br />
<TD><B>127.8</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14699101">114. Physicochemical features of the HERG channel drug binding site. <I>J Biol Chem</I><B> 279</B>: 10120-7. (2004).<BR><BR></A></TD><br />
<TD><I>127</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11874988">115. Disease-associated mutations in KCNE potassium channel subunits (MiRPs) reveal p <I>FASEB J</I><B> 16</B>: 390-400. (2002).<BR><BR></A></TD><br />
<TD><I>127</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12052668">116. Cardiotoxicity of new antihistamines and cisapride. <I>Toxicol Lett</I><B> 127</B>: 279-84. (2002).<BR><BR></A></TD><br />
<TD><I>126</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14678746">117. Zebrafish embryos express an orthologue of HERG and are sensitive toward a range <I>Toxicol Appl Pharmacol</I><B> 193</B>: 370-82. (2003).<BR><BR></A></TD><br />
<TD><B>125.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14613852">118. Defective protein trafficking in hERG-associated hereditary long QT syndrome (LQ <I>Cardiovasc Res</I><B> 60</B>: 235-41. (2003).<BR><BR></A></TD><br />
<TD><B>125.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12885765">119. Identification of a COOH-terminal segment involved in maturation and stability o <I>J Biol Chem</I><B> 278</B>: 40105-12. (2003).<BR><BR></A></TD><br />
<TD><B>125.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10681594">120. Expression of distinct ERG proteins in rat, mouse, and human heart. Relation to <I>J Biol Chem</I><B> 275</B>: 5997-6006. (2000).<BR><BR></A></TD><br />
<TD><I>125</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15710766">121. QTc prolongation by grapefruit juice and its potential pharmacological basis: HE <I>Circulation</I><B> 111</B>: 835-8. (2005).<BR><BR></A></TD><br />
<TD><I>124</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12270925">122. Interaction with GM130 during HERG ion channel trafficking. Disruption by type 2 <I>J Biol Chem</I><B> 277</B>: 47779-85. (2002).<BR><BR></A></TD><br />
<TD><I>122</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11854131">123. Atrio-sinus interaction demonstrated by blockade of the rapid delayed rectifier <I>Circulation</I><B> 105</B>: 880-5. (2002).<BR><BR></A></TD><br />
<TD><I>122</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15975984">124. Molecular mapping of a site for Cd2+-induced modification of human ether-à-go-g <I>J Physiol</I><B> 567</B>: 737-55. (2005).<BR><BR></A></TD><br />
<TD><I>120</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12837749">125. Thapsigargin selectively rescues the trafficking defective LQT2 channels G601S a <I>J Biol Chem</I><B> 278</B>: 35749-54. (2003).<BR><BR></A></TD><br />
<TD><B>120.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12086981">126. Inhibition of the current of heterologously expressed HERG potassium channels by <I>Br J Pharmacol</I><B> 136</B>: 717-29. (2002).<BR><BR></A></TD><br />
<TD><B>120.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=8921803">127. Molecular physiology and pharmacology of HERG. Single-channel currents and block <I>Circulation</I><B> 94</B>: 2572-9. (1996).<BR><BR></A></TD><br />
<TD><I>120</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17854232">128. Clinical translation of genotyping and haplotyping data : implementation of in v <I>Clin Pharmacokinet</I><B> 46</B>: 807-24. (2007).<BR><BR></A></TD><br />
<TD><I>120</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14525949">129. The IKr drug response is modulated by KCR1 in transfected cardiac and noncardiac <I>FASEB J</I><B> 17</B>: 2263-5. (2003).<BR><BR></A></TD><br />
<TD><I>119</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16647758">130. Human ether-a-go-go-related (HERG) gene and ATP-sensitive potassium channels as <I>Pharmacol Ther</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>119</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16432067">131. Most LQT2 mutations reduce Kv11.1 (hERG) current by a class 2 (trafficking-defic <I>Circulation</I><B> 113</B>: 365-73. (2006).<BR><BR></A></TD><br />
<TD><I>119</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10794667">132. KChAP as a chaperone for specific K(+) channels. <I>Am J Physiol Cell Physiol</I><B> 278</B>: C931-41. (2000).<BR><BR></A></TD><br />
<TD><B>118.2</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12838849">133. [Value of genetic testing in the management of the congenital long QT syndrome] <I>Arch Mal Coeur Vaiss</I><B> 96</B>: 539-47. (2003).<BR><BR></A></TD><br />
<TD><I>117</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11953308">134. 14-3-3 amplifies and prolongs adrenergic stimulation of HERG K+ channel activity <I>EMBO J</I><B> 21</B>: 1889-98. (2002).<BR><BR></A></TD><br />
<TD><B>116.7</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11196567">135. Long QT syndrome: cellular basis and arrhythmia mechanism in LQT2. <I>J Cardiovasc Electrophysiol</I><B> 11</B>: 1413-8. (2000).<BR><BR></A></TD><br />
<TD><B>116.7</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11865022">136. Fast and slow voltage sensor movements in HERG potassium channels. <I>J Gen Physiol</I><B> 119</B>: 275-93. (2002).<BR><BR></A></TD><br />
<TD><B>115.4</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10860024">137. Effects of calcium channel blockers on cloned cardiac K+ channels IKr and IKs. <I>Therapie</I><B> 55</B>: 195-202. (0).<BR><BR></A></TD><br />
<TD><I>115</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18464931">138. Mechanisms of cardiac arrhythmias and sudden death in transgenic rabbits with long QT synd <I>J Clin Invest</I><B> 0</B>: . (2008).<BR><BR></A></TD><br />
<TD><I>115</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9721698">139. Novel mechanism of HERG current suppression in LQT2: shift in voltage dependence <I>Circ Res</I><B> 83</B>: 415-22. (1998).<BR><BR></A></TD><br />
<TD><B>114.3</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16227340">140. SPECIFIC SERINE PROTEASES SELECTIVELY DAMAGE KCNH2 (hERG1) POTASSIUM CHANNELS AN <I>Am J Physiol Heart Circ Physiol</I><B> 0</B>: . (2005).<BR><BR></A></TD><br />
<TD><I>114</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16116052">141. KCNH2-K897T is a genetic modifier of latent congenital long-QT syndrome. <I>Circulation</I><B> 112</B>: 1251-8. (2005).<BR><BR></A></TD><br />
<TD><I>114</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10904835">142. The &#8220;final common pathway&#8221; hypothesis and inherited cardiovascular disease. The <I>Herz</I><B> 25</B>: 75. (2000).<BR><BR></A></TD><br />
<TD><B>113.6</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16678449">143. Electrical alternans and hemodynamics in the anesthetized guinea pig can discrim <I>J Pharmacol Toxicol Methods</I><B> 55</B>: 78-85. (0).<BR><BR></A></TD><br />
<TD><I>113</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12650941">144. Solution structure of CnErg1 (Ergtoxin), a HERG specific scorpion toxin. <I>FEBS Lett</I><B> 539</B>: 138-42. (2003).<BR><BR></A></TD><br />
<TD><B>112.5</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12554641">145. C-terminal domains implicated in the functional surface expression of potassium <I>EMBO J</I><B> 22</B>: 395-403. (2003).<BR><BR></A></TD><br />
<TD><B>112.5</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12504811">146. In vivo androgen treatment shortens the QT interval and increases the densities <I>Cardiovasc Res</I><B> 57</B>: 28-36. (2003).<BR><BR></A></TD><br />
<TD><B>112.5</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12427763">147. Cloning and functional characterization of the smooth muscle ether-a-go-go-relat <I>J Biol Chem</I><B> 278</B>: 2503-14. (2003).<BR><BR></A></TD><br />
<TD><B>112.5</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14736543">148. Prolonged repolarization and triggered activity induced by adenoviral expression <I>Cardiovasc Res</I><B> 61</B>: 268-77. (2004).<BR><BR></A></TD><br />
<TD><I>112</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12849668">149. Modulating effects of age and gender on the clinical course of long QT syndrome <I>J Am Coll Cardiol</I><B> 42</B>: 103-9. (2003).<BR><BR></A></TD><br />
<TD><I>112</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12085742">150. [Homozygotous mutation of the SCN5A gene responsible for congenital long QT synd <I>Arch Mal Coeur Vaiss</I><B> 95</B>: 440-6. (2002).<BR><BR></A></TD><br />
<TD><I>112</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16923798">151. C-terminal HERG (LQT2) mutations disrupt IKr channel regulation through 14-3-3ep <I>Hum Mol Genet</I><B> 15</B>: 2888-902. (2006).<BR><BR></A></TD><br />
<TD><I>112</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12151390">152. New binding site on common molecular scaffold provides HERG channel specificity <I>J Biol Chem</I><B> 277</B>: 43104-9. (2002).<BR><BR></A></TD><br />
<TD><B>111.1</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11693772">153. Alterations in potassium channel gene expression in atria of patients with persi <I>J Am Coll Cardiol</I><B> 37</B>: 926-32. (2001).<BR><BR></A></TD><br />
<TD><B>111.1</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11164846">154. Antiarrhythmic drug carvedilol inhibits HERG potassium channels. <I>Cardiovasc Res</I><B> 49</B>: 361-70. (2001).<BR><BR></A></TD><br />
<TD><B>111.1</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11138839">155. Inhibition of IKs channels by HMR 1556. <I>Naunyn Schmiedebergs Arch Pharmacol</I><B> 362</B>: 480-8. (2000).<BR><BR></A></TD><br />
<TD><B>111.1</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11033107">156. Comparative effects of azimilide and ambasilide on the human ether-a-go-go-relat <I>Cardiovasc Res</I><B> 48</B>: 44-58. (2000).<BR><BR></A></TD><br />
<TD><I>111</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10860023">157. Cardiac K+ channels and drug-acquired long QT syndrome. <I>Therapie</I><B> 55</B>: 185-93. (0).<BR><BR></A></TD><br />
<TD><I>111</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16647228">158. In vitro modulation of HERG channels by organochlorine solvent trichlormethane a <I>Toxicol Lett</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>111</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9799397">159. Time course and voltage dependence of expressed HERG current compared with nativ <I>Pflugers Arch</I><B> 436</B>: 843-53. (1998).<BR><BR></A></TD><br />
<TD><B>110.3</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14744775">160. herg1 gene and HERG1 protein are overexpressed in colorectal cancers and regulat <I>Cancer Res</I><B> 64</B>: 606-11. (2004).<BR><BR></A></TD><br />
<TD><I>110</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12185453">161. Identification and functional characterization of a novel KCNE2 (MiRP1) mutation <I>J Mol Med</I><B> 80</B>: 524-32. (2002).<BR><BR></A></TD><br />
<TD><B>110.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9485040">162. herg encodes a K+ current highly conserved in tumors of different histogenesis: <I>Cancer Res</I><B> 58</B>: 815-22. (1998).<BR><BR></A></TD><br />
<TD><I>110</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17189275">163. HERG is protected from pharmacological blockade by constitutive alpha -1,2-gluco <I>J Biol Chem</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>110</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17272276">164. Heteromeric assembly of hERG 1A/1B channels occurs cotranslationally via amino-t <I>J Biol Chem</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>110</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12695533">165. Voltage-dependent profile of human ether-a-go-go-related gene channel block is i <I>Mol Pharmacol</I><B> 63</B>: 1051-8. (2003).<BR><BR></A></TD><br />
<TD><I>109</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9694858">166. HERG channel dysfunction in human long QT syndrome. Intracellular transport and <I>J Biol Chem</I><B> 273</B>: 21061-6. (1998).<BR><BR></A></TD><br />
<TD><I>109</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16039273">167. Atrial fibrillation-associated minK38G/S polymorphism modulates delayed rectifie <I>Cardiovasc Res</I><B> 67</B>: 520-8. (2005).<BR><BR></A></TD><br />
<TD><I>108</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15760896">168. Degradation of trafficking-defective long QT syndrome type II mutant channels by <I>J Biol Chem</I><B> 280</B>: 19419-25. (2005).<BR><BR></A></TD><br />
<TD><I>108</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12591761">169. Spironolactone and its main metabolite, canrenoic acid, block human ether-a-go-g <I>Circulation</I><B> 107</B>: 889-95. (2003).<BR><BR></A></TD><br />
<TD><I>108</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17298291">170. The hERG potassium channel as a therapeutic target. <I>Expert Opin Ther Targets</I><B> 11</B>: 321-36. (2007).<BR><BR></A></TD><br />
<TD><I>108</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11455010">171. Open channel block of HERG K(+) channels by vesnarinone. <I>Mol Pharmacol</I><B> 60</B>: 244-53. (2001).<BR><BR></A></TD><br />
<TD><I>107</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10715269">172. Losartan and its metabolite E3174 modify cardiac delayed rectifier K(+) currents <I>Circulation</I><B> 101</B>: 1199-205. (2000).<BR><BR></A></TD><br />
<TD><I>107</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10079110">173. Overexpression of a human potassium channel suppresses cardiac hyperexcitability <I>J Clin Invest</I><B> 103</B>: 889-96. (1999).<BR><BR></A></TD><br />
<TD><B>106.9</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9765245">174. A K+ channel splice variant common in human heart lacks a C-terminal domain requ <I>J Biol Chem</I><B> 273</B>: 27231-5. (1998).<BR><BR></A></TD><br />
<TD><B>106.9</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11377395">175. Testosterone-mediated modulation of HERG blockade by proarrhythmic agents. <I>Biochem Pharmacol</I><B> 62</B>: 41-9. (2001).<BR><BR></A></TD><br />
<TD><B>106.7</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9607936">176. HERG-like K+ channels in microglia. <I>J Gen Physiol</I><B> 111</B>: 781-94. (1998).<BR><BR></A></TD><br />
<TD><B>106.1</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14585842">177. KvLQT1 modulates the distribution and biophysical properties of HERG. A novel al <I>J Biol Chem</I><B> 279</B>: 1233-41. (2004).<BR><BR></A></TD><br />
<TD><I>106</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=8994043">178. The seizure locus encodes the Drosophila homolog of the HERG potassium channel. <I>J Neurosci</I><B> 17</B>: 882-90. (1997).<BR><BR></A></TD><br />
<TD><I>106</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11099479">179. Glucose- and arginine-induced insulin secretion by human pancreatic beta-cells: <I>FASEB J</I><B> 14</B>: 2601-10. (2000).<BR><BR></A></TD><br />
<TD><B>105.6</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15812674">180. HERG K+ channel expression-related chemosensitivity in cancer cells and its modu <I>Cancer Chemother Pharmacol</I><B> 56</B>: 212-20. (2005).<BR><BR></A></TD><br />
<TD><I>105</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15731003">181. Another dimension to calcium signaling: a look at extracellular calcium. <I>J Cell Sci</I><B> 118</B>: 855-62. (2005).<BR><BR></A></TD><br />
<TD><I>105</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12618226">182. [K(+)](o)-dependent change in conformation of the HERG1 long QT mutation N629D c <I>Cardiovasc Res</I><B> 57</B>: 642-50. (2003).<BR><BR></A></TD><br />
<TD><I>105</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11005704">183. Cardiovascular adverse effects of antipsychotic drugs. <I>Drug Saf</I><B> 23</B>: 215-28. (2000).<BR><BR></A></TD><br />
<TD><B>104.5</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10409198">184. Pathways of HERG inactivation. <I>Am J Physiol</I><B> 277</B>: H199-210. (1999).<BR><BR></A></TD><br />
<TD><B>104.3</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14563681">185. N-Glycosylation-dependent block is a novel mechanism for drug-induced cardiac ar <I>FASEB J</I><B> 17</B>: 2308-9. (2003).<BR><BR></A></TD><br />
<TD><I>104</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10028924">186. Modulation of HERG potassium channels by extracellular magnesium and quinidine. <I>J Cardiovasc Pharmacol</I><B> 33</B>: 181-5. (1999).<BR><BR></A></TD><br />
<TD><B>103.4</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15004209">187. Activation properties of Kv4.3 channels: time, voltage and [K+]o dependence. <I>J Physiol</I><B> 557</B>: 705-17. (2004).<BR><BR></A></TD><br />
<TD><I>103</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11994029">188. Safety of non-antiarrhythmic drugs that prolong the QT interval or induce torsad <I>Drug Saf</I><B> 25</B>: 263-86. (2002).<BR><BR></A></TD><br />
<TD><I>103</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9570196">189. New mutations in the KVLQT1 potassium channel that cause long-QT syndrome. <I>Circulation</I><B> 97</B>: 1264-9. (1998).<BR><BR></A></TD><br />
<TD><B>103.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16914520">190. Association of 14-3-3 Proteins to {beta}1-Adrenergic Receptors Modulates Kv11.1 <I>Mol Biol Cell</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>103</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17408310">191. Application of the bradford hill criteria to assess the causality of cisapride-i <I>Drug Saf</I><B> 30</B>: 333-46. (2007).<BR><BR></A></TD><br />
<TD><I>103</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15798395">192. Characterization of a hERG screen using the IonWorks HT: comparison to a hERG ru <I>Assay Drug Dev Technol</I><B> 3</B>: 47-57. (2005).<BR><BR></A></TD><br />
<TD><I>102</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15671647">193. Automated tight seal electrophysiology for assessing the potential hERG liabilit <I>Assay Drug Dev Technol</I><B> 2</B>: 497-506. (2004).<BR><BR></A></TD><br />
<TD><I>102</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18471075">194. Development of the predictor HERG fluorescence polarization assay using a membrane protein <I>Assay Drug Dev Technol</I><B> 6</B>: 213-23. (2008).<BR><BR></A></TD><br />
<TD><I>102</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16309205">195. Different roles for K+ channels in cisplatin-resistant cell lines argue against <I>Anticancer Res</I><B> 25</B>: 4113-22. (0).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16244680">196. [DNA-based diagnostics of long QT syndrome] <I>Tidsskr Nor Laegeforen</I><B> 125</B>: 2783-6. (2005).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16220205">197. Inhibitory effect of rhynchophylline on human ether-a-go-go related gene channel <I>Sheng Li Xue Bao</I><B> 57</B>: 648-652. (2005).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16086867">198. [Correlation of HERG K+ channel protein expression to chemosensitivity of tumor <I>Ai Zheng</I><B> 24</B>: 924-9. (2005).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16076272">199. Clinical characteristics and treatment of short QT syndrome. <I>Expert Rev Cardiovasc Ther</I><B> 3</B>: 611-7. (2005).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16051556">200. The phenothiazine drugs inhibit hERG potassium channels. <I>Drug Chem Toxicol</I><B> 28</B>: 303-13. (2005).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16043162">201. Role of sequence variations in the human ether-a-go-go-related gene (HERG, KCNH2 <I>Cardiovasc Res</I><B> 68</B>: 441-53. (2005).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16039272">202. Modulation of I(Kr) inactivation by mutation N588K in KCNH2: a link to arrhythmo <I>Cardiovasc Res</I><B> 67</B>: 498-509. (2005).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15987089">203. Microfluidic gradient-generating device for pharmacological profiling. <I>Anal Chem</I><B> 77</B>: 3897-903. (2005).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15973763">204. A novel splice mutation of HERG in a Chinese family with long QT syndrome. <I>J Zhejiang Univ Sci B</I><B> 6</B>: 626-30. (2005).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15936218">205. Estimation of potency of HERG channel blockers: impact of voltage protocol and t <I>J Pharmacol Toxicol Methods</I><B> 52</B>: 146-53. (0).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15936217">206. Automated electrophysiology in the preclinical evaluation of drugs for potential <I>J Pharmacol Toxicol Methods</I><B> 52</B>: 123-35. (0).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15869048">207. Carvedilol's antiarrhythmic properties: therapeutic implications in patients wit <I>Clin Cardiol</I><B> 28</B>: 165-73. (2005).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15853698">208. Molecular predictors of drug-induced prolongation of the QT interval. <I>Curr Med Chem Cardiovasc Hematol Agents</I><B> 3</B>: 105-18. (2005).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15846098">209. The Potent Inhibitory Effects of Cisapride, a Specific Blocker for Human Ether-a <I>Cancer Biol Ther</I><B> 4</B>: 295-301. (2005).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15844440">210. In silico modelling of ADMET-a minireview of work from 2000 to 2004. <I>SAR QSAR Environ Res</I><B> 16</B>: 1-11. (0).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15842772">211. Modulating effect of ginseng saponins on heterologously expressed HERG currents <I>Acta Pharmacol Sin</I><B> 26</B>: 551-8. (2005).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15821840">212. The influence of extracellular acidosis on the effect of IKr blockers. <I>J Cardiovasc Pharmacol Ther</I><B> 10</B>: 67-76. (2005).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15820977">213. Conservation and specialization in PAS domain dynamics. <I>Protein Eng Des Sel</I><B> 18</B>: 127-37. (2005).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15727052">214. Electrophysiological safety of DW-286a, a novel fluoroquinolone antibiotic agent <I>Hum Exp Toxicol</I><B> 24</B>: 19-25. (2005).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15685300">215. Effect of change in posture and exercise on repolarization in patients with long <I>Can J Cardiol</I><B> 21</B>: 33-8. (2005).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15669698">216. Prediction of hERG K+ blocking potency: application of structural knowledge. <I>SAR QSAR Environ Res</I><B> 15</B>: 399-411. (0).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15637086">217. Anti-HERG activity and the risk of drug-induced arrhythmias and sudden death. <I>Eur Heart J</I><B> 26</B>: 590-7. (2005).<BR><BR></A></TD><br />
<TD><B>100.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15616901">218. Molecular and clinical determinants of drug-induced long QT syndrome: an iatroge <I>Swiss Med Wkly</I><B> 134</B>: 685-94. (2004).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15608471">219. QTc interval prolongation in patients on long-term methadone maintenance therapy <I>Eur Addict Res</I><B> 11</B>: 44-9. (2005).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15573468">220. Safety pharmacology of DW-224a, a novel fluoroquinolone antibiotic agent. <I>Drug Chem Toxicol</I><B> 27</B>: 295-307. (2004).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15548764">221. Discovery of a small molecule activator of the human ether-a-go-go-related gene <I>Mol Pharmacol</I><B> 67</B>: 827-36. (2005).<BR><BR></A></TD><br />
<TD><B>100.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15500011">222. Targeting K+ channels for cancer therapy. <I>J Exp Ther Oncol</I><B> 4</B>: 161-6. (2004).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15389727">223. QT prolongation through hERG K(+) channel blockade: current knowledge and strate <I>Med Res Rev</I><B> 25</B>: 133-66. (2005).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15368194">224. Identification of a KCNE2 gain-of-function mutation in patients with familial at <I>Am J Hum Genet</I><B> 75</B>: 899-905. (2004).<BR><BR></A></TD><br />
<TD><B>100.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15326914">225. Physicochemical determinants for drug induced blockade of HERG potassium channel <I>Curr Med Chem Cardiovasc Hematol Agents</I><B> 1</B>: 225-41. (2003).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15326913">226. IKr channel blockers: novel antiarrhythmic agents. <I>Curr Med Chem Cardiovasc Hematol Agents</I><B> 1</B>: 203-23. (2003).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15304481">227. Cardiac IKr channels minimally comprise hERG 1a and 1b subunits. <I>J Biol Chem</I><B> 279</B>: 44690-4. (2004).<BR><BR></A></TD><br />
<TD><B>100.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15272206">228. Validation of a [3H]astemizole binding assay in HEK293 cells expressing HERG K+ <I>J Pharmacol Sci</I><B> 95</B>: 311-9. (2004).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15266014">229. Structural determinants of HERG channel block by clofilium and ibutilide. <I>Mol Pharmacol</I><B> 66</B>: 240-9. (2004).<BR><BR></A></TD><br />
<TD><B>100.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15192835">230. [Long QT syndrome gene diagnosis by haplotype analysis] <I>Zhonghua Yi Xue Yi Chuan Xue Za Zhi</I><B> 21</B>: 272-3. (2004).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15176425">231. Four potassium channel mutations account for 73% of the genetic spectrum underly <I>Ann Med</I><B> 36</B>: 53-63. (2004).<BR><BR></A></TD><br />
<TD><B>100.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15169846">232. Functional interaction between extracellular sodium, potassium and inactivation <I>J Physiol</I><B> 558</B>: 729-44. (2004).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15132818">233. Inactivation gating determines drug potency: a common mechanism for drug blockad <I>Acta Pharmacol Sin</I><B> 25</B>: 554-60. (2004).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15090700">234. Long-term follow-up of notched T waves in female patients with LQT2 (HERG) mutat <I>Jpn Heart J</I><B> 45</B>: 243-50. (2004).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15080928">235. A model for identifying HERG K+ channel blockers. <I>Bioorg Med Chem</I><B> 12</B>: 2307-15. (2004).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14998624">236. Long QT syndrome in neonates: conduction disorders associated with HERG mutation <I>J Am Coll Cardiol</I><B> 43</B>: 826-30. (2004).<BR><BR></A></TD><br />
<TD><B>100.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14975928">237. Molecular and functional characterization of common polymorphisms in HERG (KCNH2 <I>Am J Physiol Heart Circ Physiol</I><B> 286</B>: H2434-41. (2004).<BR><BR></A></TD><br />
<TD><B>100.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14691044">238. Unusual effects of a QT-prolonging drug, arsenic trioxide, on cardiac potassium <I>Circulation</I><B> 109</B>: 26-9. (2004).<BR><BR></A></TD><br />
<TD><B>100.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14646167">239. Cardiovascular assessment of ER-118585, a selective phosphodiesterase 5 inhibito <I>Biol Pharm Bull</I><B> 26</B>: 1661-7. (2003).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14579516">240. Molecular determinants of high-affinity drug binding to HERG channels. <I>Curr Opin Drug Discov Devel</I><B> 6</B>: 667-74. (2003).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14508592">241. [18-year old patient with anti-epileptic therapy and sudden cardiac death] <I>Z Kardiol</I><B> 92</B>: 747-53. (2003).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12951809">242. HTS techniques to investigate the potential effects of compounds on cardiac ion <I>Curr Opin Drug Discov Devel</I><B> 6</B>: 462-9. (2003).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12904146">243. Cardiotoxicity of macrolides, ketolides and fluoroquinolones that prolong the QT <I>Expert Opin Drug Saf</I><B> 1</B>: 121-8. (2002).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12892298">244. Structural and functional basis for the long QT syndrome: relevance to veterinar <I>J Vet Intern Med</I><B> 17</B>: 473-88. (0).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12827215">245. Inhibition of cloned HERG potassium channels by the antiestrogen tamoxifen. <I>Naunyn Schmiedebergs Arch Pharmacol</I><B> 368</B>: 41-8. (2003).<BR><BR></A></TD><br />
<TD><B>100.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12808265">246. Q-T peak dispersion in congenital long QT syndrome: possible marker of mutation <I>Circ J</I><B> 67</B>: 495-8. (2003).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12788816">247. The antipsychotic drug chlorpromazine inhibits HERG potassium channels. <I>Br J Pharmacol</I><B> 139</B>: 567-74. (2003).<BR><BR></A></TD><br />
<TD><B>100.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12735231">248. QT interval prolongation and cardiac risk assessment for novel drugs. <I>Curr Opin Investig Drugs</I><B> 4</B>: 303-8. (2003).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12719233">249. BeKm-1 is a HERG-specific toxin that shares the structure with ChTx but the mech <I>Biophys J</I><B> 84</B>: 3022-36. (2003).<BR><BR></A></TD><br />
<TD><B>100.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12388285">250. Functional and pharmacological properties of canine ERG potassium channels. <I>Am J Physiol Heart Circ Physiol</I><B> 284</B>: H256-67. (2003).<BR><BR></A></TD><br />
<TD><B>100.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12200695">251. HERG potassium channels are constitutively expressed in primary human acute myel <I>Leukemia</I><B> 16</B>: 1791-8. (2002).<BR><BR></A></TD><br />
<TD><B>100.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12142119">252. Association between HERG K897T polymorphism and QT interval in middle-aged Finni <I>J Am Coll Cardiol</I><B> 40</B>: 511-4. (2002).<BR><BR></A></TD><br />
<TD><B>100.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12094149">253. [Ventricular arrhythmias. A potential risk associated with the use of non-cardio <I>Minerva Med</I><B> 93</B>: 181-97. (2002).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12065733">254. Blockade of human cardiac potassium channel human ether-a-go-go-related gene (HE <I>J Pharmacol Exp Ther</I><B> 302</B>: 320-7. (2002).<BR><BR></A></TD><br />
<TD><B>100.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12007180">255. A virtual screening method for prediction of the HERG potassium channel liabilit <I>Chembiochem</I><B> 3</B>: 455-9. (2002).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11743032">256. Long QT syndrome in children: the value of rate corrected QT interval and DNA an <I>J Med Screen</I><B> 8</B>: 173-7. (2001).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11741516">257. Inhibitory effects of berberine on IK1, IK, and HERG channels of cardiac myocyte <I>Acta Pharmacol Sin</I><B> 22</B>: 125-31. (2001).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11689132">258. Development and evaluation of high throughput functional assay methods for HERG <I>J Biomol Screen</I><B> 6</B>: 325-31. (2001).<BR><BR></A></TD><br />
<TD><B>100.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11575008">259. [The effect of second generation histamine antagonists on the heart] <I>Pneumonol Alergol Pol</I><B> 69</B>: 217-26. (2001).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11519244">260. [Testosterone modulation of HERG potassium channel blockade induced by neurolept <I>Fiziol Zh</I><B> 47</B>: 11-8. (2001).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11434015">261. [T wave abnormalities on Holter monitoring of congenital long QT syndrome: pheno <I>Arch Mal Coeur Vaiss</I><B> 94</B>: 470-8. (2001).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11303067">262. High-affinity blockade of human ether-a-go-go-related gene human cardiac potassi <I>J Pharmacol Exp Ther</I><B> 297</B>: 753-61. (2001).<BR><BR></A></TD><br />
<TD><B>100.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11056286">263. Prolonged QT interval and sudden infant death--report of two cases. <I>Forensic Sci Int</I><B> 115</B>: 147-53. (2001).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10816797">264. [Present concepts of congenital long QT syndrome] <I>Arch Mal Coeur Vaiss</I><B> 93</B>: 17-21. (2000).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10720411">265. Novel gain-of-function mechanism in K(+) channel-related long-QT syndrome: alter <I>Circ Res</I><B> 86</B>: 507-13. (2000).<BR><BR></A></TD><br />
<TD><B>100.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10712445">266. HERG-Like potassium current regulates the resting membrane potential in glomus c <I>J Neurophysiol</I><B> 83</B>: 1150-7. (2000).<BR><BR></A></TD><br />
<TD><B>100.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10613047">267. [Molecular genetics of the long QT syndrome: clinical aspects] <I>Orv Hetil</I><B> 140</B>: 2633-8. (1999).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9806971">268. Regulation of deactivation by an amino terminal domain in human ether-à-go-go-r <I>J Gen Physiol</I><B> 112</B>: 637-47. (1998).<BR><BR></A></TD><br />
<TD><B>100.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9742063">269. Inhibition of cardiac delayed rectifier K+ current by overexpression of the long <I>Circ Res</I><B> 83</B>: 668-78. (1998).<BR><BR></A></TD><br />
<TD><B>100.0</B></TD><br />
