The design, preparation and SAR of novel small molecule sodium (Na + ) channel blockers
摘要:
A parallel strategy incorporating predictive modeling of both sodium site 2 blocking activity and cytochrome P450 CYP2D6 enzyme activity as well as experimental data from ADME profiling (eADME) has been applied to the design of new small molecule sodium channel blockers. New structural motifs were identified, which combined sodium channel activity with decreased ADME liabilities. Compounds 10h (site 2, IC50=531 nM) and 7j (site 2, IC50=149 nM) were identified from two structural classes as sodium channel blockers with favorable in vitro eADME profiles. (C) 2004 Elsevier Ltd. All rights reserved.
The design, preparation and SAR of novel small molecule sodium (Na + ) channel blockers
摘要:
A parallel strategy incorporating predictive modeling of both sodium site 2 blocking activity and cytochrome P450 CYP2D6 enzyme activity as well as experimental data from ADME profiling (eADME) has been applied to the design of new small molecule sodium channel blockers. New structural motifs were identified, which combined sodium channel activity with decreased ADME liabilities. Compounds 10h (site 2, IC50=531 nM) and 7j (site 2, IC50=149 nM) were identified from two structural classes as sodium channel blockers with favorable in vitro eADME profiles. (C) 2004 Elsevier Ltd. All rights reserved.
The design, preparation and SAR of novel small molecule sodium (Na + ) channel blockers
作者:Mark A Ashwell、Jean-Marc Lapierre、Alan Kaplan、Jenny Li、Christopher Marr、Jin Yuan
DOI:10.1016/j.bmcl.2004.02.078
日期:2004.5
A parallel strategy incorporating predictive modeling of both sodium site 2 blocking activity and cytochrome P450 CYP2D6 enzyme activity as well as experimental data from ADME profiling (eADME) has been applied to the design of new small molecule sodium channel blockers. New structural motifs were identified, which combined sodium channel activity with decreased ADME liabilities. Compounds 10h (site 2, IC50=531 nM) and 7j (site 2, IC50=149 nM) were identified from two structural classes as sodium channel blockers with favorable in vitro eADME profiles. (C) 2004 Elsevier Ltd. All rights reserved.