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<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9564764">270. [Molecular genetics of cardiovascular diseases] <I>Rinsho Byori</I><B> 46</B>: 249-57. (1998).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9297927">271. Multi-undulant T-U-wave, sinus bradycardia and long QT syndrome: a possible phen <I>Zhonghua Min Guo Xiao Er Ke Yi Xue Hui Za Zhi</I><B> 38</B>: 267-75. (0).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9295920">272. [Congenital long QT syndromes] <I>Arch Mal Coeur Vaiss</I><B> 90</B>: 25-35. (1997).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=8664531">273. The molecular genetics of the congenital long QT syndromes. <I>Curr Opin Cardiol</I><B> 11</B>: 45-51. (1996).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=8729361">274. [Spasm of normal or irregular coronary arteries. Long-term outcome of 277 patien <I>Arch Mal Coeur Vaiss</I><B> 88</B>: 1819-25. (1995).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=8561443">275. [Comparison of the antispastic effect of Bi-Tildiem 120 mg and Tildiem 60mg] <I>Ann Cardiol Angeiol (Paris)</I><B> 44</B>: 372-7. (1995).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=1558364">276. [Vasospastic angina with angiographically normal coronary vessels of iatrogenic <I>Ann Cardiol Angeiol (Paris)</I><B> 41</B>: 39-46. (1992).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16399550">277. A novel predictive pharmacokinetic/pharmacodynamic model of repolarization prolo <I>J Pharmacol Toxicol Methods</I><B> 53</B>: 1-10. (0).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16426850">278. Prediction of hERG potassium channel affinity by the CODESSA approach. <I>Bioorg Med Chem</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16426073">279. Development and evaluation of an in silico model for HERG binding. <I>J Chem Inf Model</I><B> 46</B>: 392-400. (0).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16507347">280. Isolated perfused and paced guinea pig heart to test for drug-induced changes of <I>J Pharmacol Toxicol Methods</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16540748">281. The long QT syndrome family of cardiac ion channelopathies: A HuGE review. <I>Genet Med</I><B> 8</B>: 143-55. (2006).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16563806">282. Optimisation and validation of a medium-throughput electrophysiology-based hERG <I>J Pharmacol Toxicol Methods</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16616507">283. Determination of hERG channel blockers using a decision tree. <I>Bioorg Med Chem</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16629826">284. A QSAR model of HERG binding using a large, diverse, and internally consistent t <I>Chem Biol Drug Des</I><B> 67</B>: 284-96. (2006).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16711756">285. Quantitative structure-activity relationship studies on inhibition of HERG potas <I>J Chem Inf Model</I><B> 46</B>: 1371-8. (0).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16842670">286. [Electrophysiological characterization of long QT syndrome associated mutations <I>Zhonghua Xin Xue Guan Bing Za Zhi</I><B> 34</B>: 523-7. (2006).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16892402">287. In Silico Classification of hERG Channel Blockers: a Knowledge-Based Strategy. <I>ChemMedChem</I><B> 1</B>: 622-630. (2006).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16892366">288. An Accurate and Interpretable Bayesian Classification Model for Prediction of hE <I>ChemMedChem</I><B> 1</B>: 315-322. (2006).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16926094">289. Orange flavonoid hesperetin modulates cardiac hERG potassium channel via binding <I>Nutr Metab Cardiovasc Dis</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17001871">290. [Effects of antimalarial drugs and cardiomyocytes. Pathogenic approach and new t <I>Bull Acad Natl Med</I><B> 190</B>: 439-49; discuss. (2006).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17011782">291. Design, synthesis, structure-activity relationship, and in vivo activity of azab <I>Bioorg Med Chem</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17118913">292. Algorithms for network analysis in systems-ADME/Tox using the MetaCore and MetaD <I>Xenobiotica</I><B> 36</B>: 877-901. (0).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17146843">293. Effects of phosphodiesterase (PDE) inhibitors on human ether-a-go-go related gen <I>J Appl Toxicol</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16757186">294. Safety pharmacology assessment of drug-induced QT-prolongation in dogs with redu <I>J Pharmacol Toxicol Methods</I><B> 54</B>: 130-40. (0).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16289936">295. Are hERG channel inhibition and QT interval prolongation all there is in drug-in <I>J Pharmacol Toxicol Methods</I><B> 53</B>: 87-105. (0).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16265869">296. [The long QT syndrome from the bedside to molecular genetic laboratory. The hist <I>Orv Hetil</I><B> 146</B>: 2011-6. (2005).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15922632">297. Additive effects of ziprasidone and D,L-sotalol on the action potential in rabbi <I>J Pharmacol Toxicol Methods</I><B> 52</B>: 115-22. (0).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17261034">298. A Novel Approach Using Pharmacophore Ensemble/Support Vector Machine (PhE/SVM) f <I>Chem Res Toxicol</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17416313">299. Assessing hERG Channel Inhibition Using PatchXpress. <I>Clin Lab Med</I><B> 27</B>: 201-8. (2007).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17489361">300. Maprotiline block of the human ether-a-go-go-related gene (HERG) K+ channel. <I>Arch Pharm Res</I><B> 30</B>: 453-60. (2007).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17590357">301. Suitability of commonly used excipients for electrophysiological in-vitro safety <I>J Pharmacol Toxicol Methods</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17588331">302. Verapamil blocks HERG channel by the helix residue Y652 and F656 in the S6 trans <I>Acta Pharmacol Sin</I><B> 28</B>: 959-67. (2007).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17596950">303. Estimation of hERG inhibition of drug candidates using multivariate property and <I>Bioorg Med Chem</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17604185">304. Action potential experiments complete hERG assay and QT-interval measurements in <I>J Pharmacol Toxicol Methods</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17641836">305. Expression and fuactional role of HERG1, K(+) channels in leukemic cells and leu <I>J Huazhong Univ Sci Technolog Med Sci</I><B> 27</B>: 257-60. (2007).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17786970">306. Overexpression of hERG1 in resected esophageal squamous cell carcinomas: A marke <I>J Surg Oncol</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17928736">307. The 5-HT(4) Agonists Cisapride, Mosapride, and CJ-033466, a Novel Potent Compoun <I>J Pharmacol Sci</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17926340">308. Modeling the hERG potassium channel in a phospholipid bilayer: Molecular dynamic <I>J Comput Chem</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17938585">309. Expression and significance of HERG protein in gastric cancer. <I>Cancer Biol Ther</I><B> 7</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18061919">310. A Composite Model for hERG Blockade. <I>ChemMedChem</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18197627">311. hERG Classification Model Based on a Combination of Support Vector Machine Metho <I>Mol Pharm</I><B> 0</B>: . (2008).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18218237">312. [The mechanistic rote of KCNH2 gene L413P and L559H mutations in long QT syndrom <I>Zhonghua Nei Ke Za Zhi</I><B> 46</B>: 838-41. (2007).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18224703">313. Modeling hERG and its Interactions with Drugs: Recent Advances in Light of Curre <I>ChemMedChem</I><B> 0</B>: . (2008).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18250496">314. Prolong qt interval and "torsades de pointes" associated with different group of drugs. <I>Georgian Med News</I><B> 0</B>: 45-9. (2007).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18243713">315. A binary QSAR model for classification of hERG potassium channel blockers. <I>Bioorg Med Chem</I><B> 0</B>: . (2008).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18262683">316. Identification of "toxicophoric" features for predicting drug-induced QT interval prolonga <I>Eur J Med Chem</I><B> 0</B>: . (2008).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18311636">317. Computer-aided prediction of QT-prolongation. <I>SAR QSAR Environ Res</I><B> 19</B>: 81-90. (2008).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18415658">318. HERG K(+) channel expression in CD34(+)/CD38 (-)/CD123 (high) cells and primary leukemia c <I>Int J Hematol</I><B> 0</B>: . (2008).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18448342">319. Support vector machines classification of hERG liabilities based on atom types. <I>Bioorg Med Chem</I><B> 0</B>: . (2008).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18461975">320. Shape Signatures: New Descriptors for Predicting Cardiotoxicity In Silico. <I>Chem Res Toxicol</I><B> 0</B>: . (2008).<BR><BR></A></TD><br />
<TD><I>100</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16314404">321. Identification of Novel Kv1.3 Blockers Using a Fluorescent Cell-Based Ion Channe <I>J Biomol Screen</I><B> 0</B>: . (2005).<BR><BR></A></TD><br />
<TD><I>99</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16234341">322. A Place for High-Throughput Electrophysiology in Cardiac Safety: Screening hERG <I>J Biomol Screen</I><B> 0</B>: . (2005).<BR><BR></A></TD><br />
<TD><I>99</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15964935">323. Evaluation of a high-throughput fluorescence assay method for HERG potassium cha <I>J Biomol Screen</I><B> 10</B>: 339-47. (2005).<BR><BR></A></TD><br />
<TD><I>99</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15799960">324. Identifying modulators of hERG channel activity using the PatchXpress planar pat <I>J Biomol Screen</I><B> 10</B>: 168-81. (2005).<BR><BR></A></TD><br />
<TD><I>99</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11897058">325. A novel membrane potential-sensitive fluorescent dye improves cell-based assays <I>J Biomol Screen</I><B> 7</B>: 79-85. (2002).<BR><BR></A></TD><br />
<TD><I>99</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10828248">326. Dynamic control of deactivation gating by a soluble amino-terminal domain in HER <I>J Gen Physiol</I><B> 115</B>: 749-58. (2000).<BR><BR></A></TD><br />
<TD><I>99</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18521091">327. Whole genome association study identifies polymorphisms associated with QT prolongation du <I>Mol Psychiatry</I><B> 0</B>: . (2008).<BR><BR></A></TD><br />
<TD><I>99</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16050269">328. The long QT syndrome: a clinical counterpart of hERG mutations. <I>Novartis Found Symp</I><B> 266</B>: 186-98; discuss. (2005).<BR><BR></A></TD><br />
<TD><I>98</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12835532">329. [Electropharmacological assessment of the risk of drug-induced long-QT syndrome <I>Nippon Yakurigaku Zasshi</I><B> 121</B>: 384-92. (2003).<BR><BR></A></TD><br />
<TD><I>98</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17293393">330. PROBING THE OUTER MOUTH STRUCTURE OF THE hERG CHANNEL WITH PEPTIDE TOXIN FOOTPRI <I>Biophys J</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>98</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15950494">331. HERG-Lite: a novel comprehensive high-throughput screen for drug-induced hERG ri <I>J Pharmacol Toxicol Methods</I><B> 52</B>: 136-45. (0).<BR><BR></A></TD><br />
<TD><I>97</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12356854">332. Extracellular sodium interacts with the HERG channel at an outer pore site. <I>J Gen Physiol</I><B> 120</B>: 517-37. (2002).<BR><BR></A></TD><br />
<TD><I>97</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9835781">333. Molecular mechanisms of arrhythmias. <I>Rev Port Cardiol</I><B> 17</B>: II41-6. (1998).<BR><BR></A></TD><br />
<TD><I>97</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9600240">334. Genomic organization and mutational analysis of HERG, a gene responsible for fam <I>Hum Genet</I><B> 102</B>: 435-9. (1998).<BR><BR></A></TD><br />
<TD><B>97.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10208308">335. Inhibitory effects of the class III antiarrhythmic drug amiodarone on cloned HER <I>Naunyn Schmiedebergs Arch Pharmacol</I><B> 359</B>: 212-9. (1999).<BR><BR></A></TD><br />
<TD><B>96.6</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15961404">336. Identification of the cyclic-nucleotide-binding domain as a conserved determinan <I>J Cell Sci</I><B> 118</B>: 2803-12. (2005).<BR><BR></A></TD><br />
<TD><I>96</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15544470">337. Torsadogenic cardiotoxicity of antipsychotic drugs: a structural feature, potent <I>Curr Med Chem</I><B> 11</B>: 2691-706. (2004).<BR><BR></A></TD><br />
<TD><I>96</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15385083">338. Variability in the measurement of hERG potassium channel inhibition: effects of <I>J Pharmacol Toxicol Methods</I><B> 50</B>: 93-101. (0).<BR><BR></A></TD><br />
<TD><I>96</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12490549">339. ERG K+ channel blockade enhances firing and epinephrine secretion in rat chromaf <I>FASEB J</I><B> 17</B>: 330-2. (2003).<BR><BR></A></TD><br />
<TD><I>96</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12089906">340. [Evaluation of pro-arrhythmic risk of drugs due to QT interval prolongation by t <I>Nippon Yakurigaku Zasshi</I><B> 119</B>: 345-51. (2002).<BR><BR></A></TD><br />
<TD><I>96</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10074448">341. Ion channels: structure of a molecular brake. <I>Curr Biol</I><B> 9</B>: R173-5. (1999).<BR><BR></A></TD><br />
<TD><I>96</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16446155">342. Erythromycin block of the HERG K(+) channel: Accessibility to F656 and Y652. <I>Biochem Biophys Res Commun</I><B> 341</B>: 500-6. (2006).<BR><BR></A></TD><br />
<TD><I>96</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18220737">343. Predictive models for HERG channel blockers: ligand-based and structure-based ap <I>Curr Med Chem</I><B> 14</B>: 3003-26. (2007).<BR><BR></A></TD><br />
<TD><I>96</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10491368">344. Homozygous premature truncation of the HERG protein : the human HERG knockout. <I>Circulation</I><B> 100</B>: 1264-7. (1999).<BR><BR></A></TD><br />
<TD><B>95.7</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16291873">345. Drug binding interactions in the inner cavity of hERG: Molecular insights from s <I>Mol Pharmacol</I><B> 0</B>: . (2005).<BR><BR></A></TD><br />
<TD><I>95</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16219910">346. Activation of HERG potassium channels by the diphenylurea NS1643. <I>Mol Pharmacol</I><B> 0</B>: . (2005).<BR><BR></A></TD><br />
<TD><I>95</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16099841">347. Design of PAP-1, a selective small molecule Kv1.3 blocker, for the suppression o <I>Mol Pharmacol</I><B> 68</B>: 1254-70. (2005).<BR><BR></A></TD><br />
<TD><I>95</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15976038">348. Novel potent human ether-a-go-go-related gene (hERG) potassium channel enhancers <I>Mol Pharmacol</I><B> 68</B>: 876-84. (2005).<BR><BR></A></TD><br />
<TD><I>95</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15967876">349. Intracellular K+ is required for the inactivation-induced high-affinity binding <I>Mol Pharmacol</I><B> 68</B>: 855-65. (2005).<BR><BR></A></TD><br />
<TD><I>95</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15608141">350. Activators of cation channels: potential in treatment of channelopathies. <I>Mol Pharmacol</I><B> 67</B>: 585-8. (2005).<BR><BR></A></TD><br />
<TD><I>95</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15280442">351. A common antitussive drug, clobutinol, precipitates the long QT syndrome 2. <I>Mol Pharmacol</I><B> 66</B>: 1093-102. (2004).<BR><BR></A></TD><br />
<TD><I>95</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9791861">352. The molecular basis of long QT syndrome and prospects for therapy. <I>Mol Med Today</I><B> 4</B>: 382-8. (1998).<BR><BR></A></TD><br />
<TD><I>95</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16368742">353. Glycosylation of the osmoresponsive transient receptor potential channel TRPV4 o <I>Am J Physiol Renal Physiol</I><B> 0</B>: . (2005).<BR><BR></A></TD><br />
<TD><I>95</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16407206">354. Chronic inhibition of cardiac Kir2.1 and hERG potassium channels by celastrol wi <I>J Biol Chem</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>95</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11238279">355. Short- and long-term effects of amiodarone on the two components of cardiac dela <I>Circulation</I><B> 103</B>: 1317-24. (2001).<BR><BR></A></TD><br />
<TD><B>94.4</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11136720">356. An ERG channel inhibitor from the scorpion Buthus eupeus. <I>J Biol Chem</I><B> 276</B>: 9868-76. (2001).<BR><BR></A></TD><br />
<TD><B>94.4</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11034933">357. Domperidone should not be considered a no-risk alternative to cisapride in the t <I>Circulation</I><B> 102</B>: 1883-5. (2000).<BR><BR></A></TD><br />
<TD><B>94.4</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16260841">358. Coupled K+-Water Flux through the HERG Potassium Channel Measured by an Osmotic <I>J Gen Physiol</I><B> 126</B>: 529-38. (2005).<BR><BR></A></TD><br />
<TD><I>94</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16474003">359. Molecular Determinants of hERG Channel Block. <I>Mol Pharmacol</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>94</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11468227">360. Screening for mutations and polymorphisms in the genes KCNH2 and KCNE2 encoding <I>Clin Chem</I><B> 47</B>: 1390-5. (2001).<BR><BR></A></TD><br />
<TD><B>93.3</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16313186">361. Nuclear magnetic resonance structural studies of a potassium channel-charybdotox <I>Biochemistry</I><B> 44</B>: 15834-41. (2005).<BR><BR></A></TD><br />
<TD><I>93</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15905217">362. Specificity of TRH receptor coupling to G-proteins for regulation of ERG K+ chan <I>J Physiol</I><B> 566</B>: 717-36. (2005).<BR><BR></A></TD><br />
<TD><I>93</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15705650">363. Extracellular potassium effects are conserved within the rat erg K+ channel fami <I>J Physiol</I><B> 564</B>: 329-45. (2005).<BR><BR></A></TD><br />
<TD><I>93</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14714110">364. Clinical and electrophysiological characterization of a novel mutation R863X in <I>J Mol Med</I><B> 82</B>: 189-96. (2004).<BR><BR></A></TD><br />
<TD><I>93</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11927665">365. A comparison of currents carried by HERG, with and without coexpression of MiRP1 <I>J Physiol</I><B> 540</B>: 15-27. (2002).<BR><BR></A></TD><br />
<TD><I>93</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11432987">366. Functional characterization of the C-terminus of the human ether-à-go-go-relate <I>J Physiol</I><B> 534</B>: 1-14. (2001).<BR><BR></A></TD><br />
<TD><I>93</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10896755">367. State-dependent barium block of wild-type and inactivation-deficient HERG channe <I>J Physiol</I><B> 526</B>: 265-78. (2000).<BR><BR></A></TD><br />
<TD><I>93</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10488078">368. Deletion of protein kinase A phosphorylation sites in the HERG potassium channel <I>J Biol Chem</I><B> 274</B>: 27457-62. (1999).<BR><BR></A></TD><br />
<TD><I>93</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10051143">369. Effects of phrixotoxins on the Kv4 family of potassium channels and implications <I>Br J Pharmacol</I><B> 126</B>: 251-63. (1999).<BR><BR></A></TD><br />
<TD><I>93</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9882738">370. Mutations of the S4-S5 linker alter activation properties of HERG potassium chan <I>J Physiol</I><B> 514</B>: 667-75. (1999).<BR><BR></A></TD><br />
<TD><I>93</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9087606">371. Single HERG delayed rectifier K+ channels expressed in Xenopus oocytes. <I>Am J Physiol</I><B> 272</B>: H1309-14. (1997).<BR><BR></A></TD><br />
<TD><I>93</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9737994">372. HERG potassium channel activation is shifted by phorbol esters via protein kinas <I>J Biol Chem</I><B> 273</B>: 25285-91. (1998).<BR><BR></A></TD><br />
<TD><B>92.9</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10414310">373. Dysfunction of delayed rectifier potassium channels in an inherited cardiac arrh <I>Ann N Y Acad Sci</I><B> 868</B>: 406-13. (1999).<BR><BR></A></TD><br />
<TD><B>92.3</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9243089">374. Molecular genetics of long QT syndrome from genes to patients. <I>Curr Opin Cardiol</I><B> 12</B>: 310-20. (1997).<BR><BR></A></TD><br />
<TD><I>92</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=8877771">375. A mutation in HERG associated with notched T waves in long QT syndrome. <I>J Mol Cell Cardiol</I><B> 28</B>: 1609-15. (1996).<BR><BR></A></TD><br />
<TD><I>92</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=8938715">376. Potassium currents expressed from Drosophila and mouse eag cDNAs in Xenopus oocy <I>Neuropharmacology</I><B> 35</B>: 841-50. (1996).<BR><BR></A></TD><br />
<TD><I>92</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16610352">377. HERG trafficking and pharmacological rescue of LQTS-2 mutant channels. <I>Handb Exp Pharmacol</I><B> 0</B>: 349-55. (2006).<BR><BR></A></TD><br />
<TD><I>92</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16361248">378. Mechanisms of pharmacological rescue of trafficking-defective hERG mutant channe <I>J Biol Chem</I><B> 281</B>: 4069-74. (2006).<BR><BR></A></TD><br />
<TD><I>92</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11834728">379. Regulation of an ERG K+ current by Src tyrosine kinase. <I>J Biol Chem</I><B> 277</B>: 13673-81. (2002).<BR><BR></A></TD><br />
<TD><B>91.7</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10604956">380. Loratadine blockade of K(+) channels in human heart: comparison with terfenadine <I>J Pharmacol Exp Ther</I><B> 292</B>: 261-4. (2000).<BR><BR></A></TD><br />
<TD><B>91.3</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15537500">381. Direct block of hERG potassium channels by the protein kinase C inhibitor bisind <I>Cardiovasc Res</I><B> 64</B>: 467-76. (2004).<BR><BR></A></TD><br />
<TD><I>91</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9709405">382. Effects of the chromanol 293B, a selective blocker of the slow, component of the <I>Cardiovasc Res</I><B> 38</B>: 441-50. (1998).<BR><BR></A></TD><br />
<TD><I>91</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17015047">383. BcIV, a new paralyzing peptide obtained from the venom of the sea anemone Bunodo <I>Biochim Biophys Acta</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>91</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10804231">384. Do glia have heart? Expression and functional role for ether-a-go-go currents in <I>J Neurosci</I><B> 20</B>: 3915-25. (2000).<BR><BR></A></TD><br />
<TD><B>90.9</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16227343">385. Isolation and characterization of IKr in cardiac myocytes by Cs+ permeation. <I>Am J Physiol Heart Circ Physiol</I><B> 0</B>: . (2005).<BR><BR></A></TD><br />
<TD><I>90</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15711590">386. Protein trafficking abnormalities: a new mechanism in drug-induced long QT syndr <I>Br J Pharmacol</I><B> 145</B>: 3-4. (2005).<BR><BR></A></TD><br />
<TD><I>90</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14962839">387. Suppression of electrical alternans by overexpression of HERG in canine ventricu <I>Am J Physiol Heart Circ Physiol</I><B> 286</B>: H2342-51. (2004).<BR><BR></A></TD><br />
<TD><I>90</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=8893413">388. The long QT syndrome: new diagnostic and therapeutic approach in the era of mole <I>Schweiz Med Wochenschr</I><B> 126</B>: 1727-31. (1996).<BR><BR></A></TD><br />
<TD><I>90</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9679158">389. Transfer of rapid inactivation and sensitivity to the class III antiarrhythmic d <I>J Physiol</I><B> 511</B>: 3-14. (1998).<BR><BR></A></TD><br />
<TD><B>89.3</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14973143">390. Impairment of HERG K(+) channel function by tumor necrosis factor-alpha: role of <I>J Biol Chem</I><B> 279</B>: 13289-92. (2004).<BR><BR></A></TD><br />
<TD><I>89</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12411421">391. The antihistamine fexofenadine does not affect I(Kr) currents in a case report o <I>Br J Pharmacol</I><B> 137</B>: 892-900. (2002).<BR><BR></A></TD><br />
<TD><I>89</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9824707">392. Cloning and functional expression of rat ether-à-go-go-like K+ channel genes. <I>J Physiol</I><B> 513</B>: 647-54. (1998).<BR><BR></A></TD><br />
<TD><I>89</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9786074">393. Acceleration-induced action potential prolongation and early afterdepolarization <I>J Cardiovasc Electrophysiol</I><B> 9</B>: 934-48. (1998).<BR><BR></A></TD><br />
<TD><I>89</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=8952843">394. A molecular basis for the therapy of the long QT syndrome. <I>Arch Mal Coeur Vaiss</I><B> 89</B>: 1185-7. (1996).<BR><BR></A></TD><br />
<TD><I>89</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15958262">395. HERG mutation predicts short QT based on channel kinetics but causes long QT by <I>Cardiovasc Res</I><B> 67</B>: 467-75. (2005).<BR><BR></A></TD><br />
<TD><I>89</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11222472">396. Notched T waves on Holter recordings enhance detection of patients with LQt2 (HE <I>Circulation</I><B> 103</B>: 1095-101. (2001).<BR><BR></A></TD><br />
<TD><B>88.9</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=8994042">397. The Drosophila erg K+ channel polypeptide is encoded by the seizure locus. <I>J Neurosci</I><B> 17</B>: 875-81. (1997).<BR><BR></A></TD><br />
<TD><B>88.9</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15591286">398. Postnatal development of E-4031-sensitive potassium current in rat carotid chemo <I>J Appl Physiol</I><B> 98</B>: 1469-77. (2005).<BR><BR></A></TD><br />
<TD><I>88</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9279806">399. Amino terminal-dependent gating of the potassium channel rat eag is compensated <I>J Physiol</I><B> 502</B>: 537-43. (1997).<BR><BR></A></TD><br />
<TD><I>88</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16754665">400. The KCNE2 potassium channel ancillary subunit is essential for gastric acid secr <I>J Biol Chem</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>88</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12522086">401. Inhibition of hEAG1 and hERG1 potassium channels by clofilium and its tertiary a <I>Br J Pharmacol</I><B> 138</B>: 161-71. (2003).<BR><BR></A></TD><br />
<TD><B>87.5</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15231497">402. Molecular analysis of PIP2 regulation of HERG and IKr. <I>Am J Physiol Heart Circ Physiol</I><B> 287</B>: H2154-63. (2004).<BR><BR></A></TD><br />
<TD><I>87</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14734057">403. Mesoridazine: an open-channel blocker of human ether-a-go-go-related gene K+ cha <I>J Mol Cell Cardiol</I><B> 36</B>: 151-60. (2004).<BR><BR></A></TD><br />
<TD><I>87</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12177689">404. The antiarrhythmic drug BRL-32872. <I>Cardiovasc Drug Rev</I><B> 20</B>: 111-20. (2002).<BR><BR></A></TD><br />
<TD><I>87</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10849664">405. Chemosensing at the carotid body. Involvement of a HERG-like potassium current i <I>Adv Exp Med Biol</I><B> 475</B>: 241-8. (2000).<BR><BR></A></TD><br />
<TD><I>87</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17531263">406. A single hERG mutation underlying a spectrum of acquired and congenital long QT <I>J Mol Cell Cardiol</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>87</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18362022">407. Recurrent intrauterine fetal loss due to near absence of HERG: Clinical and functional cha <I>Heart Rhythm</I><B> 5</B>: 553-561. (2008).<BR><BR></A></TD><br />
<TD><I>87</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10086971">408. C-terminal HERG mutations: the role of hypokalemia and a KCNQ1-associated mutati <I>Circulation</I><B> 99</B>: 1464-70. (1999).<BR><BR></A></TD><br />
<TD><B>86.2</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10027867">409. Thioridazine lengthens repolarization of cardiac ventricular myocytes by blockin <I>J Pharmacol Exp Ther</I><B> 288</B>: 1261-8. (1999).<BR><BR></A></TD><br />
<TD><B>86.2</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15992736">410. Refining detection of drug-induced proarrhythmia: QT interval and TRIaD. <I>Heart Rhythm</I><B> 2</B>: 758-72. (2005).<BR><BR></A></TD><br />
<TD><I>86</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15893317">411. Exploring blocker binding to a homology model of the open hERG K+ channel using <I>FEBS Lett</I><B> 579</B>: 2939-44. (2005).<BR><BR></A></TD><br />
<TD><I>86</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15679475">412. Effect of beta-adrenoceptor blockers on human ether-a-go-go-related gene (HERG) <I>Basic Clin Pharmacol Toxicol</I><B> 96</B>: 123-30. (2005).<BR><BR></A></TD><br />
<TD><I>86</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15528201">413. Regional specificity of human ether-a'-go-go-related gene channel activation and <I>J Biol Chem</I><B> 280</B>: 7206-17. (2005).<BR><BR></A></TD><br />
<TD><I>86</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12133532">414. Protein kinase A-mediated phosphorylation of HERG potassium channels in a human <I>Chin Med J (Engl)</I><B> 115</B>: 668-76. (2002).<BR><BR></A></TD><br />
<TD><I>86</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10090227">415. Long-term (subacute) potassium treatment in congenital HERG-related long QT synd <I>J Cardiovasc Electrophysiol</I><B> 10</B>: 229-33. (1999).<BR><BR></A></TD><br />
<TD><I>86</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16524878">416. The S4-S5 linker directly couples voltage sensor movement to the activation gate <I>J Biol Chem</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>86</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16158069">417. QT prolongation and proarrhythmia by moxifloxacin: concordance of preclinical mo <I>Br J Pharmacol</I><B> 146</B>: 792-9. (2005).<BR><BR></A></TD><br />
<TD><I>86</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17823114">418. Activation gating of hERG potassium channels: S6 glycines are not required as ga <I>J Biol Chem</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>86</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18059314">419. Drugs and trafficking of ion channels: a new pro-arrhythmic threat on the horizo <I>Br J Pharmacol</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>86</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11561091">420. Interactions of the antimalarial drug mefloquine with the human cardiac potassiu <I>J Pharmacol Exp Ther</I><B> 299</B>: 290-6. (2001).<BR><BR></A></TD><br />
<TD><B>85.7</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9326673">421. Regulation of the human ether-a-gogo related gene (HERG) K+ channels by reactive <I>Proc Natl Acad Sci U S A</I><B> 94</B>: 11698-703. (1997).<BR><BR></A></TD><br />
<TD><B>85.7</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14769199">422. Two components of delayed rectifier K+ current in heart: molecular basis, functi <I>Acta Pharmacol Sin</I><B> 25</B>: 137-45. (2004).<BR><BR></A></TD><br />
<TD><I>85</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12902341">423. Structure of the HERG K+ channel S5P extracellular linker: role of an amphipathi <I>J Biol Chem</I><B> 278</B>: 42136-48. (2003).<BR><BR></A></TD><br />
<TD><I>85</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10545354">424. Enhancement of HERG K(+) currents by Cd(2+) destabilization of the inactivated s <I>Biophys J</I><B> 77</B>: 2534-41. (1999).<BR><BR></A></TD><br />
<TD><I>85</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10376921">425. Block of HERG potassium channels by the antihistamine astemizole and its metabol <I>J Cardiovasc Electrophysiol</I><B> 10</B>: 836-43. (1999).<BR><BR></A></TD><br />
<TD><I>85</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16506891">426. Evaluation of the rubidium efflux assay for preclinical identification of HERG b <I>Assay Drug Dev Technol</I><B> 4</B>: 73-82. (2006).<BR><BR></A></TD><br />
<TD><I>85</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17569659">427. Co-chaperone FKBP38 promotes HERG trafficking. <I>J Biol Chem</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>85</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18192362">428. A tyrosine substitution in the cavity wall of a K channel induces an inverted in <I>Biophys J</I><B> 0</B>: . (2008).<BR><BR></A></TD><br />
<TD><I>85</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14586519">429. Modulation of HERG channel inactivation by external cations. <I>J</I><B> 33</B>: 360-9. (2004).<BR><BR></A></TD><br />
<TD><I>84</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12560090">430. Relevance of the proximal domain in the amino-terminus of HERG channels for regu <I>FEBS Lett</I><B> 535</B>: 125-30. (2003).<BR><BR></A></TD><br />
<TD><I>84</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11911656">431. Dual-function vector for protein expression in both mammalian cells and Xenopus <I>Biotechniques</I><B> 32</B>: 536-8, 540. (2002).<BR><BR></A></TD><br />
<TD><I>84</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11926362">432. A high-throughput HERG potassium channel function assay: an old assay with a new <I>Drug Dev Ind Pharm</I><B> 28</B>: 177-91. (2002).<BR><BR></A></TD><br />
<TD><B>83.3</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11162661">433. Inhibition of HERG potassium channel current by the class 1a antiarrhythmic agen <I>Biochem Biophys Res Commun</I><B> 280</B>: 1243-50. (2001).<BR><BR></A></TD><br />
<TD><B>83.3</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9168780">434. Rapid inactivation determines the rectification and [K+]o dependence of the rapi <I>Circ Res</I><B> 80</B>: 782-9. (1997).<BR><BR></A></TD><br />
<TD><B>83.3</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15877626">435. The antiarrhythmic peptide analog ZP123 prevents atrial conduction slowing durin <I>J Cardiovasc Electrophysiol</I><B> 16</B>: 537-45. (2005).<BR><BR></A></TD><br />
<TD><I>83</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15817095">436. Blocking characteristics of hERG, hNav1.5, and hKvLQT1/hminK after administratio <I>J Cardiovasc Electrophysiol</I><B> 16</B>: 329-41. (2005).<BR><BR></A></TD><br />
<TD><I>83</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15574182">437. Comparative pharmacology of guinea pig cardiac myocyte and cloned hERG (I(Kr)) c <I>J Cardiovasc Electrophysiol</I><B> 15</B>: 1302-9. (2004).<BR><BR></A></TD><br />
<TD><I>83</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15558243">438. Block of wild-type and inactivation-deficient human ether-a-go-go-related gene K <I>Naunyn Schmiedebergs Arch Pharmacol</I><B> 370</B>: 484-91. (2004).<BR><BR></A></TD><br />
<TD><I>83</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14678125">439. Location of mutation in the KCNQ1 and phenotypic presentation of long QT syndrom <I>J Cardiovasc Electrophysiol</I><B> 14</B>: 1149-53. (2003).<BR><BR></A></TD><br />
<TD><I>83</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12544377">440. Psychotropic drugs, cardiac arrhythmia, and sudden death. <I>J Clin Psychopharmacol</I><B> 23</B>: 58-77. (2003).<BR><BR></A></TD><br />
<TD><I>83</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11861047">441. Gender differences in the long QT syndrome: effects of beta-adrenoceptor blockad <I>Cardiovasc Res</I><B> 53</B>: 770-6. (2002).<BR><BR></A></TD><br />
<TD><I>83</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10744792">442. The distinct HERG missense mutation L564P causes long QT syndrome in one French <I>Can J Cardiol</I><B> 16</B>: 307-12. (2000).<BR><BR></A></TD><br />
<TD><I>83</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9482711">443. Independent versus coupled inactivation in sodium channels. Role of the domain 2 <I>J Gen Physiol</I><B> 111</B>: 451-62. (1998).<BR><BR></A></TD><br />
<TD><I>83</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16051125">444. Exaggerated block of hERG (KCNH2) and prolongation of action potential duration <I>Heart Rhythm</I><B> 2</B>: 860-6. (2005).<BR><BR></A></TD><br />
<TD><I>83</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15621040">445. Expression of human ERG K+ channels in the mouse heart exerts anti-arrhythmic ac <I>Cardiovasc Res</I><B> 65</B>: 128-37. (2005).<BR><BR></A></TD><br />
<TD><I>82</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15572053">446. Defective assembly and trafficking of mutant HERG channels with C-terminal trunc <I>J Mol Cell Cardiol</I><B> 37</B>: 1225-33. (2004).<BR><BR></A></TD><br />
<TD><I>82</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15365637">447. Activation of cardiac human ether-a-go-go related gene potassium currents is reg <I>J Mol Med</I><B> 82</B>: 826-37. (2004).<BR><BR></A></TD><br />
<TD><I>82</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11669488">448. Effects of gallium and mercury ions on transport systems. <I>J Dent Res</I><B> 80</B>: 1753-7. (2001).<BR><BR></A></TD><br />
<TD><I>82</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11125032">449. Interactions of a series of fluoroquinolone antibacterial drugs with the human c <I>Mol Pharmacol</I><B> 59</B>: 122-6. (2001).<BR><BR></A></TD><br />
<TD><I>82</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16506892">450. Application of cryopreserved cells to HERG screening using a non-radioactive Rb+ <I>Assay Drug Dev Technol</I><B> 4</B>: 83-8. (2006).<BR><BR></A></TD><br />
<TD><I>82</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16478001">451. Cardiovascular effects of KUR-1246, a new tetrahydronaphthalen derivative beta2- <I>Arzneimittelforschung</I><B> 56</B>: 18-24. (2006).<BR><BR></A></TD><br />
<TD><I>82</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18175275">452. Tuning out of hERG. <I>Curr Opin Drug Discov Devel</I><B> 11</B>: 128-40. (2008).<BR><BR></A></TD><br />
<TD><I>82</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18286302">453. Localization of the ergtoxin-1 receptors on the voltage sensing domain of hERG K(+) channe <I>Pflugers Arch</I><B> 0</B>: . (2008).<BR><BR></A></TD><br />
<TD><I>82</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10742304">454. Blockade of the HERG human cardiac K(+) channel by the antidepressant drug amitr <I>Br J Pharmacol</I><B> 129</B>: 1474-80. (2000).<BR><BR></A></TD><br />
<TD><B>81.8</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16227470">455. Direct block of hERG potassium channels by caffeine. <I>J Pharmacol Exp Ther</I><B> 0</B>: . (2005).<BR><BR></A></TD><br />
<TD><I>81</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15722405">456. Inhibition of human ether-a-go-go-related gene K+ channel and IKr of guinea pig <I>J Pharmacol Exp Ther</I><B> 313</B>: 888-95. (2005).<BR><BR></A></TD><br />
<TD><I>81</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11784293">457. A model for recognition of polychlorinated dibenzo-p-dioxins by the aryl hydroca <I>Eur J Biochem</I><B> 269</B>: 13-8. (2002).<BR><BR></A></TD><br />
<TD><I>81</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10784348">458. The effect of external pH on the delayed rectifying K+ current in cardiac ventri <I>Pflugers Arch</I><B> 439</B>: 739-51. (2000).<BR><BR></A></TD><br />
<TD><I>81</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=1850466">459. Effects of DM-9384, a cyclic derivative of GABA, on amnesia and decreases in GAB <I>J Pharmacol Exp Ther</I><B> 257</B>: 271-5. (1991).<BR><BR></A></TD><br />
<TD><I>81</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16971508">460. Hepatocellular toxicity and pharmacological effect of amiodarone and amiodarone <I>J Pharmacol Exp Ther</I><B> 319</B>: 1413-23. (2006).<BR><BR></A></TD><br />
<TD><I>81</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17313833">461. [Erythromycin inhibits the proliferation of HERG K(+) channel highly expressing <I>Zhonghua Yi Xue Za Zhi</I><B> 86</B>: 3353-7. (2006).<BR><BR></A></TD><br />
<TD><I>81</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17595376">462. Neonatal Long QT Syndrome Due to a De Novo Dominant Negative hERG Mutation. <I>Am J Crit Care</I><B> 16</B>: 416-412. (2007).<BR><BR></A></TD><br />
<TD><I>81</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=8635257">463. Missense mutation in the pore region of HERG causes familial long QT syndrome. <I>Circulation</I><B> 93</B>: 1791-5. (1996).<BR><BR></A></TD><br />
<TD><B>80.4</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16244363">464. Long QT Syndrome-Associated I593R Mutation in HERG Potassium Channel Activates E <I>Cell Biochem Biophys</I><B> 43</B>: 365-78. (2005).<BR><BR></A></TD><br />
<TD><I>80</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15308760">465. The low-potency, voltage-dependent HERG blocker propafenone--molecular determina <I>Mol Pharmacol</I><B> 66</B>: 1201-12. (2004).<BR><BR></A></TD><br />
<TD><I>80</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11040340">466. Effects of fluoroquinolones on HERG currents. <I>Eur J Pharmacol</I><B> 406</B>: 341-3. (2000).<BR><BR></A></TD><br />
<TD><I>80</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16777708">467. Electrophysiological safety of novel fluoroquinolone antibiotic agents gemifloxa <I>Drug Chem Toxicol</I><B> 29</B>: 303-12. (2006).<BR><BR></A></TD><br />
<TD><I>80</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16565572">468. Arrhythmogenesis in the short-QT syndrome associated with combined HERG channel <I>Circ J</I><B> 70</B>: 502-8. (2006).<BR><BR></A></TD><br />
<TD><I>80</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15800067">469. Human ether-a-go-go-related gene 1 channels are physically linked to beta1 integ <I>Mol Biol Cell</I><B> 16</B>: 2972-83. (2005).<BR><BR></A></TD><br />
<TD><I>80</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17499848">470. ThermoTRP channels as modular proteins with allosteric gating. <I>Cell Calcium</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>80</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10077519">471. Homozygous deletion in KVLQT1 associated with Jervell and Lange-Nielsen syndrome <I>Circulation</I><B> 99</B>: 1344-7. (1999).<BR><BR></A></TD><br />
<TD><B>79.3</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10600781">472. Role of HERG-like K(+) currents in opossum esophageal circular smooth muscle. <I>Am J Physiol</I><B> 277</B>: C1284-90. (1999).<BR><BR></A></TD><br />
<TD><B>79.2</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15851171">473. T wave morphology analysis distinguishes between KvLQT1 and HERG mutations in lo <I>Heart Rhythm</I><B> 1</B>: 285-92. (2004).<BR><BR></A></TD><br />
<TD><I>79</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9848024">474. Molecular genetics of long-QT syndrome. <I>Curr Opin Pediatr</I><B> 10</B>: 628-34. (1998).<BR><BR></A></TD><br />
<TD><I>79</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16843688">475. ILSI-HESI cardiovascular safety subcommittee initiative: evaluation of three non <I>J Pharmacol Toxicol Methods</I><B> 54</B>: 116-29. (0).<BR><BR></A></TD><br />
<TD><I>79</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17269718">476. Interaction Simulation of hERG K(+) Channel with Its Specific BeKm-1 Peptide: In <I>J Proteome Res</I><B> 6</B>: 611-20. (2007).<BR><BR></A></TD><br />
<TD><I>79</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17882949">477. [HERG K+ channel, the target of anti-arrhythmias drugs] <I>Yao Xue Xue Bao</I><B> 42</B>: 687-91. (2007).<BR><BR></A></TD><br />
<TD><I>79</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17982510">478. Comparative evaluation of hERG potassium channel blockade by antipsychotics. <I>Methods Find Exp Clin Pharmacol</I><B> 29</B>: 457-65. (2007).<BR><BR></A></TD><br />
<TD><I>79</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18181608">479. Incorporation of the HERG Potassium Channel in a Mercury Supported Lipid Bilayer <I>J Phys Chem B</I><B> 0</B>: . (2008).<BR><BR></A></TD><br />
<TD><I>79</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18497958">480. Pharmacological separation of hEAG and hERG K+ channel function in the human mammary carci <I>Oncol Rep</I><B> 19</B>: 1511-6. (2008).<BR><BR></A></TD><br />
<TD><I>79</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11723241">481. Molecular determinants of inactivation and dofetilide block in ether a-go-go (EA <I>Mol Pharmacol</I><B> 60</B>: 1343-8. (2001).<BR><BR></A></TD><br />
<TD><B>78.6</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11714889">482. Gastrointestinal prokinetic drugs have different affinity for the human cardiac <I>J Pharmacol Exp Ther</I><B> 299</B>: 1007-12. (2001).<BR><BR></A></TD><br />
<TD><B>78.6</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16263765">483. Downregulation of the HERG (KCNH2) K+ channel by ceramide: evidence for ubiquiti <I>J Cell Sci</I><B> 118</B>: 5325-34. (2005).<BR><BR></A></TD><br />
<TD><I>78</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15771419">484. Novel indolylindazolylmaleimides as inhibitors of protein kinase C-beta: synthes <I>J Med Chem</I><B> 48</B>: 1725-8. (2005).<BR><BR></A></TD><br />
<TD><I>78</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15715500">485. Greater than the sum of its parts: combining models for useful ADMET prediction. <I>J Med Chem</I><B> 48</B>: 1287-91. (2005).<BR><BR></A></TD><br />
<TD><I>78</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15566305">486. Potent N-(1,3-thiazol-2-yl)pyridin-2-amine vascular endothelial growth factor re <I>J Med Chem</I><B> 47</B>: 6363-72. (2004).<BR><BR></A></TD><br />
<TD><I>78</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15084130">487. Design, synthesis, and biological evaluation of substituted 2-cyclohexyl-4-pheny <I>J Med Chem</I><B> 47</B>: 2318-25. (2004).<BR><BR></A></TD><br />
<TD><I>78</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15056006">488. NR2B-selective N-methyl-D-aspartate antagonists: synthesis and evaluation of 5-s <I>J Med Chem</I><B> 47</B>: 2089-96. (2004).<BR><BR></A></TD><br />
<TD><I>78</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12773045">489. Optimization of a tertiary alcohol series of phosphodiesterase-4 (PDE4) inhibito <I>J Med Chem</I><B> 46</B>: 2413-26. (2003).<BR><BR></A></TD><br />
<TD><I>78</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12667945">490. Drug- and mutagenesis-induced changes in the selectivity filter of a cardiac two <I>Cardiovasc Res</I><B> 58</B>: 46-54. (2003).<BR><BR></A></TD><br />
<TD><I>78</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12570371">491. Identification, synthesis, and activity of novel blockers of the voltage-gated p <I>J Med Chem</I><B> 46</B>: 486-98. (2003).<BR><BR></A></TD><br />
<TD><I>78</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12190308">492. Toward a pharmacophore for drugs inducing the long QT syndrome: insights from a <I>J Med Chem</I><B> 45</B>: 3844-53. (2002).<BR><BR></A></TD><br />
<TD><I>78</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11392110">493. [Effects of sex hormones on HERG potassium channels expressed in Xenopus oocytes <I>Fiziol Zh</I><B> 47</B>: 24-31. (2001).<BR><BR></A></TD><br />
<TD><I>78</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11343409">494. I(Kr): the hERG channel. <I>J Mol Cell Cardiol</I><B> 33</B>: 835-49. (2001).<BR><BR></A></TD><br />
<TD><I>78</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11324452">495. Vulnerable substrate and multiple ion channel disorder in a diseased heart will <I>Acta Pharmacol Sin</I><B> 21</B>: 289-95. (2000).<BR><BR></A></TD><br />
<TD><I>78</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10906470">496. erg gene(s) expression during development of the nervous and muscular system of <I>Mech Dev</I><B> 95</B>: 239-43. (2000).<BR><BR></A></TD><br />
<TD><I>78</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16863470">497. Molecular mechanisms for drug interactions with hERG that cause long QT syndrome <I>Expert Opin Drug Metab Toxicol</I><B> 2</B>: 81-94. (2006).<BR><BR></A></TD><br />
<TD><I>78</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16913696">498. Insights for Human Ether-a-Go-Go-Related Gene Potassium Channel Inhibition Using <I>J Med Chem</I><B> 49</B>: 5059-71. (2006).<BR><BR></A></TD><br />
<TD><I>78</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17064075">499. Optimization of Chromone-2-carboxamide Melanin Concentrating Hormone Receptor 1 <I>J Med Chem</I><B> 49</B>: 6569-84. (2006).<BR><BR></A></TD><br />
<TD><I>78</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17154521">500. Common pharmacophores for uncharged human ether-a-go-go-related gene (hERG) bloc <I>J Med Chem</I><B> 49</B>: 6917-21. (2006).<BR><BR></A></TD><br />
<TD><I>78</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17536794">501. Fluorescently Labeled Analogues of Dofetilide as High-Affinity Fluorescence Pola <I>J Med Chem</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>78</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18096051">502. Improved functional expression of recombinant human ether-a-go-go (hERG) K+ chan <I>BMC Biotechnol</I><B> 7</B>: 93. (2007).<BR><BR></A></TD><br />
<TD><I>78</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18176998">503. Discovery and Biological Evaluation of 5-Aryl-2-furfuramides, Potent and Selecti <I>J Med Chem</I><B> 0</B>: . (2008).<BR><BR></A></TD><br />
<TD><I>78</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10952689">504. Inhibition of HERG potassium channels by the antimalarial agent halofantrine. <I>Br J Pharmacol</I><B> 130</B>: 1967-75. (2000).<BR><BR></A></TD><br />
<TD><B>77.3</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16314852">505. Comparison of HERG channel blocking effects of various beta-blockers - implicati <I>Br J Pharmacol</I><B> 0</B>: . (2005).<BR><BR></A></TD><br />
<TD><I>77</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15778703">506. Blockade of HERG cardiac K+ current by antifungal drug miconazole. <I>Br J Pharmacol</I><B> 144</B>: 840-8. (2005).<BR><BR></A></TD><br />
<TD><I>77</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11296551">507. [Blockade of HERG K+ channels expressed in Xenopus oocytes by antipsychotic agen <I>Fiziol Zh</I><B> 47</B>: 17-25. (2001).<BR><BR></A></TD><br />
<TD><I>77</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10898527">508. Altered gating of HERG potassium channels by cobalt and lanthanum. <I>Pflugers Arch</I><B> 440</B>: 264-74. (2000).<BR><BR></A></TD><br />
<TD><I>77</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10887935">509. Drug-induced torsade de pointes: from molecular biology to bedside. <I>Jpn J Pharmacol</I><B> 83</B>: 1-19. (2000).<BR><BR></A></TD><br />
<TD><I>77</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15890322">510. Short QT syndrome. <I>Cardiovasc Res</I><B> 67</B>: 357-66. (2005).<BR><BR></A></TD><br />
<TD><I>77</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17497253">511. [Short QT Syndrome.] <I>Herz</I><B> 32</B>: 206-10. (2007).<BR><BR></A></TD><br />
<TD><I>77</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17928249">512. Exploring QSTR and toxicophore of hERG K(+) channel blockers using GFA and HypoG <I>J Mol Graph Model</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>77</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17965736">513. Coexistence of hERG current block and disruption of protein trafficking in ketoc <I>Br J Pharmacol</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>77</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18006462">514. A KCNE2 mutation in a patient with cardiac arrhythmia induced by auditory stimul <I>Cardiovasc Res</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>77</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18037918">515. Chlorthalidone inhibits the KvLQT1 potassium current in guinea-pig ventricular m <I>Br J Pharmacol</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>77</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18452879">516. Computational analysis of the effects of the hERG channel opener NS1643 in a human ventric <I>Heart Rhythm</I><B> 5</B>: 734-41. (2008).<BR><BR></A></TD><br />
<TD><I>77</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18471077">517. Improved Throughput of PatchXpress hERG Assay Using Intracellular Potassium Fluoride. <I>Assay Drug Dev Technol</I><B> 6</B>: 235-41. (2008).<BR><BR></A></TD><br />
<TD><I>77</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16166152">518. Tryptophan scanning mutagenesis of the HERG K+ channel: the S4 domain is loosely <I>J Physiol</I><B> 569</B>: 367-79. (2005).<BR><BR></A></TD><br />
<TD><I>76</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15670565">519. Mutations in the HERG K+-ion channel: a novel link between long QT syndrome and <I>Am J Cardiol</I><B> 95</B>: 433-4. (2005).<BR><BR></A></TD><br />
<TD><I>76</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15277312">520. Ranolazine: ion-channel-blocking actions and in vivo electrophysiological effect <I>Br J Pharmacol</I><B> 142</B>: 1300-8. (2004).<BR><BR></A></TD><br />
<TD><I>76</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15072950">521. Pharmacological rescue of trafficking defective HERG channels formed by coassemb <I>Am J Physiol Heart Circ Physiol</I><B> 287</B>: H652-8. (2004).<BR><BR></A></TD><br />
<TD><I>76</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14556882">522. Bidirectional ventricular tachycardia and channelopathy. <I>Am J Cardiol</I><B> 92</B>: 991-5. (2003).<BR><BR></A></TD><br />
<TD><I>76</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11744013">523. Inhibition of HERG potassium channels by cocaethylene: a metabolite of cocaine a <I>Cardiovasc Res</I><B> 53</B>: 59-67. (2002).<BR><BR></A></TD><br />
<TD><I>76</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11259355">524. Genotype and severity of long QT syndrome. <I>Drug Metab Dispos</I><B> 29</B>: 574-9. (2001).<BR><BR></A></TD><br />
<TD><I>76</I></TD><br />
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<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10575198">525. Biophysical properties and molecular basis of cardiac rapid and slow delayed rec <I>Cell Physiol Biochem</I><B> 9</B>: 201-16. (1999).<BR><BR></A></TD><br />
<TD><I>76</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10092538">526. A mitochondrial DNA mutation cosegregates with the pathophysiological U wave. <I>Biochem Biophys Res Commun</I><B> 257</B>: 228-33. (1999).<BR><BR></A></TD><br />
<TD><I>76</I></TD><br />
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<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=8734164">527. Mechanisms and management of congenital and acquired long QT syndromes. <I>Arch Mal Coeur Vaiss</I><B> 89</B>: 51-5. (1996).<BR><BR></A></TD><br />
<TD><I>76</I></TD><br />
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<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16472139">528. Modulation of potassium channels as a therapeutic approach. <I>Curr Pharm Des</I><B> 12</B>: 459-70. (2006).<BR><BR></A></TD><br />
<TD><I>76</I></TD><br />
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<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16487223">529. Genetic polymorphisms in KCNQ1, HERG, KCNE1 and KCNE2 genes in the Chinese, Mala <I>Br J Clin Pharmacol</I><B> 61</B>: 301-308. (2006).<BR><BR></A></TD><br />
<TD><I>76</I></TD><br />
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<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16611127">530. The relationship between cleft lip, maxillary hypoplasia, hypoxia and phenytoin. <I>Curr Pharm Des</I><B> 12</B>: 1431-48. (2006).<BR><BR></A></TD><br />
<TD><I>76</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16782359">531. Dimethyl sulfoxide effects on hERG channels expressed in HEK293 cells. <I>J Pharmacol Toxicol Methods</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>76</I></TD><br />
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<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15545400">532. Gating charges in the activation and inactivation processes of the HERG channel. <I>J Gen Physiol</I><B> 124</B>: 703-18. (2004).<BR><BR></A></TD><br />
<TD><I>76</I></TD><br />
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<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17365143">533. Effect of clebopride, antidopaminergic gastrointestinal prokinetics, on cardiac <I>Int J Toxicol</I><B> 26</B>: 25-31. (0).<BR><BR></A></TD><br />
<TD><I>76</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17516459">534. Blockade of HERG K(+) channel by an antihistamine drug brompheniramine requires <I>J Appl Toxicol</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>76</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18447395">535. hERG Potassium Channels and the Structural Basis of Drug-Induced Arrhythmias. <I>Chem Res Toxicol</I><B> 0</B>: . (2008).<BR><BR></A></TD><br />
<TD><I>76</I></TD><br />
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<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15961988">536. A pharmacokinetic-pharmacodynamic model for the quantitative prediction of dofet <I>Clin Pharmacol Ther</I><B> 77</B>: 572-82. (2005).<BR><BR></A></TD><br />
<TD><I>75</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15802805">537. Effects of oxypeucedanin on hKv1.5 and action potential duration. <I>Biol Pharm Bull</I><B> 28</B>: 657-60. (2005).<BR><BR></A></TD><br />
<TD><I>75</I></TD><br />
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<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15125690">538. Acidification alters antiarrhythmic drug blockade of the ether-a-go-go-related G <I>Basic Clin Pharmacol Toxicol</I><B> 94</B>: 209-12. (2004).<BR><BR></A></TD><br />
<TD><I>75</I></TD><br />
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<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14754422">539. Theoretical possibilities for the development of novel antiarrhythmic drugs. <I>Curr Med Chem</I><B> 11</B>: 1-11. (2004).<BR><BR></A></TD><br />
<TD><I>75</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14665560">540. Local anaesthetic sensitivities of cloned HERG channels from human heart: compar <I>Br J Anaesth</I><B> 92</B>: 93-101. (2004).<BR><BR></A></TD><br />
<TD><B>75.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12618227">541. Dissociation of E-4031 from the HERG channel caused by mutations of an amino aci <I>Cardiovasc Res</I><B> 57</B>: 651-9. (2003).<BR><BR></A></TD><br />
<TD><I>75</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11781953">542. Molecular biology and cellular mechanisms of Brugada and long QT syndromes in in <I>J Electrocardiol</I><B> 34</B>: 177-81. (2001).<BR><BR></A></TD><br />
<TD><I>75</I></TD><br />
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<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10987356">543. Identical twins with long QT syndrome associated with a missense mutation in the <I>Jpn Heart J</I><B> 41</B>: 399-404. (2000).<BR><BR></A></TD><br />
<TD><I>75</I></TD><br />
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<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10690305">544. Voltage-shift of the current activation in HERG S4 mutation (R534C) in LQT2. <I>Cardiovasc Res</I><B> 44</B>: 283-93. (1999).<BR><BR></A></TD><br />
<TD><I>75</I></TD><br />
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<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9490815">545. Characterization of an eag-like potassium channel in human neuroblastoma cells. <I>J Physiol</I><B> 508</B>: 49-56. (1998).<BR><BR></A></TD><br />
<TD><I>75</I></TD><br />
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<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9395068">546. A mechanism for the proarrhythmic effects of cisapride (Propulsid): high affinit <I>FEBS Lett</I><B> 417</B>: 28-32. (1997).<BR><BR></A></TD><br />
<TD><I>75</I></TD><br />
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<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=8995352">547. The human delta1261 mutation of the HERG potassium channel results in a truncate <I>J Biol Chem</I><B> 272</B>: 705-8. (1997).<BR><BR></A></TD><br />
<TD><B>75.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=8904236">548. [Long QT syndrome] <I>Nippon Rinsho</I><B> 54</B>: 776-81. (1996).<BR><BR></A></TD><br />
<TD><I>75</I></TD><br />
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<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16769794">549. Na+ Permeation and Block of hERG Potassium Channels. <I>J Gen Physiol</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>75</I></TD><br />
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<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17141530">550. Early evaluation of compound QT prolongation effects: A predictive 384-well fluo <I>J Pharmacol Toxicol Methods</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>75</I></TD><br />
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<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16413785">551. New insights about HERG blockade obtained from protein modeling, potential energ <I>Bioorg Med Chem</I><B> 14</B>: 3160-73. (2006).<BR><BR></A></TD><br />
<TD><I>75</I></TD><br />
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<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17266544">552. Computer prediction of cardiovascular and hematological agents by statistical le <I>Cardiovasc Hematol Agents Med Chem</I><B> 5</B>: 11-9. (2007).<BR><BR></A></TD><br />
<TD><I>75</I></TD><br />
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<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17275752">553. Torsades de pointes complicating atrioventricular block: Evidence for a genetic <I>Heart Rhythm</I><B> 4</B>: 170-4. (2007).<BR><BR></A></TD><br />
<TD><I>75</I></TD><br />
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<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17467628">554. Further evidence of inherited long QT syndrome gene mutations in antiarrhythmic <I>Heart Rhythm</I><B> 4</B>: 603-7. (2007).<BR><BR></A></TD><br />
<TD><I>75</I></TD><br />
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<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15716081">555. Effects of the antiepileptic drugs lamotrigine, topiramate and gabapentin on hER <I>Epilepsy Res</I><B> 63</B>: 17-25. (2005).<BR><BR></A></TD><br />
<TD><I>74</I></TD><br />
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<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12689355">556. Interaction between tetraethylammonium and permeant cations at the inactivation <I>Jpn J Physiol</I><B> 53</B>: 25-34. (2003).<BR><BR></A></TD><br />
<TD><I>74</I></TD><br />
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<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10389176">557. Ionic mechanisms underlying TRH-induced prolactin secretion in rat lactotrophs. <I>Ross Fiziol Zh Im I M Sechenova</I><B> 85</B>: 195-204. (1999).<BR><BR></A></TD><br />
<TD><I>74</I></TD><br />
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<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10084682">558. A role for inwardly rectifying K+ channels in differentiation of NG108-15 neurob <I>J Neurobiol</I><B> 38</B>: 466-74. (1999).<BR><BR></A></TD><br />
<TD><I>74</I></TD><br />
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<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9925876">559. N-linked glycosylation sites determine HERG channel surface membrane expression. <I>J Physiol</I><B> 515</B>: 41-8. (1999).<BR><BR></A></TD><br />
<TD><I>74</I></TD><br />
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<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16507548">560. Utility of hERG Assays as Surrogate Markers of Delayed Cardiac Repolarization an <I>Toxicol Pathol</I><B> 34</B>: 81-90. (2006).<BR><BR></A></TD><br />
<TD><I>74</I></TD><br />
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<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16681037">561. Chemical modification of the human ether-a-go-go-related gene (HERG) k+ current <I>Arch Pharm Res</I><B> 29</B>: 310-7. (2006).<BR><BR></A></TD><br />
<TD><I>74</I></TD><br />
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<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17597962">562. Mutation Screening in KCNQ1, HERG, KCNE1, KCNE2 and SCN5A Genes in a Long QT Syn <I>Ann Acad Med Singapore</I><B> 36</B>: 394-5. (2007).<BR><BR></A></TD><br />
<TD><I>74</I></TD><br />
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<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17919688">563. Contributions of Herg K(+) current to repolarization of the human ventricular ac <I>Prog Biophys Mol Biol</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>74</I></TD><br />
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<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18006430">564. Augmentation of Late Sodium Current Unmasks the Proarrhythmic Effects of Amiodar <I>Cardiovasc Res</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>74</I></TD><br />
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<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18357730">565. [Effect of sophocarpine on HERG K+ channels] <I>Yao Xue Xue Bao</I><B> 43</B>: 44-9. (2008).<BR><BR></A></TD><br />
<TD><I>74</I></TD><br />
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<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18379053">566. HERG k(+) channel blockade by the novel antiviral drug sophocarpine. <I>Biol Pharm Bull</I><B> 31</B>: 627-32. (2008).<BR><BR></A></TD><br />
<TD><I>74</I></TD><br />
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<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11553787">567. The S4-S5 linker couples voltage sensing and activation of pacemaker channels. <I>Proc Natl Acad Sci U S A</I><B> 98</B>: 11277-82. (2001).<BR><BR></A></TD><br />
<TD><B>73.3</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16050263">568. Dynamic control of hERG/I(Kr) by PKA-mediated interactions with 14-3-3. <I>Novartis Found Symp</I><B> 266</B>: 75-89; discussi. (2005).<BR><BR></A></TD><br />
<TD><I>73</I></TD><br />
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<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15475478">569. Rb+ flux through hERG channels affects the potency of channel blocking drugs: co <I>J Biomol Screen</I><B> 9</B>: 588-97. (2004).<BR><BR></A></TD><br />
<TD><I>73</I></TD><br />
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<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15221346">570. Adrenergic regulation of the rapid component of the cardiac delayed rectifier po <I>Basic Res Cardiol</I><B> 99</B>: 279-87. (2004).<BR><BR></A></TD><br />
<TD><I>73</I></TD><br />
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<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15181157">571. Molecular basis of slow activation of the human ether-a-go-go related gene potas <I>J Physiol</I><B> 558</B>: 417-31. (2004).<BR><BR></A></TD><br />
<TD><I>73</I></TD><br />
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<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12759137">572. Effects of lomefloxacin and norfloxacin on pancreatic beta-cell ATP-sensitive K( <I>Life Sci</I><B> 73</B>: 429-35. (2003).<BR><BR></A></TD><br />
<TD><I>73</I></TD><br />
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<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11282296">573. Regulation of the cardiac repolarizing HERG potassium channel by protein kinase <I>Trends Cardiovasc Med</I><B> 10</B>: 205-9. (2000).<BR><BR></A></TD><br />
<TD><I>73</I></TD><br />
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<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9192303">574. A novel role for HERG K+ channels: spike-frequency adaptation. <I>J Physiol</I><B> 501</B>: 313-8. (1997).<BR><BR></A></TD><br />
<TD><I>73</I></TD><br />
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<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=8914737">575. Novel missense mutation in the cyclic nucleotide-binding domain of HERG causes l <I>Am J Med Genet</I><B> 65</B>: 27-35. (1996).<BR><BR></A></TD><br />
<TD><I>73</I></TD><br />
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<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17182020">576. Diabetes mellitus attenuates the repolarization reserve in mammalian heart. <I>Cardiovasc Res</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>73</I></TD><br />
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<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16321428">577. Preclinical cardiac safety assessment of pharmaceutical compounds using an integ <I>Prog Biophys Mol Biol</I><B> 90</B>: 414-43. (0).<BR><BR></A></TD><br />
<TD><I>73</I></TD><br />
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<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17445409">578. [Functional expression of congenital long QT syndrome related HERG mutation A561 <I>Zhonghua Xin Xue Guan Bing Za Zhi</I><B> 35</B>: 143-6. (2007).<BR><BR></A></TD><br />
<TD><I>73</I></TD><br />
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<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17473056">579. APETx1 from sea anemone Anthopleura elegantissima is a gating modifier peptide t <I>Mol Pharmacol</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>73</I></TD><br />
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<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17615948">580. K+ channels involved in contractility of rabbit small intestine. <I>J Physiol Biochem</I><B> 62</B>: 227-36. (2006).<BR><BR></A></TD><br />
<TD><I>73</I></TD><br />
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<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18191158">581. Protriptyline block of the human ether-à-go-go-related gene (HERG) K(+) channel <I>Life Sci</I><B> 0</B>: . (2008).<BR><BR></A></TD><br />
<TD><I>73</I></TD><br />
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<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18326583">582. Topological Mapping of the Asymmetric Drug Binding to the HERG Potassium Channel By Use of <I>Mol Pharmacol</I><B> 0</B>: . (2008).<BR><BR></A></TD><br />
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<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10862094">583. Survey of the coding region of the HERG gene in long QT syndrome reveals six nov <I>Hum Mutat</I><B> 15</B>: 580-1. (2000).<BR><BR></A></TD><br />
<TD><B>72.7</B></TD><br />
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<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9547387">584. A mutation in the pore region of HERG K+ channels expressed in Xenopus oocytes r <I>J Physiol</I><B> 509</B>: 129-37. (1998).<BR><BR></A></TD><br />
<TD><B>72.7</B></TD><br />
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<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16100002">585. CELL RENEWING IN NEUROBLASTOMA: ELECTROPHYSIOLOGICAL AND IMMUNOCYTOCHEMICAL CHAR <I>Stem Cells</I><B> 0</B>: . (2005).<BR><BR></A></TD><br />
<TD><I>72</I></TD><br />
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<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15980874">586. Spironolactone and its main metabolite canrenoic acid block hKv1.5, Kv4.3 and Kv <I>Br J Pharmacol</I><B> 146</B>: 146-61. (2005).<BR><BR></A></TD><br />
<TD><I>72</I></TD><br />
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<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9234196">587. A quantitative analysis of the activation and inactivation kinetics of HERG expr <I>J Physiol</I><B> 502</B>: 45-60. (1997).<BR><BR></A></TD><br />
<TD><I>72</I></TD><br />
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<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9117354">588. Soluble or bound laminin elicit in human neuroblastoma cells short- or long-term <I>Cell Adhes Commun</I><B> 4</B>: 369-85. (1996).<BR><BR></A></TD><br />
<TD><I>72</I></TD><br />
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<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=8910192">589. A HERG-like K+ channel in rat F-11 DRG cell line: pharmacological identification <I>J Physiol</I><B> 496</B>: 13-23. (1996).<BR><BR></A></TD><br />
<TD><I>72</I></TD><br />
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<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16771953">590. Gastrointestinal Symptoms in Families of Patients with an SCN5A-Encoded Cardiac <I>Am J Gastroenterol</I><B> 101</B>: 1299-304. (2006).<BR><BR></A></TD><br />
<TD><I>72</I></TD><br />
</TR><br />
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<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16150798">591. Dynamic conformational changes of extracellular S5-P linkers in the hERG channel <I>J Physiol</I><B> 569</B>: 75-89. (2005).<BR><BR></A></TD><br />
<TD><I>72</I></TD><br />
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<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17266262">592. Molecular Dynamics and Continuum Electrostatics Studies of Inactivation in the H <I>J Phys Chem B Condens Matter Mater Surf Interfaces</I><B> 111</B>: 1090-1098. (2007).<BR><BR></A></TD><br />
<TD><I>72</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17622552">593. Phosphatidylinositol 4,5-bisphosphate interactions with the HERG K(+) channel. <I>Pflugers Arch</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>72</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11698075">594. [3H]dofetilide binding to HERG transfected membranes: a potential high throughpu <I>Eur J Pharmacol</I><B> 430</B>: 147-8. (2001).<BR><BR></A></TD><br />
<TD><B>71.4</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16150441">595. Propranolol inhibits the human ether-a-go-go-related gene potassium channels. <I>Eur J Pharmacol</I><B> 519</B>: 208-11. (2005).<BR><BR></A></TD><br />
<TD><I>71</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15814090">596. Differential effects of human ether-a-go-go-related gene (HERG) blocking agents <I>Eur J Pharmacol</I><B> 512</B>: 53-60. (2005).<BR><BR></A></TD><br />
<TD><I>71</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15740727">597. Effect of trazodone on hERG channel current and QT-interval. <I>Eur J Pharmacol</I><B> 510</B>: 75-85. (2005).<BR><BR></A></TD><br />
<TD><I>71</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15519905">598. The [3H]dofetilide binding assay is a predictive screening tool for hERG blockad <I>J Pharmacol Toxicol Methods</I><B> 50</B>: 187-99. (0).<BR><BR></A></TD><br />
<TD><I>71</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15476742">599. Absence of clinically important HERG channel blockade by three compounds that in <I>Eur J Pharmacol</I><B> 502</B>: 163-7. (2004).<BR><BR></A></TD><br />
<TD><I>71</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15475579">600. HERG channel (dys)function revealed by dynamic action potential clamp technique. <I>Biophys J</I><B> 88</B>: 566-78. (2005).<BR><BR></A></TD><br />
<TD><I>71</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15464027">601. Acquired QT interval prolongation and HERG: implications for drug discovery and <I>Eur J Pharmacol</I><B> 500</B>: 129-42. (2004).<BR><BR></A></TD><br />
<TD><I>71</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15306208">602. Drug-drug interactions of Z-338, a novel gastroprokinetic agent, with terfenadin <I>Eur J Pharmacol</I><B> 497</B>: 223-31. (2004).<BR><BR></A></TD><br />
<TD><I>71</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15242738">603. Characterization of a KCNQ1/KVLQT1 polymorphism in Asian families with LQT2: imp <I>J Mol Cell Cardiol</I><B> 37</B>: 79-89. (2004).<BR><BR></A></TD><br />
<TD><I>71</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14729380">604. Inhibition of hERG K+ currents by antimalarial drugs in stably transfected HEK29 <I>Eur J Pharmacol</I><B> 484</B>: 41-8. (2004).<BR><BR></A></TD><br />
<TD><I>71</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14660002">605. Dopamine receptor agonists differ in their actions on cardiac ion channels. <I>Eur J Pharmacol</I><B> 482</B>: 31-7. (2003).<BR><BR></A></TD><br />
<TD><I>71</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14512100">606. Prulifloxacin: in vitro (HERG current) and in vivo (conscious dog) assessment of <I>Eur J Pharmacol</I><B> 477</B>: 69-72. (2003).<BR><BR></A></TD><br />
<TD><I>71</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12524137">607. Ethanol differently affects stress protein and HERG K+ channel expression in SH- <I>Eur J Pharmacol</I><B> 459</B>: 121-9. (2003).<BR><BR></A></TD><br />
<TD><I>71</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9272155">608. The long QT syndrome: a novel missense mutation in the S6 region of the KVLQT1 g <I>Hum Genet</I><B> 100</B>: 356-61. (1997).<BR><BR></A></TD><br />
<TD><I>71</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16497878">609. Species Diversity and Peptide Toxins Blocking Selectivity of ERG Subfamily K+ Ch <I>Mol Pharmacol</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>71</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17054943">610. In-vitro experimental models for the risk assessment of antibiotic-induced QT pr <I>Eur J Pharmacol</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>71</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16997865">611. Modulation of HERG gating by a charge cluster in the N-terminal proximal domain. <I>Biophys J</I><B> 91</B>: 4381-91. (2006).<BR><BR></A></TD><br />
<TD><I>71</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16494862">612. Effects of cyamemazine on hERG, INa, ICa, Ito, Isus and IK1 channel currents, an <I>Eur J Pharmacol</I><B> 532</B>: 270-8. (2006).<BR><BR></A></TD><br />
<TD><I>71</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9271355">613. Interactions of the nonsedating antihistamine loratadine with a Kv1.5-type potas <I>Mol Pharmacol</I><B> 52</B>: 314-22. (1997).<BR><BR></A></TD><br />
<TD><B>70.6</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15189761">614. Comparison of kinetic properties of quinidine and dofetilide block of HERG chann <I>Eur J Pharmacol</I><B> 493</B>: 29-40. (2004).<BR><BR></A></TD><br />
<TD><I>70</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15110144">615. Drugs, hERG and sudden death. <I>Cell Calcium</I><B> 35</B>: 543-7. (2004).<BR><BR></A></TD><br />
<TD><I>70</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9556090">616. Genetics, molecular mechanisms and management of long QT syndrome. <I>Ann Med</I><B> 30</B>: 58-65. (1998).<BR><BR></A></TD><br />
<TD><I>70</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16493186">617. QT PRODACT: Evaluation of the Potential of Compounds to Cause QT Interval Prolon <I>J Pharmacol Sci</I><B> 99</B>: 449-57. (2005).<BR><BR></A></TD><br />
<TD><I>70</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16825484">618. Biophysical characterization of the new HERG1 channel opener NS3623. <I>Mol Pharmacol</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>70</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16891768">619. Blockade by NIP-142, an Antiarrhythmic Agent, of Carbachol-Induced Atrial Action <I>J Pharmacol Sci</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>70</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17363390">620. Modulation of hERG potassium currents in HEK-293 cells by protein kinase C. Evid <I>J Physiol</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>70</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18222468">621. Cardiac potassium channel dysfunction in sudden infant death syndrome. <I>J Mol Cell Cardiol</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>70</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11862331">622. Inhibition of cardiac potassium currents by pentobarbital. <I>Naunyn Schmiedebergs Arch Pharmacol</I><B> 365</B>: 29-37. (2002).<BR><BR></A></TD><br />
<TD><B>69.2</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11852052">623. Inhibitory actions of the selective serotonin re-uptake inhibitor citalopram on <I>FEBS Lett</I><B> 512</B>: 59-66. (2002).<BR><BR></A></TD><br />
<TD><B>69.2</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10220144">624. Novel KCNQ1 and HERG missense mutations in Dutch long-QT families. <I>Hum Mutat</I><B> 13</B>: 301-10. (1999).<BR><BR></A></TD><br />
<TD><B>69.2</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15572050">625. Novel C-terminus frameshift mutation, 1122fs/147, of HERG in LQT2: additional am <I>J Mol Cell Cardiol</I><B> 37</B>: 1205-11. (2004).<BR><BR></A></TD><br />
<TD><I>69</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15371638">626. S641 contributes HERG k+ channel inactivation. <I>Cell Biochem Biophys</I><B> 41</B>: 25-40. (2004).<BR><BR></A></TD><br />
<TD><I>69</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15176423">627. Modulation of HERG potassium channel function by drug action. <I>Ann Med</I><B> 36</B>: 41-6. (2004).<BR><BR></A></TD><br />
<TD><I>69</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12923204">628. Mutant MiRP1 subunits modulate HERG K+ channel gating: a mechanism for pro-arrhy <I>J Physiol</I><B> 551</B>: 253-62. (2003).<BR><BR></A></TD><br />
<TD><I>69</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12645305">629. [Cardiotoxicity of lindane, a gamma isomer of hexachlorocyclohexane] <I>J Soc Biol</I><B> 196</B>: 339-48. (2002).<BR><BR></A></TD><br />
<TD><I>69</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11744759">630. Effects of premature stimulation on HERG K(+) channels. <I>J Physiol</I><B> 537</B>: 843-51. (2001).<BR><BR></A></TD><br />
<TD><I>69</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10866950">631. Differential effects of amino-terminal distal and proximal domains in the regula <I>Biophys J</I><B> 79</B>: 231-46. (2000).<BR><BR></A></TD><br />
<TD><I>69</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16480279">632. A New Class of Blockers of the Voltage-Gated Potassium Channel Kv1.3 via Modific <I>J Med Chem</I><B> 49</B>: 1433-41. (2006).<BR><BR></A></TD><br />
<TD><I>69</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15987885">633. Solution structure of APETx2, a specific peptide inhibitor of ASIC3 proton-gated <I>Protein Sci</I><B> 14</B>: 2003-10. (2005).<BR><BR></A></TD><br />
<TD><I>69</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18272172">634. A splice site mutation in hERG leads to cryptic splicing in human long QT syndrome. <I>J Mol Cell Cardiol</I><B> 0</B>: . (2008).<BR><BR></A></TD><br />
<TD><I>69</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9341873">635. Autosomal recessive long-QT syndrome (Jervell Lange-Nielsen syndrome) is genetic <I>Hum Genet</I><B> 100</B>: 573-6. (1997).<BR><BR></A></TD><br />
<TD><B>68.6</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15599693">636. Single nucleotide polymorphism map of five long-QT genes. <I>J Mol Med</I><B> 83</B>: 159-65. (2005).<BR><BR></A></TD><br />
<TD><I>68</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10510456">637. Inhibition of the human ether-a-go-go-related gene (HERG) potassium channel by c <I>Br J Pharmacol</I><B> 128</B>: 444-50. (1999).<BR><BR></A></TD><br />
<TD><I>68</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9706014">638. Modulation of human erg K+ channel gating by activation of a G protein-coupled r <I>J Physiol</I><B> 511</B>: 333-46. (1998).<BR><BR></A></TD><br />
<TD><I>68</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=8589871">639. Recent advances in understanding the molecular mechanisms of the long QT syndrom <I>J Cardiovasc Electrophysiol</I><B> 6</B>: 1023-31. (1995).<BR><BR></A></TD><br />
<TD><I>68</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=2606337">640. Food intake suppressant effect of baclofen in rats. <I>Gen Pharmacol</I><B> 20</B>: 701-3. (1989).<BR><BR></A></TD><br />
<TD><I>68</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=2574124">641. Involvement of GABAA receptor sites in diazepam hypothermia. <I>Gen Pharmacol</I><B> 20</B>: 855-9. (1989).<BR><BR></A></TD><br />
<TD><I>68</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16556651">642. Effect of S5P {alpha}-helix charge mutants on inactivation of hERG K+ channels. <I>J Physiol</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>68</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16418337">643. Antimony-based antileishmanial compounds prolong the cardiac action potential by <I>Mol Pharmacol</I><B> 69</B>: 1216-25. (2006).<BR><BR></A></TD><br />
<TD><I>68</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17369411">644. Mechanism of block of the hERG K+ channel by the scorpion toxin CnErg1. <I>Biophys J</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>68</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17420287">645. VEGFR-1 (FLT-1), {beta}1 integrin and hERG K+ channel form a macromolecular sign <I>Blood</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>68</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9315735">646. Specific block of cloned Herg channels by clofilium and its tertiary analog LY97 <I>FEBS Lett</I><B> 414</B>: 435-8. (1997).<BR><BR></A></TD><br />
<TD><B>67.6</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16050265">647. HERG block, QT liability and sudden cardiac death. <I>Novartis Found Symp</I><B> 266</B>: 118-31; discuss. (2005).<BR><BR></A></TD><br />
<TD><I>67</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15978804">648. Predictive models for hERG potassium channel blockers. <I>Bioorg Med Chem Lett</I><B> 15</B>: 3637-42. (2005).<BR><BR></A></TD><br />
<TD><I>67</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15911273">649. A discriminant model constructed by the support vector machine method for HERG p <I>Bioorg Med Chem Lett</I><B> 15</B>: 2886-90. (2005).<BR><BR></A></TD><br />
<TD><I>67</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15878274">650. Discovery of potent and use-dependent sodium channel blockers for treatment of c <I>Bioorg Med Chem Lett</I><B> 15</B>: 2943-7. (2005).<BR><BR></A></TD><br />
<TD><I>67</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15837299">651. NMDA-NR2B subtype selectivity of stereoisomeric 2-(1,2,3,4-tetrahydro-1-isoquino <I>Bioorg Med Chem Lett</I><B> 15</B>: 2231-4. (2005).<BR><BR></A></TD><br />
<TD><I>67</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15745831">652. A two-state homology model of the hERG K+ channel: application to ligand binding <I>Bioorg Med Chem Lett</I><B> 15</B>: 1737-41. (2005).<BR><BR></A></TD><br />
<TD><I>67</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15686947">653. Discovery and structure-activity relationships of 2-benzylpyrrolidine-substitute <I>Bioorg Med Chem Lett</I><B> 15</B>: 1225-8. (2005).<BR><BR></A></TD><br />
<TD><I>67</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15135665">654. Lidoflazine is a high affinity blocker of the HERG K(+)channel. <I>J Mol Cell Cardiol</I><B> 36</B>: 701-5. (2004).<BR><BR></A></TD><br />
<TD><I>67</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15125940">655. Pharmacophore-based search, synthesis, and biological evaluation of anthranilic <I>Bioorg Med Chem Lett</I><B> 14</B>: 2823-7. (2004).<BR><BR></A></TD><br />
<TD><I>67</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14698157">656. Optimization of the indolyl quinolinone class of KDR (VEGFR-2) kinase inhibitors <I>Bioorg Med Chem Lett</I><B> 14</B>: 351-5. (2004).<BR><BR></A></TD><br />
<TD><I>67</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12873512">657. Prediction of hERG potassium channel affinity by traditional and hologram qSAR m <I>Bioorg Med Chem Lett</I><B> 13</B>: 2773-5. (2003).<BR><BR></A></TD><br />
<TD><I>67</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11283231">658. Modulation of rat erg1, erg2, erg3 and HERG K+ currents by thyrotropin-releasing <I>J Physiol</I><B> 532</B>: 143-63. (2001).<BR><BR></A></TD><br />
<TD><I>67</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10636190">659. Droperidol lengthens cardiac repolarization due to block of the rapid component <I>J Cardiovasc Electrophysiol</I><B> 10</B>: 1597-604. (1999).<BR><BR></A></TD><br />
<TD><I>67</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16339175">660. Effects of TRH on heteromeric rat erg1a/1b K+ channels are dominated by the rerg <I>J Physiol</I><B> 0</B>: . (2005).<BR><BR></A></TD><br />
<TD><I>67</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16782336">661. Overcoming HERG affinity in the discovery of the CCR5 antagonist maraviroc. <I>Bioorg Med Chem Lett</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>67</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16942878">662. Discovery and synthesis of tetrahydroindolone-derived carbamates as Kv1.5 blocke <I>Bioorg Med Chem Lett</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>67</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16942874">663. Discovery and synthesis of tetrahydroindolone derived semicarbazones as selectiv <I>Bioorg Med Chem Lett</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>67</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16439122">664. Kinesin spindle protein (KSP) inhibitors. Part 3: synthesis and evaluation of ph <I>Bioorg Med Chem Lett</I><B> 16</B>: 1780-3. (2006).<BR><BR></A></TD><br />
<TD><I>67</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16413782">665. 1-Phenyl-8-azabicyclo[3.2.1]octane ethers: a novel series of neurokinin (NK1) an <I>Bioorg Med Chem Lett</I><B> 16</B>: 2008-12. (2006).<BR><BR></A></TD><br />
<TD><I>67</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16377185">666. Synthesis of the first sulfur-35-labeled hERG radioligand. <I>Bioorg Med Chem Lett</I><B> 16</B>: 1692-5. (2006).<BR><BR></A></TD><br />
<TD><I>67</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17350253">667. Identification of diamino chromone-2-carboxamides as MCHr1 antagonists with mini <I>Bioorg Med Chem Lett</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>67</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18042732">668. PD-307243 Causes Instantaneous Current Through Human Ether-a-go-go-Related Gene <I>Mol Pharmacol</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>67</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18061227">669. Modulation of voltage-gated Na(+) and K(+) channels by pumiliotoxin 251D: A &#8220;joi <I>Toxicon</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>67</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18313714">670. Gambierol, a toxin produced by the dinoflagellate Gambierdiscus toxicus, is a potent block <I>Toxicon</I><B> 0</B>: . (2008).<BR><BR></A></TD><br />
<TD><I>67</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18471844">671. OdK2, a Kv1.3 channel-selective toxin from the venom of the Iranian scorpion Odonthobuthus <I>Toxicon</I><B> 0</B>: . (2008).<BR><BR></A></TD><br />
<TD><I>67</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15120823">672. Postmortem molecular screening in unexplained sudden death. <I>J Am Coll Cardiol</I><B> 43</B>: 1625-9. (2004).<BR><BR></A></TD><br />
<TD><B>66.7</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15051636">673. Compound mutations: a common cause of severe long-QT syndrome. <I>Circulation</I><B> 109</B>: 1834-41. (2004).<BR><BR></A></TD><br />
<TD><B>66.7</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=13680209">674. The HERG K+ channel: progress in understanding the molecular basis of its unusua <I>Eur Biophys J</I><B> 33</B>: 89-97. (2004).<BR><BR></A></TD><br />
<TD><B>66.7</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11330342">675. Blocking effects of the antiarrhythmic drug propafenone on the HERG potassium ch <I>Naunyn Schmiedebergs Arch Pharmacol</I><B> 363</B>: 472-80. (2001).<BR><BR></A></TD><br />
<TD><B>66.7</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9544837">676. Multiple different missense mutations in the pore region of HERG in patients wit <I>Hum Genet</I><B> 102</B>: 265-72. (1998).<BR><BR></A></TD><br />
<TD><B>66.7</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=8569466">677. The long QT syndrome. A review of recent molecular genetic and physiologic disco <I>Medicine (Baltimore)</I><B> 75</B>: 1-5. (1996).<BR><BR></A></TD><br />
<TD><B>66.7</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16050273">678. Drug-induced QT interval prolongation&#8211;regulatory guidance and perspectives on h <I>Novartis Found Symp</I><B> 266</B>: 251-80; discuss. (2005).<BR><BR></A></TD><br />
<TD><I>66</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16050268">679. In silico modelling&#8211;pharmacophores and hERG channel models. <I>Novartis Found Symp</I><B> 266</B>: 171-81; discuss. (2005).<BR><BR></A></TD><br />
<TD><I>66</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16050267">680. Physicochemical basis for binding and voltage-dependent block of hERG channels b <I>Novartis Found Symp</I><B> 266</B>: 159-66; discuss. (2005).<BR><BR></A></TD><br />
<TD><I>66</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16050266">681. Structural determinants for high-affinity block of hERG potassium channels. <I>Novartis Found Symp</I><B> 266</B>: 136-50; discuss. (2005).<BR><BR></A></TD><br />
<TD><I>66</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16050261">682. Voltage sensor movement in the hERG K+ channel. <I>Novartis Found Symp</I><B> 266</B>: 46-52; discussi. (2005).<BR><BR></A></TD><br />
<TD><I>66</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14517175">683. Acute effects of dronedarone on both components of the cardiac delayed rectifier <I>Br J Pharmacol</I><B> 140</B>: 996-1002. (2003).<BR><BR></A></TD><br />
<TD><I>66</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12388652">684. Influence of opioid agonists on cardiac human ether-a-go-go-related gene K(+) cu <I>J Pharmacol Exp Ther</I><B> 303</B>: 688-94. (2002).<BR><BR></A></TD><br />
<TD><I>66</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16967046">685. Drug-induced long QT syndrome: hERG K+ channel block and disruption of protein t <I>Br J Pharmacol</I><B> 149</B>: 481-9. (2006).<BR><BR></A></TD><br />
<TD><I>66</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17711440">686. In vivo Effects of Mutant HERG K(+) Channel Inhibition by Disopyramide in Patien <I>J Cardiovasc Electrophysiol</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>66</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18381562">687. Refining insights into high affinity drug binding to the hERG potassium channel (Relates t <I>Mol Pharmacol</I><B> 0</B>: . (2008).<BR><BR></A></TD><br />
<TD><I>66</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10102937">688. Human ether-à-go-go-related gene K+ channel gating probed with extracellular ca <I>J Gen Physiol</I><B> 113</B>: 565-80. (1999).<BR><BR></A></TD><br />
<TD><B>65.4</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16050262">689. HERG channel trafficking. <I>Novartis Found Symp</I><B> 266</B>: 57-69; discussi. (2005).<BR><BR></A></TD><br />
<TD><I>65</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16011830">690. The N588K-HERG K+ channel mutation in the &#8216;short QT syndrome&#8217;: mechanism of gain <I>Biochem Biophys Res Commun</I><B> 334</B>: 441-9. (2005).<BR><BR></A></TD><br />
<TD><I>65</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15558241">691. Inhibitory effects of AMP 579, a novel cardioprotective adenosine A1/A2A recepto <I>Naunyn Schmiedebergs Arch Pharmacol</I><B> 370</B>: 492-9. (2004).<BR><BR></A></TD><br />
<TD><I>65</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10381588">692. The erg-like potassium current in rat lactotrophs. <I>J Physiol</I><B> 518</B>: 401-16. (1999).<BR><BR></A></TD><br />
<TD><I>65</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10369479">693. Inhibition of HERG channels stably expressed in a mammalian cell line by the ant <I>Br J Pharmacol</I><B> 127</B>: 243-51. (1999).<BR><BR></A></TD><br />
<TD><I>65</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9508824">694. Voltage-dependent blockade of HERG channels expressed in Xenopus oocytes by exte <I>J Physiol</I><B> 507</B>: 631-8. (1998).<BR><BR></A></TD><br />
<TD><I>65</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9395071">695. Modulation of HERG affinity for E-4031 by [K+]o and C-type inactivation. <I>FEBS Lett</I><B> 417</B>: 43-7. (1997).<BR><BR></A></TD><br />
<TD><I>65</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16251317">696. Maraviroc (UK-427,857), a potent, orally bioavailable, and selective small-molec <I>Antimicrob Agents Chemother</I><B> 49</B>: 4721-32. (2005).<BR><BR></A></TD><br />
<TD><I>64</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15494025">697. Physical and functional interaction between integrins and hERG potassium channel <I>Biochem Soc Trans</I><B> 32</B>: 826-7. (2004).<BR><BR></A></TD><br />
<TD><I>64</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16452156">698. Temperature dependence of human Ether-a-go-go Related Gene (hERG) K+ currents. <I>Am J Physiol Cell Physiol</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>64</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16617123">699. Restoring depressed HERG K+ channel function as a mechanism for insulin treatmen <I>Am J Physiol Heart Circ Physiol</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>64</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17041783">700. Expression and Functional Characterization of the Human Ether-à-go-go-Related G <I>J Membr Biol</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>64</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17384921">701. Development, interpretation and temporal evaluation of a global QSAR of hERG ele <I>J Comput Aided Mol Des</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>64</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17549583">702. Understanding hERG inhibition with QSAR models based on a one-dimensional molecu <I>J Comput Aided Mol Des</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>64</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18192214">703. Genomic structure, transcriptional control and tissue distribution of human ERG1 <I>Am J Physiol Heart Circ Physiol</I><B> 0</B>: . (2008).<BR><BR></A></TD><br />
<TD><I>64</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18222997">704. Thermodynamical and kinetic properties of amino terminal and S4-S5 loop HERG cha <I>Biophys J</I><B> 0</B>: . (2008).<BR><BR></A></TD><br />
<TD><I>64</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18414922">705. Electrophysiological and Fluorescence Microscopy Studies with HERG Channel/EGFP Fusion Pro <I>J Membr Biol</I><B> 0</B>: . (2008).<BR><BR></A></TD><br />
<TD><I>64</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11034315">706. M-type KCNQ2-KCNQ3 potassium channels are modulated by the KCNE2 subunit. <I>FEBS Lett</I><B> 480</B>: 137-41. (2000).<BR><BR></A></TD><br />
<TD><B>63.6</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16050259">707. Gating and assembly of heteromeric hERG1a/1b channels underlying I(Kr) in the he <I>Novartis Found Symp</I><B> 266</B>: 4-15; discussio. (2005).<BR><BR></A></TD><br />
<TD><I>63</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16023163">708. Use of in vitro methods to predict QT prolongation. <I>Toxicol Appl Pharmacol</I><B> 207</B>: 446-50. (2005).<BR><BR></A></TD><br />
<TD><I>63</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15673388">709. Further insights into the effect of quinidine in short QT syndrome caused by a m <I>J Cardiovasc Electrophysiol</I><B> 16</B>: 54-8. (2005).<BR><BR></A></TD><br />
<TD><I>63</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12527373">710. Normal function of HERG K+ channels expressed in HEK293 cells requires basal pro <I>FEBS Lett</I><B> 534</B>: 125-32. (2003).<BR><BR></A></TD><br />
<TD><I>63</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17371699">711. Novel heterocyclic-substituted benzofuran histamine H(3) receptor antagonists: I <I>Biochem Pharmacol</I><B> 73</B>: 1243-55. (2007).<BR><BR></A></TD><br />
<TD><I>63</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17574126">712. Genetic control of heart function and aging in Drosophila. <I>Trends Cardiovasc Med</I><B> 17</B>: 177-82. (2007).<BR><BR></A></TD><br />
<TD><I>63</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12623297">713. Structural determinants and biophysical properties of HERG and KCNQ1 channel gat <I>J Mol Cell Cardiol</I><B> 35</B>: 27-35. (2003).<BR><BR></A></TD><br />
<TD><B>62.5</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10570058">714. Modulation of the K(+) channels encoded by the human ether-a-gogo-related gene-1 <I>Mol Pharmacol</I><B> 56</B>: 1298-308. (1999).<BR><BR></A></TD><br />
<TD><B>62.5</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10422790">715. Epinastine, a nonsedating histamine H1 receptor antagonist, has a negligible eff <I>Eur J Pharmacol</I><B> 374</B>: 457-60. (1999).<BR><BR></A></TD><br />
<TD><I>62</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16474415">716. Mechanism of hERG K(+) channel blockade by the fluoroquinolone antibiotic moxifl <I>Br J Pharmacol</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>62</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16942825">717. Short QT syndrome: A case report and review of literature. <I>Resuscitation</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>62</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16949586">718. Different relevance of inactivation and F468 residue in the mechanisms of hEag1 <I>FEBS Lett</I><B> 580</B>: 5059-66. (2006).<BR><BR></A></TD><br />
<TD><I>62</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16336517">719. Modelling and imaging cardiac repolarization abnormalities. <I>J Intern Med</I><B> 259</B>: 91-106. (2006).<BR><BR></A></TD><br />
<TD><I>62</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17444521">720. Drug block of the hERG potassium channel: Insight from modeling. <I>Proteins</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>62</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9305853">721. Suppression of slow delayed rectifier current by a truncated isoform of KvLQT1 c <I>J Biol Chem</I><B> 272</B>: 24109-12. (1997).<BR><BR></A></TD><br />
<TD><B>61.8</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11404399">722. A novel extracellular calcium sensing mechanism in voltage-gated potassium ion c <I>J Neurosci</I><B> 21</B>: 4143-53. (2001).<BR><BR></A></TD><br />
<TD><B>61.1</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11306689">723. Cocaine blocks HERG, but not KvLQT1+minK, potassium channels. <I>Mol Pharmacol</I><B> 59</B>: 1069-76. (2001).<BR><BR></A></TD><br />
<TD><B>61.1</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9103502">724. Suppression of mammalian K+ channel family by ebastine. <I>J Pharmacol Exp Ther</I><B> 281</B>: 233-44. (1997).<BR><BR></A></TD><br />
<TD><B>61.1</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16155403">725. In vivo targeting of ERG potassium channels in mice and dogs by a positron-emitt <I>Exp Mol Med</I><B> 37</B>: 269-75. (2005).<BR><BR></A></TD><br />
<TD><I>61</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15987770">726. {Omega}-3 and {omega}-6 polyunsaturated fatty acids block HERG channels. <I>Am J Physiol Cell Physiol</I><B> 289</B>: C1251-60. (2005).<BR><BR></A></TD><br />
<TD><I>61</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15983462">727. Local anesthetic interaction with human ether-a-go-go-related gene (HERG) channe <I>Anesthesiology</I><B> 103</B>: 102-12. (2005).<BR><BR></A></TD><br />
<TD><I>61</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15340774">728. Effects of the atrial antiarrhythmic drug AVE0118 on cardiac ion channels. <I>Naunyn Schmiedebergs Arch Pharmacol</I><B> 370</B>: 183-92. (2004).<BR><BR></A></TD><br />
<TD><I>61</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12395204">729. Expression of voltage-gated K+ channels in human atrium. <I>Basic Res Cardiol</I><B> 97</B>: 424-33. (2002).<BR><BR></A></TD><br />
<TD><I>61</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16405970">730. A novel toxin from the venom of the scorpion Tityus trivittatus, is the first me <I>FEBS Lett</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>61</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18458880">731. Inhibition of cardiac hERG potassium channels by tetracyclic antidepressant mianserin. <I>Naunyn Schmiedebergs Arch Pharmacol</I><B> 0</B>: . (2008).<BR><BR></A></TD><br />
<TD><I>61</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16226079">732. Short QT syndrome. Genotype-phenotype correlations. <I>J Electrocardiol</I><B> 38</B>: 75-80. (2005).<BR><BR></A></TD><br />
<TD><I>60</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15541373">733. High affinity HERG K(+) channel blockade by the antiarrhythmic agent dronedarone <I>Biochem Biophys Res Commun</I><B> 325</B>: 883-91. (2004).<BR><BR></A></TD><br />
<TD><I>60</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15534787">734. Preclinical strategies to assess QT liability and torsadogenic potential of new <I>J Electrocardiol</I><B> 37</B>: 7-14. (2004).<BR><BR></A></TD><br />
<TD><I>60</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15202000">735. Selective expression of HERG and Kv2 channels influences proliferation of uterin <I>Int J Oncol</I><B> 25</B>: 153-9. (2004).<BR><BR></A></TD><br />
<TD><I>60</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14499861">736. Functional characterization of the common amino acid 897 polymorphism of the car <I>Cardiovasc Res</I><B> 59</B>: 603-11. (2003).<BR><BR></A></TD><br />
<TD><B>60.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12928493">737. Gating currents associated with intramembrane charge displacement in HERG potass <I>Proc Natl Acad Sci U S A</I><B> 100</B>: 10534-9. (2003).<BR><BR></A></TD><br />
<TD><B>60.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12498903">738. Interactions of the narcotic l-alpha-acetylmethadol with human cardiac K+ channe <I>Eur J Pharmacol</I><B> 458</B>: 25-9. (2003).<BR><BR></A></TD><br />
<TD><I>60</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16842817">739. Disopyramide is an effective inhibitor of mutant HERG K(+) channels involved in <I>J Mol Cell Cardiol</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>60</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17027138">740. Effects of fluoroquinolones on HERG channels and on pancreatic beta-cell ATP-sen <I>Toxicology</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>60</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16379539">741. Gene sequencing in neonates and infants with the long QT syndrome. <I>Genet Test</I><B> 9</B>: 281-4. (2005).<BR><BR></A></TD><br />
<TD><I>60</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16007460">742. Inhibition of cardiac HERG channels by grapefruit flavonoid naringenin: implicat <I>Naunyn Schmiedebergs Arch Pharmacol</I><B> 371</B>: 516-25. (2005).<BR><BR></A></TD><br />
<TD><I>59</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12729675">743. Characterization of HERG potassium channel inhibition using CoMSiA 3D QSAR and h <I>Bioorg Med Chem Lett</I><B> 13</B>: 1829-35. (2003).<BR><BR></A></TD><br />
<TD><I>59</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11755529">744. Mapping the receptor site for ergtoxin, a specific blocker of ERG channels. <I>FEBS Lett</I><B> 510</B>: 45-9. (2002).<BR><BR></A></TD><br />
<TD><I>59</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10945846">745. Stereoselective interactions of the enantiomers of chromanol 293B with human vol <I>J Pharmacol Exp Ther</I><B> 294</B>: 955-62. (2000).<BR><BR></A></TD><br />
<TD><I>59</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10517660">746. Characterization of a novel missense mutation in the pore of HERG in a patient w <I>J Cardiovasc Electrophysiol</I><B> 10</B>: 1262-70. (1999).<BR><BR></A></TD><br />
<TD><I>59</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=8641472">747. Blockade of HERG channels expressed in Xenopus oocytes by the histamine receptor <I>FEBS Lett</I><B> 385</B>: 77-80. (1996).<BR><BR></A></TD><br />
<TD><I>59</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16787254">748. The Cardiac hERG/I(Kr) Potassium Channel as Pharmacological Target: Structure, F <I>Curr Pharm Des</I><B> 12</B>: 2271-83. (2006).<BR><BR></A></TD><br />
<TD><I>59</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16883575">749. hERG1 channels in human esophagus: Evidence for their aberrant expression in the <I>J Cell Physiol</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>59</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16928897">750. Mallotoxin is a Novel Human Ether-a-go-go-Related Gene (hERG) Potassium Channel <I>J Pharmacol Exp Ther</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>59</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16931984">751. Long QT 1 Mutation KCNQ1A344V Increases Local Anesthetic Sensitivity of the Slow <I>Anesthesiology</I><B> 105</B>: 511-520. (2006).<BR><BR></A></TD><br />
<TD><I>59</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17192609">752. Therapeutic potential of novel selective drugs targeting nicotinic acetylcholine <I>J Mol Neurosci</I><B> 30</B>: 17-8. (2006).<BR><BR></A></TD><br />
<TD><I>59</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16278312">753. Comparative evaluation of HERG currents and QT intervals following challenge wit <I>J Pharmacol Exp Ther</I><B> 316</B>: 1098-106. (2006).<BR><BR></A></TD><br />
<TD><I>59</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17961513">754. Green tea flavonoid epigallocatechin-3-gallate (EGCG) inhibits cardiac hERG pota <I>Biochem Biophys Res Commun</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>59</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18199093">755. 5-HT(4) receptor agonists: similar but not the same. <I>Neurogastroenterol Motil</I><B> 20</B>: 99-112. (2008).<BR><BR></A></TD><br />
<TD><I>59</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=8941124">756. Mechanism of action potential prolongation by RP 58866 and its active enantiomer <I>Circulation</I><B> 94</B>: 2938-46. (1996).<BR><BR></A></TD><br />
<TD><B>58.1</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15965349">757. Blocking characteristics of hKv1.5 and hKv4.3/hKChIP2.2 after administration of <I>J Cardiovasc Pharmacol</I><B> 46</B>: 7-17. (2005).<BR><BR></A></TD><br />
<TD><I>58</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15599706">758. Class Ia anti-arrhythmic drug ajmaline blocks HERG potassium channels: mode of a <I>Naunyn Schmiedebergs Arch Pharmacol</I><B> 370</B>: 423-35. (2004).<BR><BR></A></TD><br />
<TD><I>58</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15071359">759. Block of HERG human K(+) channel and IKr of guinea pig cardiomyocytes by chlorpr <I>J Cardiovasc Pharmacol</I><B> 43</B>: 706-14. (2004).<BR><BR></A></TD><br />
<TD><I>58</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9484850">760. Blockade of HERG channels by the class III antiarrhythmic azimilide: mode of act <I>Br J Pharmacol</I><B> 123</B>: 23-30. (1998).<BR><BR></A></TD><br />
<TD><I>58</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16542653">761. Inhibition of the HERG K(+) channel by the antifungal drug ketoconazole depends <I>FEBS Lett</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>58</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16715368">762. Effects of Antipsychotic Drugs on I(to), I (Na), I (sus), I (K1), and hERG: QT P <I>Pharm Res</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>58</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17425296">763. 1,4-Dihydroindeno[1,2-c]pyrazoles with Acetylenic Side Chains as Novel and Poten <I>J Med Chem</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>58</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17457128">764. Molecular Interaction of Droperidol with Human Ether-a-go-go-related Gene Channe <I>Anesthesiology</I><B> 106</B>: 967-976. (2007).<BR><BR></A></TD><br />
<TD><I>58</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12679150">765. Famotidine does not induce long QT syndrome: experimental evidence from in vitro <I>Eur J Pharmacol</I><B> 466</B>: 137-46. (2003).<BR><BR></A></TD><br />
<TD><B>57.1</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11082114">766. Inhibition of HERG1 K(+) channels by the novel second-generation antihistamine m <I>Br J Pharmacol</I><B> 131</B>: 1081-8. (2000).<BR><BR></A></TD><br />
<TD><I>57</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9272507">767. Molecular biology of the long QT syndrome: impact on management. <I>Pacing Clin Electrophysiol</I><B> 20</B>: 2052-7. (1997).<BR><BR></A></TD><br />
<TD><I>57</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16543716">768. Involvement of Golgin-160 in Cell Surface Transport of Renal ROMK Channel: Co-ex <I>Cell Physiol Biochem</I><B> 17</B>: 1-12. (2006).<BR><BR></A></TD><br />
<TD><I>57</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16614168">769. Differentiation of arrhythmia risk of the antibacterials moxifloxacin, erythromy <I>J Pharmacol Exp Ther</I><B> 318</B>: 352-9. (2006).<BR><BR></A></TD><br />
<TD><I>57</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18504605">770. Characterization of hERG1a and hERG1b potassium channels-a possible role for hERG1b in the <I>Pflugers Arch</I><B> 0</B>: . (2008).<BR><BR></A></TD><br />
<TD><I>57</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16029385">771. Clinical, genetic, and electrophysiologic characteristics of a new PAS-domain HE <I>Ann Noninvasive Electrocardiol</I><B> 10</B>: 334-41. (2005).<BR><BR></A></TD><br />
<TD><I>56</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11844290">772. Variable expression of long QT syndrome among gene carriers from families with f <I>Ann Noninvasive Electrocardiol</I><B> 7</B>: 40-6. (2002).<BR><BR></A></TD><br />
<TD><I>56</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10762666">773. High affinity blockade of the HERG cardiac K(+) channel by the neuroleptic pimoz <I>Eur J Pharmacol</I><B> 392</B>: 137-40. (2000).<BR><BR></A></TD><br />
<TD><I>56</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16472284">774. Functional Significance of KCNH2 (HERG) K897T Polymorphism for Cardiac Repolariz <I>Ann Noninvasive Electrocardiol</I><B> 11</B>: 57-62. (2006).<BR><BR></A></TD><br />
<TD><I>56</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17171344">775. A missense mutation (G604S) in the S5/pore region of HERG causes long QT syndrom <I>Eur J Pediatr</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>56</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16723117">776. Template switching within exons 3 and 4 of KV11.1 (HERG) gives rise to a 5&#8242; trun <I>Biochem Biophys Res Commun</I><B> 345</B>: 1342-9. (2006).<BR><BR></A></TD><br />
<TD><I>56</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17311278">777. Overexpression HERG K(+) channel gene mediates cell-growth signals on activation <I>J Cell Physiol</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>56</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12402336">778. DHPLC analysis of potassium ion channel genes in congenital long QT syndrome. <I>Hum Mutat</I><B> 20</B>: 382-91. (2002).<BR><BR></A></TD><br />
<TD><B>55.6</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12239090">779. Posttranslational modulation of glucocorticoid feedback inhibition at the pituit <I>Endocrinology</I><B> 143</B>: 3796-801. (2002).<BR><BR></A></TD><br />
<TD><B>55.6</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11160863">780. Inhibition of human ether-a-go-go potassium channels by cocaine. <I>Mol Pharmacol</I><B> 59</B>: 269-77. (2001).<BR><BR></A></TD><br />
<TD><B>55.6</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11080495">781. HERG K+ channels activation during beta(1) integrin-mediated adhesion to fibrone <I>J Biol Chem</I><B> 276</B>: 4923-31. (2001).<BR><BR></A></TD><br />
<TD><B>55.6</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9862440">782. Sulfonylureas blockade of neural and cardiac HERG channels. <I>FEBS Lett</I><B> 440</B>: 125-30. (1998).<BR><BR></A></TD><br />
<TD><B>55.2</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11160646">783. Effects of bupivacaine and a novel local anesthetic, IQB-9302, on human cardiac <I>J Pharmacol Exp Ther</I><B> 296</B>: 573-83. (2001).<BR><BR></A></TD><br />
<TD><I>55</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16397089">784. Molecular determinants of cocaine block of human ether-á-go-go-related gene pot <I>J Pharmacol Exp Ther</I><B> 317</B>: 865-74. (2006).<BR><BR></A></TD><br />
<TD><I>55</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17325228">785. Pharmacological activation of IKr current suppresses bradycardia-induced trigger <I>J Pharmacol Exp Ther</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>55</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18349188">786. Inhibition of the HERG channel by droperidol depends on channel gating and involves the S6 <I>Anesth Analg</I><B> 106</B>: 1161-70, table . (2008).<BR><BR></A></TD><br />
<TD><I>55</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10516162">787. Mechanism for the effects of extracellular acidification on HERG-channel functio <I>Am J Physiol</I><B> 277</B>: H1283-92. (1999).<BR><BR></A></TD><br />
<TD><B>54.2</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9138706">788. The inhibitory effect of the antipsychotic drug haloperidol on HERG potassium ch <I>Br J Pharmacol</I><B> 120</B>: 968-74. (1997).<BR><BR></A></TD><br />
<TD><I>54</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16513212">789. Molecular dissection of venom from Chinese scorpion Mesobuthus martensii: Identi <I>Peptides</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>54</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16581021">790. Frequency-dependent modulation of KCNQ1 and HERG1 potassium channels. <I>Biochem Biophys Res Commun</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>54</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16967047">791. Combined hERG channel inhibition and disruption of trafficking in drug-induced l <I>Br J Pharmacol</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>54</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17095614">792. Cardiac Glycosides as Novel Inhibitors of HERG Channel Trafficking. <I>J Pharmacol Exp Ther</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>54</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16722631">793. An integrated in silico 3D model-driven discovery of a novel, potent, and select <I>J Med Chem</I><B> 49</B>: 3116-35. (2006).<BR><BR></A></TD><br />
<TD><I>54</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17331468">794. A novel structure-based virtual screening model for the hERG channel blockers. <I>Biochem Biophys Res Commun</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>54</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10414305">795. The eag family of K+ channels in Drosophila and mammals. <I>Ann N Y Acad Sci</I><B> 868</B>: 356-69. (1999).<BR><BR></A></TD><br />
<TD><B>53.8</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16175187">796. hERG1 channels are overexpressed in glioblastoma multiforme and modulate VEGF se <I>Br J Cancer</I><B> 93</B>: 781-92. (2005).<BR><BR></A></TD><br />
<TD><I>53</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10482922">797. Inactivation block of the HERG human cardiac K+ channels by RP58866. <I>Br J Pharmacol</I><B> 127</B>: 1899-907. (1999).<BR><BR></A></TD><br />
<TD><I>53</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9517465">798. HERG- and IRK-like inward rectifier currents are sequentially expressed during n <I>Eur J Neurosci</I><B> 9</B>: 2596-604. (1997).<BR><BR></A></TD><br />
<TD><I>53</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16341233">799. Effects of the antifungal antibiotic clotrimazole on human cardiac repolarizatio <I>Br J Pharmacol</I><B> 0</B>: . (2005).<BR><BR></A></TD><br />
<TD><I>53</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17092964">800. Olanzapine prolongs cardiac repolarization by blocking the rapid component of th <I>J Psychopharmacol</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>53</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16368812">801. The effects of sevoflurane and propofol on QT interval and heterologously expres <I>Anesth Analg</I><B> 102</B>: 98-103. (2006).<BR><BR></A></TD><br />
<TD><I>53</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17249648">802. Identification and Characterization of 4-Methylbenzyl 4-[(Pyrimidin-2-ylamino)me <I>J Med Chem</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>53</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17329992">803. Stereoselective Block of hERG Channel by (S)-Methadone and QT Interval Prolongat <I>Clin Pharmacol Ther</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>53</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17460149">804. Sigma-2 receptor ligands-mediated inhibition of inwardly rectifying K+ channels <I>J Pharmacol Exp Ther</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>53</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15596533">805. Blockade of HERG cardiac K+ current by antifungal drug miconazole. <I>Br J Pharmacol</I><B> 0</B>: . (2004).<BR><BR></A></TD><br />
<TD><I>52</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15107589">806. HERG K channel conductance promotes H2O2-induced apoptosis in HEK293 cells: cell <I>Cell Physiol Biochem</I><B> 14</B>: 121-34. (2004).<BR><BR></A></TD><br />
<TD><I>52</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12466236">807. Effects of levobupivacaine, ropivacaine and bupivacaine on HERG channels: stereo <I>Br J Pharmacol</I><B> 137</B>: 1269-79. (2002).<BR><BR></A></TD><br />
<TD><I>52</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11166283">808. [3H]dofetilide binding in SHSY5Y and HEK293 cells expressing a HERG-like K+ chan <I>Eur J Pharmacol</I><B> 412</B>: 203-12. (2001).<BR><BR></A></TD><br />
<TD><I>52</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9664620">809. RERG is a molecular correlate of the inward-rectifying K current in clonal rat p <I>Receptors Channels</I><B> 6</B>: 19-29. (1998).<BR><BR></A></TD><br />
<TD><I>52</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16344000">810. Effects of the antifungal antibiotic clotrimazole on human cardiac repolarizatio <I>Br J Pharmacol</I><B> 0</B>: . (2005).<BR><BR></A></TD><br />
<TD><I>52</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16754261">811. Molecular characterization of two founder mutations causing long QT syndrome and <I>Ann Med</I><B> 38</B>: 294-304. (2006).<BR><BR></A></TD><br />
<TD><I>52</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16616004">812. A novel hypothesis for the binding mode of HERG channel blockers. <I>Biochem Biophys Res Commun</I><B> 344</B>: 72-8. (2006).<BR><BR></A></TD><br />
<TD><I>52</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17350840">813. Aryl sulfonamido indane inhibitors of the Kv1.5 ion channel. <I>Bioorg Med Chem Lett</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>52</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18414380">814. Inhibition of the rapid component of the delayed rectifier potassium current in ventricula <I>Br J Pharmacol</I><B> 0</B>: . (2008).<BR><BR></A></TD><br />
<TD><I>52</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15640612">815. Comparison of the effects of metoclopramide and domperidone on HERG channels. <I>Pharmacology</I><B> 74</B>: 31-6. (2005).<BR><BR></A></TD><br />
<TD><I>51</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15043509">816. Probucol aggravates long QT syndrome associated with a novel missense mutation M <I>Clin Sci (Lond)</I><B> 107</B>: 175-82. (2004).<BR><BR></A></TD><br />
<TD><I>51</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16633353">817. Blockade of HERG human K(+) channels and I(Kr) of guinea-pig cardiomyocytes by t <I>Br J Pharmacol</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>51</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18054910">818. Doxazosin induces apoptosis of cells expressing hERG K(+) channels. <I>Eur J Pharmacol</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>51</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15326917">819. Blockers of the Kv1.5 channel for the treatment of atrial arrhythmias. <I>Curr Med Chem Cardiovasc Hematol Agents</I><B> 1</B>: 273-87. (2003).<BR><BR></A></TD><br />
<TD><B>50.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15322737">820. Inhibition of cardiac HERG potassium channels by the atypical antidepressant tra <I>Naunyn Schmiedebergs Arch Pharmacol</I><B> 370</B>: 146-56. (2004).<BR><BR></A></TD><br />
<TD><I>50</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14674677">821. Characterization of the inhibitory effects of erythromycin and clarithromycin on <I>Mol Cell Biochem</I><B> 254</B>: 1-7. (2003).<BR><BR></A></TD><br />
<TD><B>50.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12618228">822. Effects of propafenone and its main metabolite, 5-hydroxypropafenone, on HERG ch <I>Cardiovasc Res</I><B> 57</B>: 660-9. (2003).<BR><BR></A></TD><br />
<TD><B>50.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12538844">823. Effects of irbesartan on cloned potassium channels involved in human cardiac rep <I>J Pharmacol Exp Ther</I><B> 304</B>: 862-73. (2003).<BR><BR></A></TD><br />
<TD><B>50.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12208779">824. Bertosamil blocks HERG potassium channels in their open and inactivated states. <I>Br J Pharmacol</I><B> 137</B>: 221-8. (2002).<BR><BR></A></TD><br />
<TD><B>50.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10503950">825. Nicotine depresses the functions of multiple cardiac potassium channels. <I>Life Sci</I><B> 65</B>: PL143-9. (1999).<BR><BR></A></TD><br />
<TD><I>50</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9535729">826. Long-term exposure to retinoic acid induces the expression of IRK1 channels in H <I>Biochem Biophys Res Commun</I><B> 244</B>: 706-11. (1998).<BR><BR></A></TD><br />
<TD><I>50</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17056009">827. hERG K(+) channel blockade by the antipsychotic drug thioridazine: An obligatory <I>Biochem Biophys Res Commun</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>50</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18209470">828. Cooperative Interactions Between R531 and Acidic Residues in the Voltage Sensing <I>Cell Physiol Biochem</I><B> 21</B>: 37-46. (2008).<BR><BR></A></TD><br />
<TD><I>50</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16050264">829. Does hERG coassemble with a beta subunit? Evidence for roles of MinK and MiRP1. <I>Novartis Found Symp</I><B> 266</B>: 100-12; discuss. (2005).<BR><BR></A></TD><br />
<TD><I>49</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16041196">830. A mechanism for the potential proarrhythmic effect of acidosis, bradycardia, and <I>Am J Ther</I><B> 12</B>: 328-36. (0).<BR><BR></A></TD><br />
<TD><I>49</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9476573">831. Molecular physiology of cardiac delayed rectifier K+ channels. <I>Heart Vessels</I><B> 0</B>: 170-2. (1997).<BR><BR></A></TD><br />
<TD><I>49</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15364405">832. Expression of ether à go-go potassium channels in human gliomas. <I>Neurosci Lett</I><B> 368</B>: 249-53. (2004).<BR><BR></A></TD><br />
<TD><I>48</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18184764">833. Erg K+ channels modulate contractile activity in the bovine epididymal duct. <I>Am J Physiol Regul Integr Comp Physiol</I><B> 0</B>: . (2008).<BR><BR></A></TD><br />
<TD><I>48</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16050271">834. Expression and role of hERG channels in cancer cells. <I>Novartis Found Symp</I><B> 266</B>: 225-32; discuss. (2005).<BR><BR></A></TD><br />
<TD><I>47</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16480714">835. Effects of estradiol on cardiac ion channel currents. <I>Eur J Pharmacol</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>47</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17956279">836. hERG channel trafficking: novel targets in drug-induced long QT syndrome. <I>Biochem Soc Trans</I><B> 35</B>: 1060-3. (2007).<BR><BR></A></TD><br />
<TD><I>47</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18074444">837. In-vitro experimental models for the risk assessment of antibiotic-induced QT pr <I>Eur J Pharmacol</I><B> 577</B>: 222-32. (2007).<BR><BR></A></TD><br />
<TD><I>47</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11524404">838. Long-QT syndrome-associated missense mutations in the pore helix of the HERG pot <I>Circulation</I><B> 104</B>: 1071-5. (2001).<BR><BR></A></TD><br />
<TD><B>46.7</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12634931">839. HERG K(+) currents in human prolactin-secreting adenoma cells. <I>Pflugers Arch</I><B> 445</B>: 589-600. (2003).<BR><BR></A></TD><br />
<TD><I>46</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11705456">840. Inhibition of depolarization-induced [3H]noradrenaline release from SH-SY5Y huma <I>Biochem Pharmacol</I><B> 62</B>: 1229-38. (2001).<BR><BR></A></TD><br />
<TD><I>46</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10370083">841. Blockade of HERG channels expressed in Xenopus oocytes by external H+. <I>Pflugers Arch</I><B> 438</B>: 23-9. (1999).<BR><BR></A></TD><br />
<TD><I>46</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16691421">842. Atypical tetracyclic antidepressant maprotiline is an antagonist at cardiac hERG <I>Naunyn Schmiedebergs Arch Pharmacol</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>46</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18468596">843. C101, a novel 4-amino-piperidine derivative selectively blocks N-type calcium channels. <I>Eur J Pharmacol</I><B> 0</B>: . (2008).<BR><BR></A></TD><br />
<TD><I>46</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10841244">844. Homozygosity for a HERG potassium channel mutation causes a severe form of long <I>J Am Coll Cardiol</I><B> 35</B>: 1919-25. (2000).<BR><BR></A></TD><br />
<TD><B>45.5</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=7788908">845. Genetic approaches to cardiovascular disease. Supravalvular aortic stenosis, Wil <I>Circulation</I><B> 92</B>: 142-7. (1995).<BR><BR></A></TD><br />
<TD><B>45.5</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11686910">846. Heart rate variability in patients with congenital long QT syndrome. <I>Ann Noninvasive Electrocardiol</I><B> 6</B>: 298-304. (2001).<BR><BR></A></TD><br />
<TD><I>45</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=8981426">847. A novel K+ channel blocker isolated from &#8216;hiccup nut&#8217; toxin. <I>Neuroreport</I><B> 7</B>: 2575-9. (1996).<BR><BR></A></TD><br />
<TD><I>45</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16550488">848. Interactions Between Charged Residues in the Transmembrane Segments of the Volta <I>J Membr Biol</I><B> 207</B>: 169-81. (2005).<BR><BR></A></TD><br />
<TD><I>45</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16736158">849. Atypical tetracyclic antidepressant maprotiline is an antagonist at cardiac hERG <I>Naunyn Schmiedebergs Arch Pharmacol</I><B> 373</B>: 212-20. (2006).<BR><BR></A></TD><br />
<TD><I>45</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15707699">850. Acute administration of alcohol modulates pyroglutamyl amino peptidase II activi <I>Neurochem Int</I><B> 46</B>: 347-56. (2005).<BR><BR></A></TD><br />
<TD><I>45</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11259532">851. Hydrogen peroxide modifies the kinetics of HERG channel expressed in a mammalian <I>J Pharmacol Exp Ther</I><B> 297</B>: 96-102. (2001).<BR><BR></A></TD><br />
<TD><B>44.4</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11484762">852. Inhibition of cardiac delayed rectifier K+ currents by an antisense oligodeoxynu <I>Pflugers Arch</I><B> 442</B>: 329-35. (2001).<BR><BR></A></TD><br />
<TD><I>44</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=8781206">853. Inhibition of IKs in guinea pig cardiac myocytes and guinea pig IsK channels by <I>Pflugers Arch</I><B> 432</B>: 1094-6. (1996).<BR><BR></A></TD><br />
<TD><I>44</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16467651">854. The functional HERG variant 897T is associated with Conn&#8217;s adenoma. <I>J Hypertens</I><B> 24</B>: 479-487. (2006).<BR><BR></A></TD><br />
<TD><I>44</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17010640">855. Electrophysiological effects of brompheniramine on cardiac ion channels and acti <I>Pharmacol Res</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>44</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17109852">856. The action of the novel gastrointestinal prokinetic prucalopride on the HERG K(+ <I>Eur J Pharmacol</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>44</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17762170">857. Sphingolipid metabolite ceramide causes metabolic perturbation contributing to H <I>Cell Physiol Biochem</I><B> 20</B>: 429-40. (2007).<BR><BR></A></TD><br />
<TD><I>44</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17762169">858. Phospholipid Lysophosphatidylcholine as a Metabolic Trigger and HERG as an Ionic <I>Cell Physiol Biochem</I><B> 20</B>: 417-28. (2007).<BR><BR></A></TD><br />
<TD><I>44</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12466946">859. Biophysical properties of heteromultimeric erg K+ channels. <I>Pflugers Arch</I><B> 445</B>: 423-30. (2002).<BR><BR></A></TD><br />
<TD><I>43</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16860311">860. Blockade of HERG human K(+) channel and I(Kr) of guinea pig cardiomyocytes by pr <I>Eur J Pharmacol</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>43</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16931010">861. Inhibitory effect of carboxylic acid group on hERG binding. <I>Bioorg Med Chem Lett</I><B> 16</B>: 5507-12. (2006).<BR><BR></A></TD><br />
<TD><I>43</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12775973">862. Risperidone prolongs cardiac repolarization by blocking the rapid component of t <I>J Cardiovasc Pharmacol</I><B> 41</B>: 934-7. (2003).<BR><BR></A></TD><br />
<TD><B>42.9</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12771193">863. Saxitoxin is a gating modifier of HERG K+ channels. <I>J Gen Physiol</I><B> 121</B>: 583-98. (2003).<BR><BR></A></TD><br />
<TD><B>42.9</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11736694">864. Effects of different types of K+ channel modulators on the spontaneous myogenic <I>Acta Physiol Scand</I><B> 173</B>: 323-33. (2001).<BR><BR></A></TD><br />
<TD><B>42.9</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11723012">865. Phospholipid metabolite 1-palmitoyl-lysophosphatidylcholine enhances human ether <I>Circulation</I><B> 104</B>: 2645-8. (2001).<BR><BR></A></TD><br />
<TD><B>42.9</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10844385">866. Changes in the mRNA levels of delayed rectifier potassium channels in human atri <I>Cardiology</I><B> 92</B>: 248-55. (1999).<BR><BR></A></TD><br />
<TD><B>42.3</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9359911">867. Demonstration of an inwardly rectifying K+ current component modulated by thyrot <I>Pflugers Arch</I><B> 435</B>: 119-29. (1997).<BR><BR></A></TD><br />
<TD><I>42</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17965852">868. Anticholinergic antiparkinson drug orphenadrine inhibits HERG channels: block at <I>Naunyn Schmiedebergs Arch Pharmacol</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>42</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18329284">869. The hERG K(+) channel: target and antitarget strategies in drug development. <I>Pharmacol Res</I><B> 0</B>: . (2008).<BR><BR></A></TD><br />
<TD><I>42</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10565858">870. Use-dependent &#8216;agonist&#8217; effect of azimilide on the HERG channel. <I>J Pharmacol Exp Ther</I><B> 291</B>: 1324-36. (1999).<BR><BR></A></TD><br />
<TD><B>41.7</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16337121">871. Synthesis and SAR of 1,2-trans-(1-hydroxy-3-phenylprop-1-yl)cyclopentane carboxa <I>Bioorg Med Chem Lett</I><B> 0</B>: . (2005).<BR><BR></A></TD><br />
<TD><I>41</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16908150">872. Ureas with histamine H3-antagonist receptor activity&#8211;a new scaffold discovered <I>Bioorg Med Chem Lett</I><B> 16</B>: 5303-8. (2006).<BR><BR></A></TD><br />
<TD><I>41</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16753297">873. Bicyclo[3.1.0]hexyl urea melanin concentrating hormone (MCH) receptor-1 antagoni <I>Bioorg Med Chem Lett</I><B> 16</B>: 4262-5. (2006).<BR><BR></A></TD><br />
<TD><I>41</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17562364">874. Discovery of 3-aminopiperidines as potent, selective, and orally bioavailable di <I>Bioorg Med Chem Lett</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>41</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12883317">875. Verapamil, a Ca2+ entry blocker, targets the pore-forming subunit of cardiac typ <I>J Cardiovasc Pharmacol</I><B> 42</B>: 161-8. (2003).<BR><BR></A></TD><br />
<TD><B>40.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12029369">876. Influence of amino-terminal structures on kinetic transitions between several cl <I>J Membr Biol</I><B> 187</B>: 117-33. (2002).<BR><BR></A></TD><br />
<TD><I>40</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9714291">877. Human ether-a-gogo related gene (HERG) K+ channels as pharmacological targets: p <I>Biochem Pharmacol</I><B> 55</B>: 1741-6. (1998).<BR><BR></A></TD><br />
<TD><I>40</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9268220">878. Comparative effects of loratadine and terfenadine on cardiac K+ channels. <I>J Cardiovasc Pharmacol</I><B> 30</B>: 42-54. (1997).<BR><BR></A></TD><br />
<TD><I>40</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16423345">879. Inhibition of cardiac HERG potassium channels by antidepressant maprotiline. <I>Eur J Pharmacol</I><B> 0</B>: . (2006).<BR><BR></A></TD><br />
<TD><I>40</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17766106">880. Discovery of (-)-6-[2-[4-(3-fluorophenyl)-4-hydroxy-1-piperidinyl]-1-hydroxyethy <I>Bioorg Med Chem Lett</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>40</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10388757">881. Proton and zinc effects on HERG currents. <I>Biophys J</I><B> 77</B>: 282-98. (1999).<BR><BR></A></TD><br />
<TD><B>39.1</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17042915">882. ALTERING EXTRACELLULAR POTASSIUM CONCENTRATION DOES NOT MODULATE DRUG BLOCK OF H <I>Clin Exp Pharmacol Physiol</I><B> 33</B>: 1059-65. (2006).<BR><BR></A></TD><br />
<TD><I>39</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16528290">883. JNJ-10280205 and JNJ-10287069: Novel PDE5 inhibitors as clinical candidates for <I>Int J Impot Res</I><B> 18</B>: 477-83. (0).<BR><BR></A></TD><br />
<TD><I>39</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17768047">884. Discovery of novel and orally active NR2B-selective N-methyl-d-aspartate (NMDA) <I>Bioorg Med Chem Lett</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>39</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18176799">885. Effects of duramycin on cardiac voltage-gated ion channels. <I>Naunyn Schmiedebergs Arch Pharmacol</I><B> 0</B>: . (2008).<BR><BR></A></TD><br />
<TD><I>39</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11334843">886. Non-invasive testing of acquired long QT syndrome: evidence for multiple arrhyth <I>Cardiovasc Res</I><B> 50</B>: 386-98. (2001).<BR><BR></A></TD><br />
<TD><B>38.9</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11907818">887. Dofetilide block involves interactions with open and inactivated states of HERG <I>Pflugers Arch</I><B> 443</B>: 520-31. (2002).<BR><BR></A></TD><br />
<TD><B>38.5</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10394001">888. Effect of verapamil enantiomers and metabolites on cardiac K+ channels expressed <I>Cell Physiol Biochem</I><B> 9</B>: 81-9. (1999).<BR><BR></A></TD><br />
<TD><B>38.5</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10398876">889. Modulation of HERG potassium channel properties by external pH. <I>Pflugers Arch</I><B> 438</B>: 419-22. (1999).<BR><BR></A></TD><br />
<TD><I>38</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15952036">890. Asymmetrical distribution of ion channels in canine and human left-ventricular w <I>Pflugers Arch</I><B> 450</B>: 307-16. (2005).<BR><BR></A></TD><br />
<TD><I>37</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11104572">891. HERG potassium channels are more frequently expressed in human endometrial cance <I>Br J Cancer</I><B> 83</B>: 1722-9. (2000).<BR><BR></A></TD><br />
<TD><I>37</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18092154">892. Electrophysiological profile of propiverine &#8211; relationship to cardiac risk. <I>Naunyn Schmiedebergs Arch Pharmacol</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>37</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11050278">893. Current concepts in long QT syndrome. <I>Pediatr Cardiol</I><B> 21</B>: 542-50. (0).<BR><BR></A></TD><br />
<TD><B>36.7</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16325148">894. Block of hERG channel by ziprasidone: Biophysical properties and molecular deter <I>Biochem Pharmacol</I><B> 0</B>: . (2005).<BR><BR></A></TD><br />
<TD><I>36</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16495758">895. Flunarizine is a Highly Potent Inhibitor of Cardiac hERG Potassium Current. <I>J Cardiovasc Pharmacol</I><B> 47</B>: 211-20. (2006).<BR><BR></A></TD><br />
<TD><I>36</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16757170">896. Discovery of 4-substituted-8-(2-hydroxy-2-phenyl-cyclohexyl)-2,8-diaza-spiro[4.5 <I>Bioorg Med Chem Lett</I><B> 16</B>: 4311-5. (2006).<BR><BR></A></TD><br />
<TD><I>35</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17624316">897. Functional consequences of methionine oxidation of hERG potassium channels. <I>Biochem Pharmacol</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>35</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17763876">898. HERG1 Currents in Native K562 Leukemic Cells. <I>J Membr Biol</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>35</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=17826747">899. The membrane permeable calcium chelator BAPTA-AM directly blocks human ether a-g <I>Biochem Pharmacol</I><B> 0</B>: . (2007).<BR><BR></A></TD><br />
<TD><I>35</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10413451">900. Modulation of HERG current and herg gene expression during retinoic acid treatme <I>J Neurobiol</I><B> 40</B>: 214-25. (1999).<BR><BR></A></TD><br />
<TD><B>34.8</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12960687">901. Effects of Na+ channel blocker, pilsicainide, on HERG current expressed in HEK-2 <I>J Cardiovasc Pharmacol</I><B> 42</B>: 410-8. (2003).<BR><BR></A></TD><br />
<TD><I>34</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15098086">902. Inhibition of human ether-a-go-go-related gene potassium channels by alpha 1-adr <I>Naunyn Schmiedebergs Arch Pharmacol</I><B> 369</B>: 462-72. (2004).<BR><BR></A></TD><br />
<TD><B>33.3</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14742731">903. Single-channel recordings of a rapid delayed rectifier current in adult mouse ve <I>J Physiol</I><B> 556</B>: 401-13. (2004).<BR><BR></A></TD><br />
<TD><B>33.3</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12027905">904. Embryonic arrhythmia by inhibition of HERG channels: a common hypoxia-related te <I>Epilepsia</I><B> 43</B>: 457-68. (2002).<BR><BR></A></TD><br />
<TD><B>33.3</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11527377">905. Long-term modulation of HERG channel gating in hypoxia. <I>Biochem Biophys Res Commun</I><B> 286</B>: 857-62. (2001).<BR><BR></A></TD><br />
<TD><B>33.3</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11511086">906. The antipsychotic drugs sertindole and pimozide block erg3, a human brain K(+) c <I>Biochem Biophys Res Commun</I><B> 286</B>: 499-504. (2001).<BR><BR></A></TD><br />
<TD><B>33.3</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11259627">907. Direct effects of candesartan and eprosartan on human cloned potassium channels <I>Mol Pharmacol</I><B> 59</B>: 825-36. (2001).<BR><BR></A></TD><br />
<TD><B>33.3</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11170080">908. Bradycardia-induced long QT syndrome caused by a de novo missense mutation in th <I>Am J Med Genet</I><B> 98</B>: 348-52. (2001).<BR><BR></A></TD><br />
<TD><B>33.3</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=18475200">909. Additive Effects of Combined Application of Multiple hERG Blockers. <I>J Cardiovasc Pharmacol</I><B> 0</B>: . (2008).<BR><BR></A></TD><br />
<TD><I>33</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16424781">910. Block of HERG channels by berberine: mechanisms of voltage- and state-dependence <I>J Cardiovasc Pharmacol</I><B> 47</B>: 21-9. (2006).<BR><BR></A></TD><br />
<TD><I>32</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10996323">911. Characterization of S818L mutation in HERG C-terminus in LQT2. Modification of a <I>FEBS Lett</I><B> 481</B>: 197-203. (2000).<BR><BR></A></TD><br />
<TD><B>31.8</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=7586228">912. Cloned human inward rectifier K+ channel as a target for class III methanesulfon <I>Circ Res</I><B> 77</B>: 1151-5. (1995).<BR><BR></A></TD><br />
<TD><B>31.4</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10096894">913. Blockade of HERG channels expressed in Xenopus laevis oocytes by external divale <I>Biophys J</I><B> 76</B>: 1959-71. (1999).<BR><BR></A></TD><br />
<TD><B>30.8</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15500450">914. Compound heterozygosity for mutations Asp611--&gt;Tyr in KCNQ1 and Asp609--&gt;Gly in <I>Clin Sci (Lond)</I><B> 108</B>: 143-50. (2005).<BR><BR></A></TD><br />
<TD><I>30</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12065732">915. Open channel block by KCB-328 [1-(2-amino-4-methanesulfonamidophenoxy)-2-[N-(3,4 <I>J Pharmacol Exp Ther</I><B> 302</B>: 314-9. (2002).<BR><BR></A></TD><br />
<TD><B>30.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12063277">916. Role of glycosylation in cell surface expression and stability of HERG potassium <I>Am J Physiol Heart Circ Physiol</I><B> 283</B>: H77-84. (2002).<BR><BR></A></TD><br />
<TD><B>30.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10444235">917. Cardiac ion channels and antihistamines: possible mechanisms of cardiotoxicity. <I>Clin Exp Allergy</I><B> 29</B>: 182-9. (1999).<BR><BR></A></TD><br />
<TD><I>29</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16938156">918. Inhibition of HERG channels by the local anaesthetic articaine. <I>Eur J Anaesthesiol</I><B> 0</B>: 1-6. (2006).<BR><BR></A></TD><br />
<TD><I>29</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14614905">919. Spinal circuits formation: a study of developmentally regulated markers in organ <I>Neuroscience</I><B> 122</B>: 391-405. (2003).<BR><BR></A></TD><br />
<TD><B>28.6</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12875428">920. Block of HERG-carried K+ currents by the new repolarization delaying agent H 345 <I>J Cardiovasc Electrophysiol</I><B> 14</B>: 651-8. (2003).<BR><BR></A></TD><br />
<TD><B>28.6</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12736144">921. Expression and function of KCNH2 (HERG) in the human jejunum. <I>Am J Physiol Gastrointest Liver Physiol</I><B> 284</B>: G883-95. (2003).<BR><BR></A></TD><br />
<TD><B>28.6</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12621127">922. Clinical, genetic, and biophysical characterization of a homozygous HERG mutatio <I>Pediatr Res</I><B> 53</B>: 744-8. (2003).<BR><BR></A></TD><br />
<TD><B>28.6</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11602243">923. An amino acid residue whose change by mutation affects drug binding to the HERG <I>FEBS Lett</I><B> 506</B>: 191-5. (2001).<BR><BR></A></TD><br />
<TD><B>28.6</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15168062">924. Block of HERG current expressed in HEK293 cells by the Na+-channel blocker ciben <I>Heart Vessels</I><B> 19</B>: 137-43. (2004).<BR><BR></A></TD><br />
<TD><I>28</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=9607937">925. Idiosyncratic gating of HERG-like K+ channels in microglia. <I>J Gen Physiol</I><B> 111</B>: 795-805. (1998).<BR><BR></A></TD><br />
<TD><B>27.3</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10191308">926. Functional analysis of a mouse brain Elk-type K+ channel. <I>J Neurosci</I><B> 19</B>: 2906-18. (1999).<BR><BR></A></TD><br />
<TD><B>26.9</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10632580">927. Ultrafast inactivation causes inward rectification in a voltage-gated K(+) chann <I>J Neurosci</I><B> 20</B>: 511-20. (2000).<BR><BR></A></TD><br />
<TD><B>26.1</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10484431">928. Inactivation gating determines nicotine blockade of human HERG channels. <I>Am J Physiol</I><B> 277</B>: H1081-8. (1999).<BR><BR></A></TD><br />
<TD><B>26.1</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16960444">929. The Effect of High Extracellular Potassium on IKr Inhibition by Anti-Arrhythmic <I>Cardiology</I><B> 108</B>: 18-27. (2006).<BR><BR></A></TD><br />
<TD><I>26</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=16375754">930. QT interval prolongation: and the beat goes on. <I>Mini Rev Med Chem</I><B> 5</B>: 1083-91. (2005).<BR><BR></A></TD><br />
<TD><I>26</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15090241">931. Characterization of potassium channel modulators with QPatch automated patch-cla <I>Assay Drug Dev Technol</I><B> 1</B>: 685-93. (2003).<BR><BR></A></TD><br />
<TD><B>25.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15076220">932. The utility of hERG and repolarization assays in evaluating delayed cardiac repo <I>J Cardiovasc Pharmacol</I><B> 43</B>: 369-79. (2004).<BR><BR></A></TD><br />
<TD><B>25.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14975710">933. Differential effect of HERG blocking agents on cardiac electrical alternans in t <I>Eur J Pharmacol</I><B> 486</B>: 209-21. (2004).<BR><BR></A></TD><br />
<TD><B>25.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14744814">934. Potential mechanisms for the enhancement of HERG K+ channel function by phosphol <I>Br J Pharmacol</I><B> 141</B>: 586-99. (2004).<BR><BR></A></TD><br />
<TD><B>25.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14711935">935. Cardiac ion channel effects of tolterodine. <I>J Pharmacol Exp Ther</I><B> 308</B>: 935-40. (2004).<BR><BR></A></TD><br />
<TD><B>25.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14599291">936. BmTx3, a scorpion toxin with two putative functional faces separately active on <I>Biochem J</I><B> 378</B>: 745-52. (2004).<BR><BR></A></TD><br />
<TD><B>25.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14576514">937. Differential recovery of action potential duration and HERG currents from the ef <I>J Cardiovasc Pharmacol</I><B> 42</B>: 648-55. (2003).<BR><BR></A></TD><br />
<TD><B>25.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12905030">938. A radiolabeled peptide ligand of the hERG channel, [125I]-BeKm-1. <I>Pflugers Arch</I><B> 447</B>: 55-63. (2003).<BR><BR></A></TD><br />
<TD><B>25.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12593854">939. A HERG current sustains a cardiac-type action potential in neuroblastoma S cells <I>Biochem Biophys Res Commun</I><B> 302</B>: 101-8. (2003).<BR><BR></A></TD><br />
<TD><B>25.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10584556">940. Genetic variation affecting heart rate in Drosophila melanogaster. <I>Genet Res</I><B> 74</B>: 121-8. (1999).<BR><BR></A></TD><br />
<TD><B>25.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10444234">941. Arrhythmogenic mechanisms of non-sedating antihistamines. <I>Clin Exp Allergy</I><B> 29</B>: 174-81. (1999).<BR><BR></A></TD><br />
<TD><I>25</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11756457">942. Histidines 578 and 587 in the S5-S6 linker of the human Ether-a-gogo Related Gen <I>J Biol Chem</I><B> 277</B>: 8912-9. (2002).<BR><BR></A></TD><br />
<TD><B>23.1</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10354437">943. Effects of outer mouth mutations on hERG channel function: a comparison with sim <I>Biophys J</I><B> 76</B>: 3128-40. (1999).<BR><BR></A></TD><br />
<TD><B>23.1</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10790218">944. Analysis of the human KCNH2(HERG) gene: identification and characterization of a <I>Hum Mutat</I><B> 15</B>: 483. (2000).<BR><BR></A></TD><br />
<TD><B>22.7</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12460639">945. Inhibitory effect of the class III antiarrhythmic drug nifekalant on HERG channe <I>Eur J Pharmacol</I><B> 457</B>: 19-27. (2002).<BR><BR></A></TD><br />
<TD><B>22.2</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12359267">946. Fenamate-induced enhancement of heterologously expressed HERG currents in Xenopu <I>Eur J Pharmacol</I><B> 452</B>: 269-77. (2002).<BR><BR></A></TD><br />
<TD><B>22.2</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11804397">947. Effects of the class III antiarrhythmic agent dofetilide (UK-68,798) on L-type c <I>J Pharm Pharmacol</I><B> 53</B>: 1671-8. (2001).<BR><BR></A></TD><br />
<TD><I>22</I></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12176129">948. The anti-malarial drug halofantrine and its metabolite N-desbutylhalofantrine bl <I>Cardiovasc Res</I><B> 55</B>: 799-805. (2002).<BR><BR></A></TD><br />
<TD><B>20.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10652186">949. Effects of external acidosis on HERG current expressed in Xenopus oocytes. <I>J Mol Cell Cardiol</I><B> 32</B>: 11-21. (2000).<BR><BR></A></TD><br />
<TD><B>17.4</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12062363">950. Characterization of a novel missense mutation E637K in the pore-S6 loop of HERG <I>Cardiovasc Res</I><B> 54</B>: 67-76. (2002).<BR><BR></A></TD><br />
<TD><B>16.7</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=11417212">951. Molecular cloning and expression of cERG, the ether à go-go-related gene from c <I>Pflugers Arch</I><B> 442</B>: 188-91. (2001).<BR><BR></A></TD><br />
<TD><B>16.7</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=14716075">952. Functionally-distinct proton-binding in HERG suggests the presence of two bindin <I>Cell Biochem Biophys</I><B> 39</B>: 183-93. (2003).<BR><BR></A></TD><br />
<TD><B>14.3</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12740430">953. Inhibition of HERG K+ current and prolongation of the guinea-pig ventricular act <I>J Physiol</I><B> 549</B>: 667-72. (2003).<BR><BR></A></TD><br />
<TD><B>14.3</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12626667">954. Modulation of human ether-à-go-go-related K+ (HERG) channel inactivation by Cs+ <I>J Physiol</I><B> 548</B>: 691-702. (2003).<BR><BR></A></TD><br />
<TD><B>14.3</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10828461">955. Redox state dependency of HERGS631C channel pharmacology: relation to C-type ina <I>FEBS Lett</I><B> 474</B>: 111-5. (2000).<BR><BR></A></TD><br />
<TD><B>13.6</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=10735633">956. Long QT syndrome with a high mortality rate caused by a novel G572R missense mut <I>Clin Genet</I><B> 57</B>: 125-30. (2000).<BR><BR></A></TD><br />
<TD><B>13.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=12948624">957. Phenytoin and phenobarbital inhibit human HERG potassium channels. <I>Epilepsy Res</I><B> 55</B>: 147-57. (0).<BR><BR></A></TD><br />
<TD><B>10.0</B></TD><br />
</TR><br />
<TR><br />
<TD><A href="http://neurobiosis.wordpress.com/wp-admin/showabstract.php?pmid=15534720">958. Beta-blocker therapy failures in symptomatic probands with genotyped long-QT syn <I>Pediatr Cardiol</I><B> 25</B>: 459-65. (0).<BR><BR></A></TD><br />
<TD><B>3.3</B></TD><br />
</TR><br />
</TBODY><br />
</TABLE><br />
<P><BR></P></p>
<br /><img alt="" border="0" src="http://feeds.wordpress.com/1.0/categories/neurobiosis.wordpress.com/32/" /> <img alt="" border="0" src="http://feeds.wordpress.com/1.0/tags/neurobiosis.wordpress.com/32/" /> <a rel="nofollow" href="http://feeds.wordpress.com/1.0/gocomments/neurobiosis.wordpress.com/32/"><img alt="" border="0" src="http://feeds.wordpress.com/1.0/comments/neurobiosis.wordpress.com/32/" /></a> <a rel="nofollow" href="http://feeds.wordpress.com/1.0/godelicious/neurobiosis.wordpress.com/32/"><img alt="" border="0" src="http://feeds.wordpress.com/1.0/delicious/neurobiosis.wordpress.com/32/" /></a> <a rel="nofollow" href="http://feeds.wordpress.com/1.0/gofacebook/neurobiosis.wordpress.com/32/"><img alt="" border="0" src="http://feeds.wordpress.com/1.0/facebook/neurobiosis.wordpress.com/32/" /></a> <a rel="nofollow" href="http://feeds.wordpress.com/1.0/gotwitter/neurobiosis.wordpress.com/32/"><img alt="" border="0" src="http://feeds.wordpress.com/1.0/twitter/neurobiosis.wordpress.com/32/" /></a> <a rel="nofollow" href="http://feeds.wordpress.com/1.0/gostumble/neurobiosis.wordpress.com/32/"><img alt="" border="0" src="http://feeds.wordpress.com/1.0/stumble/neurobiosis.wordpress.com/32/" /></a> <a rel="nofollow" href="http://feeds.wordpress.com/1.0/godigg/neurobiosis.wordpress.com/32/"><img alt="" border="0" src="http://feeds.wordpress.com/1.0/digg/neurobiosis.wordpress.com/32/" /></a> <a rel="nofollow" href="http://feeds.wordpress.com/1.0/goreddit/neurobiosis.wordpress.com/32/"><img alt="" border="0" src="http://feeds.wordpress.com/1.0/reddit/neurobiosis.wordpress.com/32/" /></a> <img alt="" border="0" src="http://stats.wordpress.com/b.gif?host=neurobiosis.wordpress.com&amp;blog=1383715&amp;post=32&amp;subd=neurobiosis&amp;ref=&amp;feed=1" width="1" height="1" />]]></content:encoded>
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			<media:title type="html">ssamrat</media:title>
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	</item>
		<item>
		<title>GLIOMA RESEARCH PROJECT</title>
		<link>http://neurobiosis.wordpress.com/2007/11/20/glioma-research-project/</link>
		<comments>http://neurobiosis.wordpress.com/2007/11/20/glioma-research-project/#comments</comments>
		<pubDate>Tue, 20 Nov 2007 19:28:58 +0000</pubDate>
		<dc:creator>Samrat Roy</dc:creator>
				<category><![CDATA[Glioma Research Project]]></category>

		<guid isPermaLink="false">http://neurobiosis.wordpress.com/2007/11/20/glioma-research-project/</guid>
		<description><![CDATA[Project : Clues to new aspects of Gliomas. Methods: Research article curation and building a database. Are you interested to know the details and be a part of it ? Mail ssamrat@gmail.com the following details: Name: Age: Address(home) : Address(office) : Telephone Number(home) : Telephone Number(office) : Current Designation : Programming skills : Whether willing [...]<img alt="" border="0" src="http://stats.wordpress.com/b.gif?host=neurobiosis.wordpress.com&amp;blog=1383715&amp;post=29&amp;subd=neurobiosis&amp;ref=&amp;feed=1" width="1" height="1" />]]></description>
			<content:encoded><![CDATA[<p><strong>Project </strong>: Clues to new aspects of Gliomas.</p>
<p><strong>Methods:</strong> Research article curation and building a database.</p>
<p>Are you interested to know the details and be a part of it ? Mail ssamrat@gmail.com the following details:</p>
<p>Name:</p>
<p>Age:</p>
<p>Address(home) :</p>
<p>Address(office) :</p>
<p>Telephone Number(home) :</p>
<p>Telephone Number(office) :</p>
<p>Current Designation :</p>
<p>Programming skills :</p>
<p>Whether willing to sign a declaration for Confidentiality?</p>
<br /><img alt="" border="0" src="http://feeds.wordpress.com/1.0/categories/neurobiosis.wordpress.com/29/" /> <img alt="" border="0" src="http://feeds.wordpress.com/1.0/tags/neurobiosis.wordpress.com/29/" /> <a rel="nofollow" href="http://feeds.wordpress.com/1.0/gocomments/neurobiosis.wordpress.com/29/"><img alt="" border="0" src="http://feeds.wordpress.com/1.0/comments/neurobiosis.wordpress.com/29/" /></a> <a rel="nofollow" href="http://feeds.wordpress.com/1.0/godelicious/neurobiosis.wordpress.com/29/"><img alt="" border="0" src="http://feeds.wordpress.com/1.0/delicious/neurobiosis.wordpress.com/29/" /></a> <a rel="nofollow" href="http://feeds.wordpress.com/1.0/gofacebook/neurobiosis.wordpress.com/29/"><img alt="" border="0" src="http://feeds.wordpress.com/1.0/facebook/neurobiosis.wordpress.com/29/" /></a> <a rel="nofollow" href="http://feeds.wordpress.com/1.0/gotwitter/neurobiosis.wordpress.com/29/"><img alt="" border="0" src="http://feeds.wordpress.com/1.0/twitter/neurobiosis.wordpress.com/29/" /></a> <a rel="nofollow" href="http://feeds.wordpress.com/1.0/gostumble/neurobiosis.wordpress.com/29/"><img alt="" border="0" src="http://feeds.wordpress.com/1.0/stumble/neurobiosis.wordpress.com/29/" /></a> <a rel="nofollow" href="http://feeds.wordpress.com/1.0/godigg/neurobiosis.wordpress.com/29/"><img alt="" border="0" src="http://feeds.wordpress.com/1.0/digg/neurobiosis.wordpress.com/29/" /></a> <a rel="nofollow" href="http://feeds.wordpress.com/1.0/goreddit/neurobiosis.wordpress.com/29/"><img alt="" border="0" src="http://feeds.wordpress.com/1.0/reddit/neurobiosis.wordpress.com/29/" /></a> <img alt="" border="0" src="http://stats.wordpress.com/b.gif?host=neurobiosis.wordpress.com&amp;blog=1383715&amp;post=29&amp;subd=neurobiosis&amp;ref=&amp;feed=1" width="1" height="1" />]]></content:encoded>
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		<slash:comments>0</slash:comments>
	
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			<media:title type="html">ssamrat</media:title>
		</media:content>
	</item>
		<item>
		<title>Brain facts and figures</title>
		<link>http://neurobiosis.wordpress.com/2007/11/01/brain-facts-and-figures/</link>
		<comments>http://neurobiosis.wordpress.com/2007/11/01/brain-facts-and-figures/#comments</comments>
		<pubDate>Thu, 01 Nov 2007 05:06:28 +0000</pubDate>
		<dc:creator>Samrat Roy</dc:creator>
				<category><![CDATA[Basic Neuroscience]]></category>

		<guid isPermaLink="false">http://neurobiosis.wordpress.com/2007/11/01/brain-facts-and-figures/</guid>
		<description><![CDATA[BRAIN NEURON SPINAL CORD SENSORY APPARATUS BLOOD SUPPLY<img alt="" border="0" src="http://stats.wordpress.com/b.gif?host=neurobiosis.wordpress.com&amp;blog=1383715&amp;post=27&amp;subd=neurobiosis&amp;ref=&amp;feed=1" width="1" height="1" />]]></description>
			<content:encoded><![CDATA[<table border="0" cellpadding="20">
<tr>
<td align="center"><a href="http://faculty.washington.edu/chudler/facts.html#brain">BRAIN<br />
<img src="http://faculty.washington.edu/chudler/gif/brcov.gif" height="77" width="85" /></a></td>
<td align="center"><a href="http://faculty.washington.edu/chudler/facts.html#neuron">NEURON<br />
<img src="http://faculty.washington.edu/chudler/gif/di2.gif" height="62" width="75" /></a></td>
<td rowspan="2" align="center"><a href="http://faculty.washington.edu/chudler/facts.html#spinal">SPINAL CORD<br />
<img src="http://faculty.washington.edu/chudler/gif/vert2.gif" height="155" width="90" /></a></td>
</tr>
<tr>
<td align="center"><a href="http://faculty.washington.edu/chudler/facts.html#sensory">SENSORY APPARATUS<br />
<img src="http://faculty.washington.edu/chudler/gif/meye2.jpg" height="75" width="100" /></a></td>
<td align="center"><a href="http://faculty.washington.edu/chudler/facts.html#blood">BLOOD SUPPLY<br />
<img src="http://faculty.washington.edu/chudler/gif/circlew.gif" height="82" width="66" /></a></td>
</tr>
</table>
<br /><img alt="" border="0" src="http://feeds.wordpress.com/1.0/categories/neurobiosis.wordpress.com/27/" /> <img alt="" border="0" src="http://feeds.wordpress.com/1.0/tags/neurobiosis.wordpress.com/27/" /> <a rel="nofollow" href="http://feeds.wordpress.com/1.0/gocomments/neurobiosis.wordpress.com/27/"><img alt="" border="0" src="http://feeds.wordpress.com/1.0/comments/neurobiosis.wordpress.com/27/" /></a> <a rel="nofollow" href="http://feeds.wordpress.com/1.0/godelicious/neurobiosis.wordpress.com/27/"><img alt="" border="0" src="http://feeds.wordpress.com/1.0/delicious/neurobiosis.wordpress.com/27/" /></a> <a rel="nofollow" href="http://feeds.wordpress.com/1.0/gofacebook/neurobiosis.wordpress.com/27/"><img alt="" border="0" src="http://feeds.wordpress.com/1.0/facebook/neurobiosis.wordpress.com/27/" /></a> <a rel="nofollow" href="http://feeds.wordpress.com/1.0/gotwitter/neurobiosis.wordpress.com/27/"><img alt="" border="0" src="http://feeds.wordpress.com/1.0/twitter/neurobiosis.wordpress.com/27/" /></a> <a rel="nofollow" href="http://feeds.wordpress.com/1.0/gostumble/neurobiosis.wordpress.com/27/"><img alt="" border="0" src="http://feeds.wordpress.com/1.0/stumble/neurobiosis.wordpress.com/27/" /></a> <a rel="nofollow" href="http://feeds.wordpress.com/1.0/godigg/neurobiosis.wordpress.com/27/"><img alt="" border="0" src="http://feeds.wordpress.com/1.0/digg/neurobiosis.wordpress.com/27/" /></a> <a rel="nofollow" href="http://feeds.wordpress.com/1.0/goreddit/neurobiosis.wordpress.com/27/"><img alt="" border="0" src="http://feeds.wordpress.com/1.0/reddit/neurobiosis.wordpress.com/27/" /></a> <img alt="" border="0" src="http://stats.wordpress.com/b.gif?host=neurobiosis.wordpress.com&amp;blog=1383715&amp;post=27&amp;subd=neurobiosis&amp;ref=&amp;feed=1" width="1" height="1" />]]></content:encoded>
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		<slash:comments>0</slash:comments>
	
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			<media:title type="html">ssamrat</media:title>
		</media:content>

		<media:content url="http://faculty.washington.edu/chudler/gif/brcov.gif" medium="image" />

		<media:content url="http://faculty.washington.edu/chudler/gif/di2.gif" medium="image" />

		<media:content url="http://faculty.washington.edu/chudler/gif/vert2.gif" medium="image" />

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	</item>
		<item>
		<title>Neuroscience Online  Exams and Tutorials</title>
		<link>http://neurobiosis.wordpress.com/2007/10/17/neuroscience-online-exams-and-tutorials/</link>
		<comments>http://neurobiosis.wordpress.com/2007/10/17/neuroscience-online-exams-and-tutorials/#comments</comments>
		<pubDate>Wed, 17 Oct 2007 04:52:18 +0000</pubDate>
		<dc:creator>Samrat Roy</dc:creator>
				<category><![CDATA[Neuroscience Tutorials]]></category>

		<guid isPermaLink="false">http://neurobiosis.wordpress.com/2007/10/17/neuroscience-online-exams-and-tutorials/</guid>
		<description><![CDATA[Biology Genes Glossary, prefixes, terms, etc. Research Computers Medicine Neurology Cases Neuroscience Anatomy and Physiology Brain and Central Nervous System Diseases Drugs Neurotransmitters (NT) Senses Non-human Philosophy Psychology Teaching Books Courses Lectures Techniques (including Diagnosis and Concepts) Gratefull to Prof. Neil A.Busis, Chief, Division of Neurology, UPMC Shadyside, Pittsburgh, Pennsylvania for providing this tutorial.<img alt="" border="0" src="http://stats.wordpress.com/b.gif?host=neurobiosis.wordpress.com&amp;blog=1383715&amp;post=26&amp;subd=neurobiosis&amp;ref=&amp;feed=1" width="1" height="1" />]]></description>
			<content:encoded><![CDATA[<ul>
<li><a href="http://www.neuroguide.com/neuroresac_3_biology.html#biology">Biology</a>
<ul>
<li><a href="http://www.neuroguide.com/neuroresac_3_biology_genes.html#genes">Genes</a></li>
<li><a href="http://www.neuroguide.com/neuroresac_3_biology_glossary.html#glossary">Glossary, prefixes, terms, etc.</a></li>
<li><a href="http://www.neuroguide.com/neuroresac_3_biology_research.html#research">Research</a></li>
</ul>
</li>
<li><a href="http://www.neuroguide.com/neuroresac_3_computers.html#computers">Computers</a></li>
<li><a href="http://www.neuroguide.com/neuroresac_3_medicine.html#medicine">Medicine</a></li>
<li><a href="http://www.neuroguide.com/neuroresac_3_neurology.html#neurology">Neurology</a>
<ul>
<li><a href="http://www.neuroguide.com/neuroresac_3_neurology_cases.html#cases">Cases</a></li>
</ul>
</li>
<li><a href="http://www.neuroguide.com/neuroresac_3_neuroscience.html#neuroscience">Neuroscience</a>
<ul>
<li><a href="http://www.neuroguide.com/neuroresac_3_neuroscience_anatomy.html#anatomy">Anatomy and Physiology</a></li>
<li><a href="http://www.neuroguide.com/neuroresac_3_neuroscience_brain.html#brain">Brain and Central Nervous System</a></li>
<li><a href="http://www.neuroguide.com/neuroresac_3_neuroscience_diseases.html#diseases">Diseases</a></li>
<li><a href="http://www.neuroguide.com/neuroresac_3_neuroscience_drugs.html#drugs">Drugs</a></li>
<li><a href="http://www.neuroguide.com/neuroresac_3_neuroscience_NT.html#NT">Neurotransmitters (NT)</a></li>
<li><a href="http://www.neuroguide.com/neuroresac_3_neuroscience_senses.html#senses">Senses</a></li>
</ul>
</li>
<li><a href="http://www.neuroguide.com/neuroresac_3_nonhuman.html#non-human">Non-human</a></li>
<li><a href="http://www.neuroguide.com/neuroresac_3_philosophy.html#philosophy">Philosophy</a></li>
<li><a href="http://www.neuroguide.com/neuroresac_3_psychology.html#psychology">Psychology</a></li>
<li><a href="http://www.neuroguide.com/neuroresac_3_teaching.html#teaching">Teaching</a>
<ul>
<li><a href="http://www.neuroguide.com/neuroresac_3_teaching_books.html#books">Books</a></li>
<li><a href="http://www.neuroguide.com/neuroresac_3_teaching_courses.html#courses">Courses</a></li>
<li><a href="http://www.neuroguide.com/neuroresac_3_teaching_lectures.html#lectures">Lectures</a></li>
</ul>
</li>
<li><a href="http://www.neuroguide.com/neuroresac_3_techniques.html#techniques">Techniques (including Diagnosis and Concepts)</a></li>
</ul>
<p><strong>Gratefull to Prof. Neil A.Busis, Chief, Division of Neurology, <a href="http://shadyside.upmc.com/">UPMC Shadyside</a>, Pittsburgh, Pennsylvania for providing this tutorial.<br />
</strong></p>
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		<title>Neuroscience schools world wide</title>
		<link>http://neurobiosis.wordpress.com/2007/10/16/neuroscience-schools-world-wide/</link>
		<comments>http://neurobiosis.wordpress.com/2007/10/16/neuroscience-schools-world-wide/#comments</comments>
		<pubDate>Tue, 16 Oct 2007 06:24:10 +0000</pubDate>
		<dc:creator>Samrat Roy</dc:creator>
				<category><![CDATA[Universities world wide]]></category>

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		<description><![CDATA[New York University (NYU) Center for Neural Science Neuroanesthesia Manual Neurological Surgery NIH Guide to Grants and Contracts Nihon University Stereotaxic MRI Brain Images of Japanese Monkey NIPS (Neural Information Processing Systems 1999 Meeting: Denver, CO and past meetings) Northeastern Ohio Universities Neurobiology Department Northwestern University Neuroscience Institute Office of Naval Research U.S. Navy Pacific [...]<img alt="" border="0" src="http://stats.wordpress.com/b.gif?host=neurobiosis.wordpress.com&amp;blog=1383715&amp;post=25&amp;subd=neurobiosis&amp;ref=&amp;feed=1" width="1" height="1" />]]></description>
			<content:encoded><![CDATA[<ul>
<li>New York University (NYU)
<ul>
<li><a href="http://www.cns.nyu.edu/">Center for Neural Science</a></li>
<li><a href="http://mcan15.med.nyu.edu/neuroman/contents.html">Neuroanesthesia Manual</a></li>
<li><a href="http://mcns10.med.nyu.edu/">Neurological Surgery</a></li>
<li><a href="http://www.med.nyu.edu/nih-guide.html">NIH Guide to Grants and Contracts</a></li>
</ul>
</li>
<li>Nihon University
<ul>
<li><a href="http://glia.med.nihon-u.ac.jp/">Stereotaxic MRI Brain Images of Japanese Monkey</a></li>
</ul>
</li>
<li><a href="http://www.cs.cmu.edu/Web/Groups/NIPS/NIPS.html">NIPS</a> (Neural Information Processing Systems 1999 Meeting: Denver, CO and past meetings)</li>
<li>Northeastern Ohio Universities
<ul>
<li><a href="http://www.neoucom.edu/DEPTS/NEUR/menu.html">Neurobiology Department</a></li>
</ul>
</li>
<li>Northwestern University
<ul>
<li><a href="http://nuinfo.nwu.edu/nuin">Neuroscience Institute</a></li>
</ul>
</li>
<li><a href="http://www.onr.navy.mil/">Office of Naval Research</a> U.S. Navy</li>
<li>Pacific Northwest Lab
<ul>
<li><a href="http://www.emsl.pnl.gov:2080/docs/cie/neural/neural.homepage.html">Neural Networks at PNL</a></li>
<li> <a href="http://www.emsl.pnl.gov:2080/docs/cie/neural/papers/network_computation.html"> <em>Network: Computation in Neural Science</em> </a></li>
</ul>
</li>
<li><a href="http://www.sasquatch.com/tpn/">The Perspectives Network: Acquired Brain Injury</a></li>
<li>Philipps-Universität Marburg (DE)
<ul>
<li><a href="http://www.physik.uni-marburg.de/bio/biophys.html">AG Neurophysik</a></li>
</ul>
</li>
<li><a href="http://www.psc.edu/biomed">Pittsburgh Supercomputing Center</a> Biomedical Supercomputing
<ul>
<li><a href="http://www.psc.edu/biomed/pages/research/fmri/sc96.htm">Live fMRI demo</a></li>
</ul>
</li>
<li>PSL Consulting
<ul>
<li><a href="http://www.pslgroup.com/dg/neuro.htm">Neurology Conferences &amp; Meetings</a></li>
<li><a href="http://www.pslgroup.com/dg/psychiatry.htm">Psychiatry Conferences &amp; Meetings</a></li>
</ul>
</li>
<li>Purdue University
<ul>
<li><a href="http://bieber.bio.purdue.edu/">Neuroscience Program</a></li>
<li><a href="http://ils.unc.edu/dopamine/dopahome.html">Team Dopamine</a> (joint with Univ. of North Carolina)</li>
</ul>
</li>
<li>Queen&#8217;s University (Ontario, CDN)
<ul>
<li><a href="http://pavlov.psyc.queensu.ca/labs/frostlab/frostlab.html">Visual and Auditory Neurosciences</a></li>
</ul>
</li>
<li><a href="http://www.rndsystems.com/">R&amp;D Systems</a> Cytokines, etc.</li>
<li>RIKEN (JP)
<ul>
<li><a href="http://www.bmc.riken.go.jp/index.html">Bio-Mimetic Control Research Center</a></li>
</ul>
</li>
<li><a href="http://www.rockefeller.edu/">Rockefeller University</a>
<ul>
<li><a href="http://www.rockefeller.edu/rucal/rucal.html">RU Calendar of Events</a> (Now includes Special lectures, theses and cookie seminars)</li>
</ul>
</li>
<li><a href="http://www.voicenet.com/%7Erybak/nisms.html">Rostov State University Neural Network Modeling</a></li>
<li>Ruhr-Universitat Bochum
<ul>
<li><a href="http://www.neuroinformatik.ruhr-uni-bochum.de/"> Institut fur Neuroinformatik</a></li>
</ul>
</li>
<li>Rutgers University
<ul>
<li><a href="http://www.cmbn.rutgers.edu/">Behavioral and Neural Sciences </a></li>
</ul>
</li>
<li><a href="http://salk.edu/">Salk Institute for Biological Studies</a>
<ul>
<li><a href="http://www.cnl.salk.edu/CNL">Computational Neurobiology Laboratory</a></li>
<li><a href="http://www.cnl.salk.edu/NeuroWeb/">UCSD Dept. of Neuroscience&#8217;s NeuroWeb</a>
<ul>
<li><a href="http://www.cnl.salk.edu/NeuroWeb/posters/virtpost.html">NeuroWeb Posters</a> A virtual poster session</li>
</ul>
</li>
</ul>
</li>
<li><a href="http://www.aaas.org/science/science.html"><em>Science</em></a> (also see <a href="http://www.aaas.org/"> AAAS</a>)
<ul>
<li><a href="http://sci.aaas.org/nextwave/"><em>Science&#8217;s Next wave</em></a></li>
</ul>
</li>
<li><a href="gopher://ds2.internic.net/11/pub/the-scientist">The Scientist</a> Published by the Institute for Scientific Information</li>
<li>Scripps Research Institute
<ul>
<li><a href="http://www-hbp.scripps.edu/Home.html">Human Brain Project</a></li>
<li><a href="http://www_hbp_np.scripps.edu/Home.html">Department of Neuropharmacology</a></li>
</ul>
</li>
<li><a href="http://www.sigma.sial.com/">Sigma Chemical Co.</a></li>
<li><a href="http://www.sgi.com/">Silicon Graphics</a> Workstations and software for imaging</li>
<li><a href="http://www.sfn.org/">Society for Neuroscience</a>
<ul>
<li><a href="http://www.jneurosci.org/"><em>Journal of Neuroscience</em></a></li>
<li><a href="http://www.sfn.org/am99/">1999 Annual Meeting</a> 23 &#8211; 28 October 1999 in Miami Beach</li>
</ul>
</li>
<li>Stanford University
<ul>
<li><a href="http://www.hia.com/hia/narcoctr/">Center for Narcolepsy</a></li>
<li><a href="http://matia.stanford.edu/cogsci.html">Cognitive and Psychological Sciences on the Internet</a></li>
<li><a href="http://www-jbc.stanford.edu/jbc/"><em>Journal of Biological Chemistry</em></a></li>
</ul>
</li>
<li>State University of New York (SUNY)
<ul>
<li><a href="http://www.informatics.sunysb.edu/neurology/index.html">Department of Neurology</a></li>
</ul>
</li>
<li><a href="http://www.sun.com/">Sun Microsystems</a> Workstations and software</li>
<li><a href="http://www.sutter.com/">Sutter Instruments</a> Instruments for neuroscience research</li>
<li>Tel-Aviv University
<ul>
<li><a href="http://neuron.tau.ac.il/">Adams Super Center for Brain Studies</a></li>
</ul>
</li>
<li><a href="http://neuron.tau.ac.il/">Tufts University </a>
<ul>
<li><a href="http://opacum.knosses.tufts.edu/">Department of Neuroscience</a></li>
</ul>
</li>
<li>Tulane University
<ul>
<li><a href="http://www.mcl.tulane.edu/classware/neuroanatomy/readme_neuro.html">Neuroanatomy Study Slides</a></li>
</ul>
</li>
<li>United Nations
<ul>
<li><a href="http://www.worldscience.com/">UNESCO World Science</a></li>
</ul>
</li>
<li>University of Alabama &#8211; Birmingham
<ul>
<li><a href="http://www1.hsf.uab.edu/neuro/index.html">Neurology</a></li>
<li><a href="http://www.physiology.uab.edu/">Physiology and Biophysics</a></li>
</ul>
</li>
<li>University of Antwerp
<ul>
<li><a href="http://bbf-www.uia.ac.be/">Theoretical Neurobiology</a></li>
</ul>
</li>
<li>University of Arizona
<ul>
<li><a href="http://www.neurobio.arizona.edu/">Division of Neurobiology</a></li>
<li><a href="http://mantis.neurobio.arizona.edu/Flybrain/flybrain/">FlyBrain</a> &#8212; an insect neuroscience database</li>
</ul>
</li>
<li>University of Birmingham (UK)
<ul>
<li><a href="http://medweb.bham.ac.uk/clin_neuro.html">Clinical Neurosciences</a></li>
</ul>
</li>
<li>University of Bremen
<ul>
<li><a href="http://pooh.physik.uni-bremen.de/">Institut für Theoretische Neurophysik</a></li>
</ul>
</li>
<li>University of British Columbia
<ul>
<li><a href="http://cord.ubc.ca/">CORD</a> Collaboration On Repair Discoveries</li>
<li><a href="http://www.interchg.ubc.ca/neurosci">Graduate Program in Neuroscience</a></li>
<li><a href="http://www.cs.ubc.ca/spider/ladic/confocal.html">3-D Laser Confocal Microscopy</a></li>
<li><a href="http://www.interchg.ubc.ca/neuroimm/achrab.html">Neuro-Immunology Laboratories</a> from the Division of Neurology</li>
</ul>
</li>
<li>University of California Berkeley
<ul>
<li><a href="http://sulcus.berkeley.edu/">W.J. Freeman Lab</a></li>
</ul>
</li>
<li>University of California Davis
<ul>
<li><a href="http://neuroscience.ucdavis.edu/">Center for Neuroscience</a></li>
<li><a href="http://neuroscience.ucdavis.edu/CNS/CNS.html">Cognitive Neuroscience Society</a></li>
<li><a href="http://medpmr.ucdavis.edu/">Neuromuscular Diseases</a></li>
</ul>
</li>
<li>University of California Irvine (UCI)
<ul>
<li><a href="http://www.alz.uci.edu/dement.html">Institute for Brain Aging and Dementia</a>(Alzheimer&#8217;s Disease Server)</li>
</ul>
</li>
<li>University of California Los Angeles (UCLA)
<ul>
<li><a href="http://www.med.ucla.edu/divisions/endo/homepage.html">Blood-Brain Barrier Homepage</a></li>
<li>Brain Information Service
<ul>
<li><a href="http://bisleep.medsch.ucla.edu/">BIS Sleep Home Page</a></li>
</ul>
</li>
<li><a href="http://www.loni.ucla.edu/">UCLA Laboratory of Neuro Imaging </a>
<ul>
<li><a href="http://www.loni.ucla.edu/ratdata/Rat.html">Rat Brain Atlas</a></li>
</ul>
</li>
</ul>
</li>
<li>University of California San Diego (UCSD)
<ul>
<li><a href="http://www.cnl.salk.edu/NeuroWeb/">Dept. of Neuroscience&#8217;s NeuroWeb</a>
<ul>
<li><a href="http://www.cnl.salk.edu/NeuroWeb/posters/virtpost.html">NeuroWeb Posters</a> A virtual poster session</li>
</ul>
</li>
<li><a href="http://varesearch.ucsd.edu/klemfuss/ratman.htm">San Diego Sleep and Rhythms</a> RATMAN for circadian rhythm analysis and ACQS5 for EEG sleep staging</li>
<li><a href="http://crayfish.ucsd.edu/">Stomatogastric Ganglion</a></li>
</ul>
</li>
<li>University of California San Francisco (UCSF)
<ul>
<li><a href="http://gallo.ucsf.edu/">Ernest Gallo Clinic &amp; Research Center</a></li>
<li><a href="http://keck.ucsf.edu/">Keck Foundation Center for Integrative Neuroscience</a> and Sloan Center for Theoretical Neurobiology</li>
<li><a href="http://visembryo.ucsf.edu/">Visible Embryo Project</a></li>
</ul>
</li>
<li>University of California Santa Cruz (UCSC)
<ul>
<li><a href="http://mambo.ucsc.edu/index.html">Perceptual Science Laboratory</a></li>
</ul>
</li>
<li>University of Connecticut
<ul>
<li><a href="http://www.ucc.uconn.edu/%7Ewwwpnb/">Department of Physiology &amp; Neurobiology</a></li>
<li><a href="http://www3.uchc.edu/%7Ensinfo/brochure.html">Graduate Study in Neuroscience (U.Conn. Health Center)</a></li>
</ul>
</li>
<li>University of Copenhagen
<ul>
<li><a href="http://www.mfi.ku.dk/neuro/neurohome.html">Division of Neurophysiology</a> (Medical Physiology)</li>
</ul>
</li>
<li>University of Edinburgh
<ul>
<li><a href="http://www.cogsci.ed.ac.uk/ccs/home.html">Centre for Cognitive Science</a></li>
<li><a href="http://www.cns.ed.ac.uk/">Centre for Neural Systems</a></li>
<li><a href="http://sirius.lns.ed.ac.uk/">Centre for Neuroscience</a></li>
</ul>
</li>
<li>University of Florida
<ul>
<li><a href="http://www.cnel.ufl.edu/">Computational Neuroengineering Lab</a></li>
</ul>
</li>
<li>University Hospital of Geneva (HUG Geneve, CH)
<ul>
<li><a href="http://expasy.hcuge.ch/www/UIN/UIN.html"> Digital Imaging Unit (UIN) </a>
<ul>
<li><a href="http://expasy.hcuge.ch/www/UIN/otherrad.html">  Radiology, PET and Medical Imaging WWW Servers</a></li>
</ul>
</li>
</ul>
</li>
<li>University of Hamburg
<ul>
<li><a href="http://www.uni-hamburg.de/%7Emedizin/Institutes/IMDM/IDV/Examples.html">Hamburg Voxel-Man Images</a> (see also <a href="http://sable.ox.ac.uk/%7Euzdl0037/voxman.html">Anglicised Voxel-Man</a></li>
</ul>
</li>
<li>University of Illinois
<ul>
<li>Chicago (UIC)
<ul>
<li><a href="http://www.uic.edu/depts/mcns/">Department of Neurosurgery</a></li>
</ul>
</li>
<li>Urbana-Champaign (UIUC)
<ul>
<li><a href="http://www.life.uiuc.edu/Neuroscience/home.html">Neuroscience Program</a></li>
<li><a href="http://www.ks.uiuc.edu:1250/">Theoretical Biophysics Group</a> Beckman Institute: Neurosci. and Struct. Biol.</li>
<li><a href="http://www.med.uiuc.edu/titlepage.html">Urbana Atlas of Pathology</a></li>
</ul>
</li>
</ul>
</li>
<li>University of Iowa
<ul>
<li>Radiology Dept.
<ul>
<li><a href="http://everest.radiology.uiowa.edu/DPI/nlm/apps/aneur/aneur.html">Brain Aneurysms 3-D Visualization</a></li>
<li><a href="http://indy.radiology.uiowa.edu/VirtualHospital.html">The Virtual Hospital</a></li>
</ul>
</li>
</ul>
</li>
<li>University of Kentucky
<ul>
<li><a href="http://www.coa.uky.edu/ADReview">Alzheimer&#8217;s Disease Review</a> from the Sanders-Brown Center on Aging</li>
</ul>
</li>
<li>University of Kiel
<ul>
<li><a href="http://www.uni-kiel.de:8080/Biochemie/neuro.html">Biochemisches Institut: Neurobiology</a></li>
</ul>
</li>
<li>Université Laval
<ul>
<li><a href="http://www.gel.ulaval.ca/%7Evision/">Computer Vision and Systems Lab</a> (aussi <a href="http://www.gel.ulaval.ca/%7Evision/home_fran.html">en Francais</a>)</li>
</ul>
</li>
<li>University of London
<ul>
<li>Birkbeck College
<ul>
<li><a href="http://www.cryst.bbk.ac.uk/%7Eubcg09j/neurotrophins/nt_new.html">Neurotrophic Factors</a></li>
</ul>
</li>
<li>Guy&#8217;s Hospital (United Medical and Dental Schools)
<ul>
<li><a href="http://www.umds.ac.uk/elsewhere/neupharm/neupharm.html">Molecular Neuropharmacology Lab.</a></li>
</ul>
</li>
<li>King&#8217;s College
<ul>
<li><a href="http://physig.ph.kcl.ac.uk/cnn/cnn.html">Center for Neural Networks</a></li>
</ul>
</li>
<li>University College London
<ul>
<li><a href="http://www.anat.ucl.ac.uk/">Anatomy</a></li>
<li><a href="http://www.ucl.ac.uk/ioo">Institute of Ophthalmology</a></li>
<li><a href="http://www.physiol.ucl.ac.uk/physiol/neur_inf.html">UCL Ph.D. Programme in Neuroscience</a></li>
</ul>
</li>
</ul>
</li>
<li>Université de Lyon (Université Claude Bernard &#8211; Lyon)
<ul>
<li><a href="http://ura1195-6.univ-lyon1.fr/">Jouvet Lab</a></li>
</ul>
</li>
<li>University of Manitoba
<ul>
<li><a href="http://www.scrc.umanitoba.ca/">Spinal Cord Research Centre</a></li>
</ul>
</li>
<li>University of Medicine and Dentistry of New Jersey
<ul>
<li><a href="http://www2.umdnj.edu/%7Eneuro/pnb_prog/pnb_1.htm">Program in Physiology and Neurobiology</a></li>
</ul>
</li>
<li>University of Melbourne
<ul>
<li><a href="gopher://gopher.austin.unimelb.edu.au/I9/images/petimages/brain_3D_recon">Brain 3D Reconstruction</a></li>
<li><a href="http://werple.mira.net.au/%7Edhs/ad.html">Alzheimer Web</a> Department of Pathology</li>
<li><a href="http://werple.mira.net.au/%7Edhs/homepage.html">Laboratory of Molecular Neurobiology</a></li>
</ul>
</li>
<li>University of Miami
<ul>
<li><a href="http://www.rsmas.miami.edu/groups/sea-hares/">Aplysia Research Facility</a></li>
<li><a href="http://chroma.med.miami.edu/neuro/">Neuroscience Program</a></li>
</ul>
</li>
<li>University of Michigan
<ul>
<li><a href="http://www.engin.umich.edu/facility/cnct/index.html">Center for Neural Communication Technology</a></li>
<li><a href="http://http2.sils.umich.edu/Public/nirg/nirg1.html">Neuroscience Internet Resource Guide</a></li>
</ul>
</li>
<li>University of Minnesota
<ul>
<li><a href="http://www.cbc.umn.edu/">Computational Biology</a>  &lt;!&#8211;
<ul>
<li><a href="http://lenti.med.umn.edu/NEURON_BRAIN/NEURON_BRAIN.html">The Virtual Brain </a>
<li><A href="http://lenti.med.umn.edu/NEURON_BRAIN/NEURON.html">The Virtual Neuron</A></ul>
<p>&#8211;&gt;</li>
<li><a href="http://www.neurosci.umn.edu/">Department of Neuroscience</a></li>
<li><a href="http://www.compneuro.umn.edu/">Program in Computational Neuroscience</a> &lt;!&#8211;
<li><a href="http://www1.umn.edu/baw">Brain Awareness Week Program</A></ul>
<p>&#8211;&gt;</li>
</ul>
</li>
<li>Université de Montréal</li>
<li>Universidad Nacional Autonoma de Mexico
<ul>
<li><a href="http://ifcsun2.ifisiol.unam.mx/">Instituto de Fisiologia Celular </a></li>
</ul>
</li>
<li>University of Newcastle
<ul>
<li><a href="http://york37.ncl.ac.uk/www/neural_systems_group.html">Neural Systems Group</a></li>
</ul>
</li>
<li>University of New Mexico
<ul>
<li><a href="http://spine.unm.edu/neurosurg/neurosur.html">Neurosurgery</a></li>
<li><a href="http://www.varad.unm.edu/">New Mexico Institute of Neuroimaging</a></li>
</ul>
</li>
<li>University of North Carolina
<ul>
<li><a href="http://sunsite.unc.edu/Neuro/uncns/home.html">Division of Neurosurgery</a></li>
<li><a href="http://ils.unc.edu/dopamine/dopahome.html">Team Dopamine</a> (joint with Purdue Univ.)</li>
</ul>
</li>
<li>University of Oregon
<ul>
<li><a href="http://zfish.uoregon.edu/">Zebrafish Server</a></li>
</ul>
</li>
<li>University of Oslo
<ul>
<li><a href="http://www.med.uio.no/imb/anatomi/gruppe_3/gruppe3.htm">Dept. of Anatomy Neurodegeneration Research Group</a></li>
</ul>
</li>
<li>University of Ottawa
<ul>
<li><a href="http://www.uottawa.ca/%7Ewstaines/"> Dept. of Anatomy and Neurobiology</a></li>
</ul>
</li>
<li>University of Oxford
<ul>
<li>Anatomy
<ul>
<li><a href="http://sable.ox.ac.uk/%7Euzdl0037/voxman.html">Voxel-Man (Oxford)</a>(see also &gt;<a href="http://www.uni-hamburg.de/%7Emedizin/Institutes/IMDM/IDV/Examples.html">Hamburg version</a></li>
</ul>
</li>
<li><a href="http://www.physiol.ox.ac.uk/mcdp/">McDonnell-Pew Centre for Cognitive Neuroscience</a></li>
<li><a href="http://www.mrc-bbc.ox.ac.uk/">MRC Research Centre in Brain and Behaviour</a></li>
<li>Oxford University Press
<ul>
<li><a href="http://www.oup-usa.org/acadref/compint.html">Computational Intelligence Library</a></li>
</ul>
</li>
<li>Radcliffe Infirmary
<ul>
<li><a href="http://info.ox.ac.uk/%7Eoemc/">Oxford Eye-Movement Centre</a></li>
</ul>
</li>
</ul>
</li>
<li>University of Pennsylvania
<ul>
<li><a href="http://www.med.upenn.edu/%7Eneuro/"> Department of Neurology </a></li>
<li><a href="http://be.seas.upenn.edu/neuroengineering/">Neuroengineering Research Laboratory</a></li>
</ul>
</li>
<li>University of Pittsburgh
<ul>
<li><a href="http://www.pitt.edu/%7Enab4/aaem.html">American Association of Electrodiagnostic Medicine</a> (Electromyography)</li>
<li><a href="http://neurocog.lrdc.pitt.edu/npc/">Center for Neural Processes in Cognition</a> (joint with Carnegie Mellon Univ., <em>q.v.</em>)</li>
<li><a href="http://quadra900.neurobio.pitt.edu/">Dept. of Neurobiology</a> (Medical Center)</li>
<li><a href="http://www.pitt.edu/%7Eneurosci">Dept. of Neuroscience</a></li>
<li><a href="http://neurocog.lrdc.pitt.edu/fmri/">Functional Magnetic Resonance Imaging</a> (fMRI)</li>
<li><a href="http://www.neuronet.pitt.edu/">Neurological Surgery</a></li>
<li><a href="http://www.neuronet.pitt.edu/lcn/">Laboratory for Computational Neuroscience</a></li>
</ul>
</li>
<li>University of Sao Paulo, Brazil
<ul>
<li><a href="http://www.icb2.usp.br/%7Egmdrb/gmdrb.html">Grupo Multidisciplinar de Desenvolvimento e Ritmos Biológicos</a> Chronobiology and Neuroscience</li>
</ul>
</li>
<li>University of Scranton
<ul>
<li><a href="http://academic.uofs.edu/department/psych/sheep/">Sheep Brain Dissection Guide</a></li>
</ul>
</li>
<li>University of Southampton
<ul>
<li><a href="http://www.neuro.soton.ac.uk/">Neuroscience</a></li>
</ul>
</li>
<li>University of Southern California
<ul>
<li>Biological Sciences
<ul>
<li><a href="http://www.usc.edu/dept/nbio/neuro/neuro.html">Neurobiology Program</a></li>
<li><a href="http://www-hbp.usc.edu:8376/HBP/Home.html">USC Brain Project</a> (including Neural Simulation Language)</li>
</ul>
</li>
<li><a href="http://www.usc.edu/dept/nbio/nibs.html">Neurosciences at USC</a></li>
</ul>
</li>
<li>University of Tennessee (Memphis)
<ul>
<li><a href="http://cns.utmem.edu/">Center for Neuroscience</a></li>
<li><a href="http://mickey.utmem.edu/neuron.html">Developmental Neurogenetics</a></li>
</ul>
</li>
<li>University of Texas
<ul>
<li>Arlington
<ul>
<li><a href="http://www-ee.uta.edu/ip/index.html">Neural Net Lab.</a></li>
</ul>
</li>
<li>Houston-Health Sciences Center
<ul>
<li><a href="http://utmdacc.uth.tmc.edu/">M.D. Anderson Cancer Center</a>
<ul>
<li><a href="http://rpisun1.mda.uth.tmc.edu/se/anatomy/brain">Brain Images</a></li>
<li><a href="http://utmdacc.mda.uth.tmc.edu:5014/neuroweb/neuro.html">Neurology</a></li>
<li><a href="http://utmdacc.mda.uth.tmc.edu:5014/">Department of Neuro-Oncology</a></li>
</ul>
</li>
<li><a href="http://nba19.med.uth.tmc.edu/">Department of Neurobiology and Anatomy</a></li>
<li><a href="http://nba19.med.uth.tmc.edu/nrc/">Neuroscience Research Center</a></li>
</ul>
</li>
<li>San Antonio HSC
<ul>
<li><a href="http://biad63.uthscsa.edu/cgi-bin/dir_brainmap/brainmap.sh">BrainMap Browser</a></li>
</ul>
</li>
<li>Southwestern Medical Center (Dallas)
<ul>
<li><a href="http://www.swmed.edu/home_pages/neurology/index.htm">Department of Neurology</a></li>
<li>The <a href="http://eatworms.swmed.edu/Worm_labs/Avery/">Caenorhabditis elegans Server</a> at the <a href="http://eatworms.swmed.edu/">Avery Lab</a></li>
</ul>
</li>
</ul>
</li>
<li>University of Toronto
<ul>
<li><a href="http://www.utoronto.ca/berp/index.htm">Bloorview Epilepsy Research Program</a></li>
<li><a href="http://neurosci.utoronto.ca/">Program in Neuroscience</a></li>
</ul>
</li>
<li>University of Utah
<ul>
<li><a href="http://www-medlib.med.utah.edu/WebPath/NEURO.html">WebPath: Internet Pathology Laboratory &#8211; Neuropathology</a></li>
<li><a href="http://insight.med.utah.edu/Webvision/index.html">Webvision: Neural Organization of Vertebrate Retina</a></li>
</ul>
</li>
<li><a href="http://salus.uvm.edu/">University of Vermont College of Medicine</a>
<ul>
<li><a href="http://salus.uvm.edu/%7Eneuro/annbpg.html">Department of Anatomy and Neurobiology</a></li>
<li><a href="http://salus.uvm.edu/Neurology.html">Department of Neurology</a></li>
</ul>
</li>
<li>University of Virginia
<ul>
<li><a href="http://www.nvl.virginia.edu/">Neurovisualization Lab.</a></li>
</ul>
</li>
<li>University of Washington
<ul>
<li><a href="http://www.biostr.washington.edu/">Department of Biological Structure</a>
<ul>
<li><a href="http://www1.biostr.washington.edu/DigitalAnatomist.html">Digital Anatomist Program</a></li>
<li><a href="http://www2.biostr.washington.edu/">Patella server</a></li>
<li><a href="http://www1.biostr.washington.edu/BrainProject.html">Structural information framework for brain mapping</a></li>
</ul>
</li>
<li><a href="http://web.phys.washington.edu/local_web/hearing/aaa_readme.html">Bloedel Hearing Research Center</a></li>
<li><a href="http://weber.u.washington.edu/%7Ejamo/hippoweb/hippoweb.html">HippoWeb</a> Virtual posters: neurobiology of the hippocampus</li>
<li><a href="http://weber.u.washington.edu/%7Ecrc/IASP.html">International Association for the Study of Pain</a></li>
<li><a href="http://weber.u.washington.edu/%7Ebehneuro">Graduate Program in Neurobiology and Behavior</a></li>
<li><a href="http://128.95.15.147/">Department of Neurological Surgery</a></li>
<li><a href="http://weber.u.washington.edu/%7Ewcalvin/neuro-uw.html">Neurosciences at UW</a> by W.H. Calvin; see also his eclectic <a href="http://weber.u.washington.edu/%7Ewcalvin/bookmark.html">Bookmark File</a></li>
<li><a href="http://www.physiol.washington.edu/pbio/homepage.htm">Department of Physiology and Biophysics</a>
<ul>
<li><a href="http://mab.physiol.washington.edu/nrotrphn/nthompag.htm"><em>Neurotrophin</em></a>, an informal electronic journal on neurotrophic factors</li>
</ul>
</li>
<li><a href="http://weber.u.washington.edu/%7Epsychol/">Department of Psychology</a></li>
<li><a href="http://rprcsgi.rprc.washington.edu/neuronames/">Regional Primate Research Center</a></li>
<li><a href="http://www.zoology.washington.edu/zoology/Zoology.html">Department of Zoology</a>
<ul>
<li><a href="http://weber.u.washington.edu/%7Egraubard/">Graubard CrabLab</a></li>
</ul>
</li>
</ul>
</li>
<li>University of Western Ontario
<ul>
<li><a href="http://www.uwo.ca/clinns/">Dept. of Clinical Neurological Sciences</a></li>
<li><a href="http://www.uwo.ca/neuro/">Graduate Program in Neuroscience</a></li>
<li><a href="http://www.uwo.ca/clinns/neuro/neuro1.html">Neurology</a></li>
<li><a href="http://www.uwo.ca/clinns/nsx/nsx1.html">Neurosurgery</a></li>
</ul>
</li>
<li>University of Wisconsin &#8211; Madison
<ul>
<li><a href="http://www.neurophys.wisc.edu/neurophys">Department of Neurophysiology</a></li>
<li><a href="http://www.neuroscience.wisc.edu/">Center for Neuroscience</a></li>
<li><a href="http://www.neurophys.wisc.edu/brain/">Comparative Mammalian Brain Collection</a> (joint with Michigan State Univ.)</li>
<li><a href="http://www.neurology.wisc.edu/">Department of Neurology</a></li>
</ul>
</li>
<li>University of Zurich
<ul>
<li><a href="http://www.ifi.unizh.ch/groups/ailab/">Artificial Intelligence Laboratory</a></li>
<li><a href="http://www.ini.unizh.ch/">Institute of Neuroinformatics</a></li>
<li><a href="http://www.unizh.ch/%7Evor/">Vestibulo-Oculomotor Lab.</a></li>
</ul>
</li>
<li>Uppsala University
<ul>
<li><a href="http://www.bmc.uu.se/munpage/Mun.html">Dept. of Developmental Neuroscience</a></li>
</ul>
</li>
<li>Virginia Commonwealth Univ
<ul>
<li><a href="http://opal.vcu.edu/html/biomede/bio-science.html">Life Sciences at  VCU and Medical College of Virginia</a>
<ul>
<li><a href="http://opal.vcu.edu/html/biomede/compdyn.html">Complex Dynamical Systems &amp; Neurocomputing</a></li>
</ul>
</li>
</ul>
</li>
<li><a href="http://www.washcoll.edu/WC.HTML/academics/Kerchner/PsyDpt.nclk">Washington College (Maryland) Behavioral Neuroscience</a></li>
<li>Washington University (St.Louis)
<ul>
<li><a href="http://imacx.wustl.edu/">Mallickrodt Institute of Radiology</a> Neuroimaging</li>
<li><a href="http://neuro.wustl.edu/">Department of Neurology</a></li>
</ul>
</li>
<li> <a href="http://www.wesleyan.edu/bio/nsb.html">Wesleyan University Program in Neuroscience</a> (Connecticut)</li>
<li><a href="http://www.yale.edu/">Yale University</a>
<ul>
<li><a href="http://www.biology.yale.edu/">Department of Biology</a></li>
<li><a href="http://paella.med.yale.edu/">Center for Medical Informatics</a>
<ul>
<li><a href="http://paella.med.yale.edu/senselab/">SenseLab </a> &#8212; part of the Human Brain Project</li>
</ul>
</li>
<li><a href="http://www.nnc.yale.edu/">Neuroengineering and Neuroscience Center (Formerly CTAN) </a></li>
<li><a href="http://www.yale.edu/HTML/YalePsych-Info.html">Department of Psychology </a></li>
<li><a href="http://info.med.yale.edu/neurobio/">Section of Neurobiology</a></li>
</ul>
</li>
<li>Yamagata University School of Medicine
<ul>
<li><a href="http://www.id.yamagata-u.ac.jp/NeuroSurge/NeuroSurge.html">Dept. of Surgical Neurology (Neurosurgery)</a></li>
</ul>
</li>
<li>Yeshiva University
<ul>
<li>Albert Einstein College of Medicine
<ul>
<li><a href="http://balrog.aecom.yu.edu/epilepsy/">Comprehensive Epilepsy Management Center</a></li>
</ul>
</li>
</ul>
</li>
</ul>
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		<title>First new Multiple Sclerosis gene found in 30years</title>
		<link>http://neurobiosis.wordpress.com/2007/08/04/first-new-multiple-sclerosis-gene-found-in-30years/</link>
		<comments>http://neurobiosis.wordpress.com/2007/08/04/first-new-multiple-sclerosis-gene-found-in-30years/#comments</comments>
		<pubDate>Sat, 04 Aug 2007 03:35:20 +0000</pubDate>
		<dc:creator>Samrat Roy</dc:creator>
				<category><![CDATA[Popular stories]]></category>

		<guid isPermaLink="false">http://neurobiosis.wordpress.com/2007/08/04/first-new-multiple-sclerosis-gene-found-in-30years/</guid>
		<description><![CDATA[Aureus Pharma Licenses aurscope Ion Channel to Neuromed &#8230; &#8211; PR Newswire (press release) New rendering of ion channel suggests how neurons fire &#8211; The Rockefeller University Newswire Nobel Prize-Winning Scientist Joins Ulster University &#8211; University of Ulster Online Adolor Inks $265M Deal With Pfizer For Opioid &#8211; BioWorld Online Microscopic pictures reveal cystic fibrosis [...]<img alt="" border="0" src="http://stats.wordpress.com/b.gif?host=neurobiosis.wordpress.com&amp;blog=1383715&amp;post=24&amp;subd=neurobiosis&amp;ref=&amp;feed=1" width="1" height="1" />]]></description>
			<content:encoded><![CDATA[<ol>
<li><a href="http://www.prnewswire.com/cgi-bin/stories.pl%3FACCT%3D104%26STORY%3D/www/story/12-11-2007/0004720395%26EDATE%3D" target="_blank">Aureus Pharma Licenses aurscope Ion Channel to Neuromed &#8230; &#8211; PR Newswire (press release)</a></li>
<li><a href="http://newswire.rockefeller.edu/?page=engine&amp;id=679" target="_blank">New rendering of ion channel suggests how neurons fire &#8211; The Rockefeller University Newswire</a></li>
<li><a href="http://news.ulster.ac.uk/releases/2007/3521.html" target="_blank">Nobel Prize-Winning Scientist Joins Ulster University &#8211; University of Ulster Online</a></li>
<li><a href="http://www.bioworld.com/servlet/com.accumedia.web.Dispatcher%3Fnext%3DbioWorldHeadlines_article%26forceid%3D46337" target="_blank">Adolor Inks $265M Deal With Pfizer For Opioid &#8211; BioWorld Online</a></li>
<li><a href="http://www.dailyindia.com/show/198090.php/Microscopic-pictures-reveal-cystic-fibrosis-protein-interaction" target="_blank">Microscopic pictures reveal cystic fibrosis protein interaction &#8211; DailyIndia.com</a></li>
<li><a href="http://www.bioworld.com/servlet/com.accumedia.web.Dispatcher%3Fnext%3DbioWorldHeadlines_article%26forceid%3D46394" target="_blank">FDA Panel OKs Kynapid, But Votes Against Pulzium &#8211; BioWorld Online</a></li>
<li><a href="http://www.buffalo.edu/reporter/vol39/vol39n13/articles/SUNYDistProfs.html" target="_blank">SUNY Distinguished Professors named &#8211; University at Buffalo Reporter</a></li>
<li><a href="http://www.innovations-report.de/html/berichte/biowissenschaften_chemie/bericht-99562.html" target="_blank">Missing protein may be key to autism &#8211; innovations report</a></li>
<li><a href="http://www.belfasttelegraph.co.uk/news/education/article3224157.ece" target="_blank">Nobel prize scientist joins Ulster researchers &#8211; Belfast Telegraph</a></li>
<li><a href="http://www.sciencedaily.com/releases/2007/12/071205115236.htm" target="_blank">Missing Protein May Be Key To Autism &#8211; Science Daily (press release)</a></li>
</ol>
<p><b>SOURCE: Ion channel media group</b><br />
<span class="sidetext"><b>Source: Duke University Medical Center</b></span></p>
<p><span class="defaultlrg"></span></p>
<table cellpadding="0" cellspacing="0" width="100%">
<tr>
<td class="sidetext" align="center">&nbsp;</td>
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</table>
<p>A newly identified gene may hold the promise of guiding future research into therapies for multiple sclerosis in what its discoverers say is the first major genetic advance in 30 years for understanding this nervous system disease.</p>
<p><span class="defaultlrg">While it has been known that there is a strong genetic underpinning for multiple sclerosis, only genes within a region of chromosome 6 have to date been implicated in the disease. The current finding, reported early online July 29 in the journal Nature Genetics, demonstrated that a functional gene variant on chromosome 5 was associated with an increased susceptibility to the disease. The study was supported by the National Institutes of Health</span></p>
<p>“Our finding is very important because the genetic factors that are already known to be associated with multiple sclerosis only explain less than half of the total genetic basis for the disease,” said Simon Gregory, Ph.D., molecular geneticist at Duke’s Center for Human Genetics and first author of the paper. “We have identified a gene that increases an individual’s risk of MS by 30 percent and that this variant has an effect on the function of the gene.”</p>
<p>It is likely that variants of many genes are associated with the development of multiple sclerosis, so identifying a novel gene that is associated with MS will be very helpful in understanding this complex disease.”</p>
<p>Joining Gregory and his colleagues at Duke were researchers from the University of California at San Francisco and the University of Cambridge in the United Kingdom, who spearheaded the collection of multiple sclerosis populations over many years, and the University of Miami and Vanderbilt University. The same team was also involved in another paper replicating similar findings from a whole genome analysis, which will appear on line in the New England Journal Medicine on July 29th.</p>
<p>Multiple sclerosis is a disease that is caused by the breakdown of the fatty sheath surrounding axons, the long spindly portions of nerve cells that carry messages from one cell to another. This sheath, known as myelin, acts much like the plastic coating insulating an electrical cord.</p>
<p>For reasons that are not well understood, the body’s own immune system is believed to attack the myelin, which can cause “short circuits” in the body’s electrical system. This leads to the symptoms of the disease, which include muscle weakness, cognitive impairment, difficulties with balance and coordination, and speech and vision problems. What triggers this autoimmune response is likely a result of a complex interplay between genetic and environmental factors, Gregory said.</p>
<p>The previously discovered multiple sclerosis genes were all located in an area of chromosome 6 involved in the major histocompatibility complex, which is important in the regulation of the immune system. The gene variation discovered in the most recent research is located on chromosome 5, and is involved in guiding the production of interleukin-7 receptor alpha (IL-7R), which is a critical receptor for the development and growth of key immune system cells.</p>
<p>Gregory said that as research builds upon the altered function of IL-7R the mechanisms involved in the development of multiple sclerosis will be unlocked, which may lead to novel treatments for the disease or the identification of targets for new therapies.</p>
<p>The team used a technique known as genomic convergence, in which they took the results of many studies looking for common elements. From studies involving patients and their families in the United States and Great Britain, they analyzed more than 7,000 DNA samples from patients with confirmed multiple sclerosis and those without the disease After winnowing down 28 candidate genes to the IL-7R gene, the researchers then tested their findings on a different set of patient populations to confirm their findings.</p>
<p>“One of the greatest challenges in any effort to identify genes for complex diseases like multiple sclerosis is to see if results from one study population can be confirmed in others” said Silke Schmidt, Ph.D., co-first author of the paper who is also at the Duke Center for Human Genetics. “We showed that the exact same genetic change in IL-7R increased the risk of multiple sclerosis to a very similar extent in four different populations.”</p>
<p>Multiple sclerosis is most common in young adults, with more than 90 percent of the cases being diagnosed before the age of 55, and fewer than five percent diagnosed before the age of five. Women are two to three times more likely to develop the disease, which afflicts about 350,000 patients in the United States.</p>
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		<title>New Protein Synthesis Not Essential to Memory Formation</title>
		<link>http://neurobiosis.wordpress.com/2007/08/04/new-protein-synthesis-not-essential-to-memory-formation/</link>
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		<pubDate>Sat, 04 Aug 2007 03:32:14 +0000</pubDate>
		<dc:creator>Samrat Roy</dc:creator>
				<category><![CDATA[Popular stories]]></category>

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		<description><![CDATA[Source: University of Illinois at Urbana-Champaign New research from the University of Illinois challenges the premise that the brain must build new proteins in response to an experience for that experience to be recorded in long-term memory. The findings, published in the Proceedings of the National Academy of Sciences, could alter basic assumptions about the [...]<img alt="" border="0" src="http://stats.wordpress.com/b.gif?host=neurobiosis.wordpress.com&amp;blog=1383715&amp;post=23&amp;subd=neurobiosis&amp;ref=&amp;feed=1" width="1" height="1" />]]></description>
			<content:encoded><![CDATA[<p><span class="sidetext"><strong>Source: University of Illinois at Urbana-Champaign</strong></span></p>
<p><span class="defaultlrg">New research from the University of Illinois           challenges the premise that the brain must build new proteins in response           to an experience for that experience to be recorded in long-term memory.</p>
<p>The findings, published in the Proceedings of the National Academy           of Sciences, could alter basic assumptions about the role of protein           synthesis in memory formation.</p>
<p>Brain researchers have long used drugs that enhance or hinder memory           formation to gain insight into the mechanisms at play. Early experiments           in rats found that protein synthesis inhibitors injected into brain           regions involved in memory processing could disrupt long-term memory           formation. This led some to hypothesize that new protein synthesis           was essential to the creation of long-term memories.</p>
<p>A research team led by <a href="http://www.life.uiuc.edu/neuroscience">neuroscientist</a> Paul E. Gold discovered an alternate           explanation for this effect. The researchers observed that the protein           synthesis inhibitor anisomycin, which is commonly used in memory studies,           causes dramatic changes in brain chemistry – apart from protein           synthesis inhibition – that interfere with memory formation.           They found that exposing rat brains to anisomycin sets off wild fluctuations           in neurotransmitter levels in the brain region targeted in the experiment – the           amygdala, one of several brain structures involved in processing memories           and emotions. Large fluctuations in neurotransmitter levels in the           amygdala are known to interfere with memory formation.</p>
<p>The researchers were surprised by the intensity of the brain’s           response to anisomycin. Shortly after they injected the drug into the           rat amygdala, they saw huge increases – from 1,000 to 17,000           percent – in levels of the neurotransmitters norepinephrine,           dopamine and serotonin.</p>
<p>“This is far above anything we’ve seen physiologically in any experiment,” Gold   said. “Normally you think of a 200 percent increase as a really solid   result and 300 percent as outrageously high. I wouldn’t have thought   that there was that much (neurotransmitter) to be released.”</p>
<p>Shortly after this spike, dopamine and norepinephrine levels plummeted,           dropping well below baseline for up to 48 hours after the initial exposure           to anisomycin.</p>
<p>As expected, the rats exposed to anisomycin prior to training had impaired           long-term recall of the events. To determine whether the inability           to form lasting memories was caused by the anisomycin or by changes           in neurotransmitter levels, the researchers repeated the experiment,           adding drugs designed to counter the fluctuations in neurotransmitter           levels. When the neurotransmitter imbalances were neutralized or blunted – even           in the presence of anisomycin – memory formation was significantly           restored.</p>
<p>“If we block anisomycin’s effects on the neurotransmitters, then   we block many of its effects on memory,” Gold said. “We still have   the protein synthesis inhibition, but it no longer causes the (same level of)   amnesia.”</p>
<p>It is possible that some of the amnesia is due to the cessation of           protein synthesis, Gold said. But, he said, the evidence suggests otherwise. “I           think the protein synthesis inhibition itself is causing cells to act           in unusual ways,” he said.</p>
<p>“No one would deny that protein synthesis is needed to maintain normal   brain functions, including memory,” Gold said. “But the idea that <em>new</em> protein   synthesis is required to make long-lasting memories should be reexamined.”</p>
<p>Gold is a professor of <a href="http://s.psych.uiuc.edu/">psychology</a> and<a href="http://www.med.uiuc.edu/"> psychiatry</a> and is affiliated           with the neuroscience program and the <a href="http://www.igb.uiuc.edu/">Institute           for Genomic Biology</a>.</span></p>
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		<title>Pfizer Neuron Run Video game</title>
		<link>http://neurobiosis.wordpress.com/2007/07/31/pfizer-brain-game/</link>
		<comments>http://neurobiosis.wordpress.com/2007/07/31/pfizer-brain-game/#comments</comments>
		<pubDate>Tue, 31 Jul 2007 17:01:36 +0000</pubDate>
		<dc:creator>Samrat Roy</dc:creator>
				<category><![CDATA[Brain Games]]></category>

		<guid isPermaLink="false">http://neurobiosis.wordpress.com/2007/07/31/pfizer-brain-game/</guid>
		<description><![CDATA[Download Game Now that you know how neurons work&#8230;try the game. This game is for P.C. computers only.. Click &#8220;Run Game&#8221; to start the download. Follow the instructions that appear on the screen. How Neurons Communicate This is a graphic of a Neuron and its pathways. To see a larger version click here. Neurons (another [...]<img alt="" border="0" src="http://stats.wordpress.com/b.gif?host=neurobiosis.wordpress.com&amp;blog=1383715&amp;post=16&amp;subd=neurobiosis&amp;ref=&amp;feed=1" width="1" height="1" />]]></description>
			<content:encoded><![CDATA[<table bgcolor="#0099cc" border="0" cellpadding="6" cellspacing="0" width="100%">
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<td align="left" height="216" valign="top" width="91%"><font color="#000000"><strong><font color="#ffffff" size="6">Download                Game </font></strong></font>Now that you know how neurons work&#8230;try the game.</p>
<p>This game is for P.C. computers only.. Click &#8220;Run Game&#8221;                to start the download. Follow the instructions that appear on the                screen.</p>
<p><a href="http://www.pfizer.com/brain/PFIZERSETUPV4.EXE"><img src="http://www.pfizer.com/brain/images/rungame.gif" align="right" border="0" height="54" width="90" /></a></td>
<td align="left" height="216" valign="top" width="5%"><strong><br />
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<p><strong>How Neurons Communicate<br />
</strong></p>
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<td align="left" height="99" valign="top"><a href="http://www.pfizer.com/brain/images/neuron_large.gif"><img src="http://www.pfizer.com/brain/images/neuron_small.gif" alt="neuron, picture of a neuron, neuron picture, neuron diagram, brain signals" border="0" height="402" width="300" /></a></td>
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<td align="left" height="112" valign="top"><font size="-1"><strong><a href="http://www.pfizer.com/brain/images/neuron_large.gif">This                    is a graphic of a Neuron and its pathways. To see a larger version                    click here.</a></strong></font></td>
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<p>Neurons (another name for nerve cells) are cells that carry information          in the brain (and in the central nervous system, but that&#8217;s another story).          Neurons have specialized projections called dendrites and axons. Dendrites          bring information to the neuron cell body and axons take information away          from the neuron cell body. Incoming information is received by the dendrites          (see below) and passes through the neuron cell body and through the axon          of the neuron. For communication between neurons to occur, an electrical          impulse must travel down an axon to the synaptic terminal.</p>
<p>Information from one neuron flows to another neuron across a synapse.          The synapse is a small gap separating 2 neurons. All messages are passed          between connected neurons in the form of chemicals called neurotransmitters.          They flow from a message-sending neuron across the synapse and onto target          neurons. The chemicals attach to a place on the surface of the receiving          neuron &#8212; a protein called a receptor site. Many scientists compare the          union to a key fitting in a lock.</p>
<p>Once attached, different neurotransmitters either trigger &#8220;go&#8221;          signals that allow the message to be passed to the next neuron in the          communication line or produce &#8220;stop&#8221; signals that prevent the          message from being forwarded. The signals are in the form of charged particles          or ions. The brain keeps tight control of this message delivery system          to avoid communication chaos.<br />
<strong>Exploring the Senses</strong></p>
<p>Click a sense to read about its pathways.</p>
<ul>
<li><a href="http://www.pfizer.com/brain/dlgame.html#sight">Sight</a></li>
<li><a href="http://www.pfizer.com/brain/dlgame.html#sound">Sound</a></li>
<li><a href="http://www.pfizer.com/brain/dlgame.html#taste">Taste</a></li>
<li><a href="http://www.pfizer.com/brain/dlgame.html#smell">Smell<br />
</a></li>
</ul>
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</font><font color="#000000"><strong><font size="6"><a title="sight" name="sight"></a></font></strong></font><font size="5">THE                VISUAL PATHWAY</font><br />
</strong></font></p>
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<p align="center"><img src="http://www.pfizer.com/brain/images/sight.jpg" alt="mystery of the mind, mind and brain, dreams and brain, brain and memory, brain and perception" height="184" width="155" /></p>
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<p><font color="#000000">Vision begins when light-sensitive <strong><font color="#3366cc">photoreceptor                cells</font></strong> in the <strong><font color="#3366cc">retinas</font></strong>                (layers of cells at the back of the eye) of both eyes pick up light                and transmit information to the brain.</font></p>
<p><font color="#000000">Visual information leaves the eye by way of the <strong><font color="#3366cc">optic                nerve</font></strong>. Like many pathways in the nervous system, some                right eye and left eye visual information cross to the otherside                of the brain. In the visual pathway, this process occurs in the                <strong><font color="#3366cc">optic chiasm</font></strong>. Once the axons                carrying the information cross within the optic chiasm and they                are called the <strong><font color="#3366cc">optic tract</font></strong>.</font></p>
<p><font color="#000000">Axons in the optic tract then projected to                the <strong><font color="#3366cc">lateral geniculate nucleus</font> </strong>(LGN)                of the brain.</font></p>
<p><font color="#000000">From there, the LGN axons fan out through                the deep white matter of the brain as the optic radiations, which                will ultimately travel to the occipital lobe at the back of the                brain.</font><font color="#000000">Within the occipital lobe, cells                in the <strong><font color="#3366cc">primary</font></strong> <strong><font color="#3366cc">visual                cortex</font></strong>, are the first to receive messages from the lateral                geniculate. Signals conveying color information then go on to several                nearby visual areas for further processing. For perception and recognition,                signals are then sent to so-called &#8220;higher centers,&#8221; where                they interact with stored memories and input from other sensory                and motor centers.</font></td>
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<td height="504" width="2%">&nbsp;</td>
<td align="left" height="504" valign="top"><font color="#000000"><strong><font color="#000000"><strong><font size="5"><br />
</font><font color="#000000"><strong><font size="6"><a title="sound" name="sound"></a></font></strong></font><font size="5">THE                HEARING PATHWAY</font></strong></font></strong><br />
</font></p>
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<p align="center"><img src="http://www.pfizer.com/brain/images/hearing.jpg" alt="mystery of the mind, mind and brain, dreams and brain, brain and memory, brain and perception" height="184" width="155" /></p>
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<p><font color="#000000">The folds and ridges of the <strong><font color="#3366cc">external                ear</font></strong> channel sound into the <strong><font color="#3366cc">ear                canal</font></strong> and to the <strong><font color="#3366cc">eardrum</font></strong>                at the end of the canal. When sound waves vibrate the eardrum, sound                energy is transferred to the <strong><font color="#3366cc">middle ear</font></strong>.                The middle ear is a small, air-filled pocket bound by the eardrum                on the external side and the oval window of the inner ear on the                other.</font></p>
<p><font color="#000000">The middle ear houses the three smallest                bones in the body, which form a chain of levers connected by joints.                This series of membranes and bones forms a pathway that carries                vibrations from the eardrum to the <strong><font color="#3366cc">inner                ear</font></strong>. </font></p>
<p><font color="#000000">The inner ear is composed of the <strong><font color="#3366cc">cochlea</font></strong>                and the <strong><font color="#3366cc">semicircular canals</font></strong>.                The cochlea is filled with a special fluid, and the pushing and                pulling of the smallest bone in the middle ear (called the stapes)                on the oval window moves the fluid in this coiled tube.</font></p>
<p><font color="#000000">Forming the lengthwise partition between the lower large tube and                the small tube is the <strong><font color="#3366cc">basilar membrane</font></strong>.                On this membrane sit the stars of the show in the auditory system,                the <strong><font color="#3366cc">auditory receptor cells</font></strong>,                or hair cells. </font></p>
<p><font color="#000000">Signals from neurons that get information                directly from hair cells travel in the <strong><font color="#3366cc">auditory                nerve</font></strong> to the <strong><font color="#3366cc">brainstem</font></strong>.                Here the signals activate more neurons, which send the auditory                messages on to the <strong><font color="#3366cc">thalamus</font></strong>,                then to the <strong><font color="#3366cc">auditory cortex</font></strong>                in the <strong><font color="#3366cc">temporal lobe</font></strong> of the                brain where sound is identified. </font></td>
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<td align="left" height="462" valign="top"><font color="#000000"><strong><font color="#000000"><strong><font size="5"><br />
</font><font color="#000000"><strong><font size="6"><a title="taste" name="taste"></a></font></strong></font><font size="5">THE                TASTE PATHWAY</font></strong></font></strong><br />
</font></p>
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<p align="center"><img src="http://www.pfizer.com/brain/images/taste.jpg" alt="mystery of the mind, mind and brain, dreams and brain, brain and memory, brain and perception" height="184" width="155" /></p>
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<p><font color="#000000">As you bite into a piece of food with your                <strong><font color="#3366cc">mouth</font></strong>, <strong><font color="#3366cc">molecules</font></strong>                escape and fit into a slots on a <strong><font color="#3366cc">taste</font>                <font color="#3366cc">membrane receptors</font></strong> on the taste                bud that can accommodate only that class of molecular structures.                </font></p>
<p><font color="#000000">This latching together of molecules and taste                membrane receptors produces an <strong><font color="#3366cc">electrical                signal</font></strong>.</font></p>
<p><font color="#000000">The electrical signal from a taste receptor goes directly to the                terminal of a <strong><font color="#3366cc">primary taste sensory neuron</font></strong>,                which is in contact with the receptor cell right in the taste bud.                The cell bodies of these neurons are in the brainstem (lower part                of the brain, below the cerebrum) and their axons form pathways                in several cranial nerves. </font></p>
<p><font color="#000000">Once these nerve cells get electrical messages                from the taste cells, they pass the messages on through <strong><font color="#3366cc">relay                neurons</font></strong> to two major centers: the <strong><font color="#3366cc">limbic                system</font></strong> and the <strong><font color="#3366cc">cerebral cortex</font></strong>.</font></p>
<p><font color="#000000">Messages to the limbic system give you that                &#8220;love it&#8221; or &#8220;hate it&#8221; feeling. Other pathways                stimulate motor centers to cause salivation, chewing, and swallowing.                The signals to your <strong><font color="#3366cc">frontal cortex</font></strong>                allow you to identify the food and activate <strong><font color="#3366cc">motor                neurons</font> </strong>that allow you to say, &#8220;That tastes great!&#8221;                and to use your spoon to take more food.<br />
</font></td>
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<td height="455" width="2%">&nbsp;</td>
<td align="left" height="455" valign="top"><font color="#000000"><strong><font color="#000000"><strong><font color="#000000"><strong><font size="6"><a title="smell" name="smell"></a></font></strong></font><font size="5">THE                SMELL PATHWAY</font></strong></font></strong><br />
</font></p>
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<p align="center"><img src="http://www.pfizer.com/brain/images/smell.jpg" alt="mystery of the mind, mind and brain, dreams and brain, brain and memory, brain and perception" height="184" width="155" /></p>
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<p><font color="#000000">Smells are detected in the <strong><font color="#3366cc">nose</font></strong>.                In the roof of each nostril is a region called the <strong><font color="#3366cc">nasal                mucosa</font></strong>. This region contains the <strong><font color="#3366cc">sensory                olfactory epithelium</font></strong> &#8211; covered by mucus.</font></p>
<p><font color="#000000">The epithelial cells possess a knob that                projects above the epithelial surface, from which extend about 8-20                <strong><font color="#3366cc">olfactory cilia</font></strong>. These cilia                contain the <strong><font color="#3366cc">smell receptors</font></strong>                and project into the mucus and, at the other end, axons that connect                to the <strong><font color="#3366cc">olfactory bulb</font></strong>. </font></p>
<p><font color="#000000"><strong><font color="#3366cc">Mitral cells</font>                </strong>are the principal neurons in the olfactory bulb Their axons                merge together to form the <strong><font color="#3366cc">lateral olfactory                tract</font></strong>. Neurons from the lateral olfactory tract connect                to the <strong><font color="#3366cc">limbic system</font></strong>, an ancient                region of the brain concerned with motivation, emotion and certain                kinds of memory.</font></p>
<p><font color="#000000">Neurons also connect to the <strong><font color="#3366cc">thalamus</font></strong>,                which in turn is connected to the frontal cortex where signals are                compared to those in memory for recognition. There are many forward                and backward connections between each of the other brain centers.</font></p>
<p><font color="#000000"><br />
</font></td>
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		<title>News</title>
		<link>http://neurobiosis.wordpress.com/2007/07/31/news/</link>
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		<pubDate>Tue, 31 Jul 2007 15:27:26 +0000</pubDate>
		<dc:creator>Samrat Roy</dc:creator>
				<category><![CDATA[Popular stories]]></category>

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		<description><![CDATA[Two Nerve Cells In Direct Contact Study shows link between IBS and pain Spiders, Peppers and a Pathway to Pain SCIENCE NEWS Houston researchers discover genetic link to heart disorder GNS Awarded $1.6M Phase II SBIR Grant for Cardiac Computer Simulation to Test Drug Safety Genetic &#8216;missing link&#8217; sheds light on sudden cardiac death Diabetes [...]<img alt="" border="0" src="http://stats.wordpress.com/b.gif?host=neurobiosis.wordpress.com&amp;blog=1383715&amp;post=15&amp;subd=neurobiosis&amp;ref=&amp;feed=1" width="1" height="1" />]]></description>
			<content:encoded><![CDATA[<ol>
<li><a href="http://www.sciencedaily.com/releases/2006/11/061108103929.htm" target="_blank">Two Nerve Cells In Direct Contact </a></li>
<li><a href="http://www.channelnewsasia.com/stories/health/view/239806/1/.html" target="_blank">Study shows link between IBS and pain </a></li>
<li><a href="http://www.nytimes.com/2006/11/14/science/14observ.html" target="_blank">Spiders, Peppers and a Pathway to Pain </a></li>
<li><a href="http://www.sciam.com/article.cfm?chanID=sa003&amp;articleID=C9A09E70-E7F2-99DF-3EAE219219988CD0" target="_blank">SCIENCE NEWS </a></li>
<li><a href="http://www.bizjournals.com/houston/stories/2006/11/06/daily18.html?from_rss=1" target="_blank">Houston researchers discover genetic link to heart disorder </a></li>
<li><a href="http://www.sys-con.com/read/301508.htm" target="_blank">GNS Awarded $1.6M Phase II SBIR Grant for Cardiac Computer Simulation to Test Drug Safety </a></li>
<li><a href="http://www.eurekalert.org/pub_releases/2006-11/bcom-gl110606.php" target="_blank">Genetic &#8216;missing link&#8217; sheds light on sudden cardiac death </a></li>
<li><a href="http://www.redorbit.com/news/health/722963/diabetes_mellitus_in_older_men/index.html?source=r_health" target="_blank">Diabetes Mellitus in Older Men </a></li>
<li><a href="http://www.sciencedaily.com/releases/2006/10/061023192251.htm" target="_blank">Remember This: Receptors Govern How Brain Cells Communicate</a></li>
<li><a href="http://www.hhmi.org/news/mccleskey20061201.html" target="_blank">HHMI Appoints Edwin W. McCleskey as Scientific Officer</a></li>
<li><a href="http://www.philly.com/mld/philly/living/health/16263634.htm?source=rss&amp;channel=philly_health" target="_blank">A painkilling gene discovered</a></li>
<li><a href="http://www.drugdiscoveryonline.com/content/news/article.asp?docid=7b311352-c15f-48ca-8856-491bac82e003&amp;atc%7Ec=771+s=773+r=001+l=a" target="_blank">Neurosearch, Glaxo Expand Drug Discovery Alliance</a></li>
<li><a href="http://www.mg.co.za/articlepage.aspx?area=/breaking_news/breaking_news__international_news/&amp;articleid=293345" target="_blank">The boy who could walk on hot coals</a></li>
<li><a href="http://www.uni-protokolle.de/nachrichten/id/129607/" target="_blank">First Evidence for a Touch Receptor Gene in Mammals</a></li>
<li><a href="http://society.guardian.co.uk/health/story/0,,1971792,00.html?gusrc=rss&amp;feed=9" target="_blank">Boy who walks on coals offers clues to pain</a></li>
<li><a href="http://www.newkerala.com/news4.php?action=fullnews&amp;id=61335" target="_blank">Now, risk of heart attack can be reduced in 90 days</a></li>
<li><a href="http://www.seniorjournal.com/NEWS/Sex/6-11-30-ErectileDysfunction.htm" target="_blank">Erectile Dysfunction, Overactive Bladder and More May be Treated by Simple Gene Transfer</a></li>
<li><a href="http://feeds.baltimoresun.com/%7Er/baltimoresun/news/health/rss2/%7E3/61745034/bal-hs.pain15dec15,0,2736380.story" target="_blank">Mutation is behind inability to feel pain</a></li>
<li><a href="http://www.sciencedaily.com/releases/2006/12/061201180435.htm" target="_blank"><!-- D(["mb","Gene Therapy For Erectile Dysfunction Shows Promise In Clinical Trial\u003c/a\&gt;\u003c/li\&gt;\u003c/ol\&gt;\n\u003c/p\&gt;\u003c/p\&gt;\u003c/p\&gt;\u003c/td\&gt;\n\n\n\n\u003ctd valign\u003d\"top\" width\u003d\"20\"\&gt;\u003cimg width\u003d\"20\" height\u003d\"5\" border\u003d\"0\"\&gt;\u003c/td\&gt;\n\n\n\n\n\n\n\u003ctd valign\u003d\"top\" bgcolor\u003d\"#EEEEEE\" width\u003d\"230\" align\u003d\"left\"\&gt;\n\n\u003cspan\&gt;Sponsors:\u003c/span\&gt;\u003cbr\&gt;\n\n\u003cspan\&gt;\u003cul\&gt;\u003cli\&gt;\u003ca href\u003d\"http://www.nanion.de\" target\u003d\"_blank\" onclick\u003d\"return top.js.OpenExtLink(window,event,this)\"\&gt;Nanion\u003c/a\&gt; - Automated Patch Clamp\u003c/li\&gt;\u003cli\&gt;\u003ca href\u003d\"http://www.bsys.ch\" target\u003d\"_blank\" onclick\u003d\"return top.js.OpenExtLink(window,event,this)\"\&gt;Bsys\u003c/a\&gt; - GLP ion channel screening, non GLP screening, ion channel cell lines\u003c/li\&gt;\u003cli\&gt;\u003ca href\u003d\"http://www.upstate.com/discovery/products/intro_ionchannel.asp?c\u003d707&amp;r\u003d809\" target\u003d\"_blank\" onclick\u003d\"return top.js.OpenExtLink(window,event,this)\"\&gt;Millipore\u003c/a\&gt; - High Quality, Functionally Validated, Ion Channel Cell Lines\u003c/li\&gt;\u003cli\&gt;\u003ca href\u003d\"http://www.neuroservice.fr\" target\u003d\"_blank\" onclick\u003d\"return top.js.OpenExtLink(window,event,this)\"\&gt;Neuroservice\u003c/a\&gt; - CRO for acute electrophysiological brain slice recording\u003c/li\&gt;\u003c/ul\&gt;Sponsorship slots are currently open. Visit our \u003ca href\u003d\"http://www.ionchannelmedia.com\" target\u003d\"_blank\" onclick\u003d\"return top.js.OpenExtLink(window,event,this)\"\&gt;corporate webpage\u003c/a\&gt; or \n  download our \u003ca href\u003d\"http://www.ionchannelmedia.com/ICMG_mediakit_2007_final.pdf\" target\u003d\"_blank\" onclick\u003d\"return top.js.OpenExtLink(window,event,this)\"\&gt;2007 media kit\u003c/a\&gt; to learn about the most highly targeted \n  life science advertising available.\n\u003c/span\&gt;\n\n\u003cbr\&gt;\u003cbr\&gt;\n\u003ccenter\&gt;\n\u003cimg\&gt;\n\u003c/center\&gt;\n\u003cbr\&gt;\n\u003cspan\&gt;Upcoming Events:\u003c/span\&gt;\u003cbr\&gt;\n\n\u003cspan\&gt;There are no conferences to announce currently. Please \u003ca href\u003d\"mailto:chesketh@ionchannels.org\" target\u003d\"_blank\" onclick\u003d\"return top.js.OpenExtLink(window,event,this)\"\&gt;contact us\u003c/a\&gt; to arrange the promotion of your next\n  conference\u003cbr\&gt;\n\n\u003ctable width\u003d\"200\" cellpadding\u003d\"0\" cellspacing\u003d\"0\" align\u003d\"left\" border\u003d\"0\"\&gt;\n\n\u003ctr\&gt;\n\n\u003ctd valign\u003d\"top\" width\u003d\"200\"\&gt;\n\n\u003cspan\&gt;Our other portals:\u003c/span\&gt;\u003cul\&gt;\n\n\u003cspan\&gt;\u003cli\&gt;\u003ca href\u003d\"http://www.aidshivresearch.com\" target\u003d\"_blank\" onclick\u003d\"return top.js.OpenExtLink(window,event,this)\"\&gt;",1] );  //-->Gene Therapy For Erectile Dysfunction Shows Promise In Clinical Trial</a></li>
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