离域电子
化学型
中枢神经系统
化学
组合化学
药理学
亲环素
计算生物学
医学
生物
神经科学
生物化学
有机化学
色谱法
精油
基因
作者
Valeria Pingitore,Jessica Pancholi,Thomas W. Hornsby,Justin Warne,Gareth Pryce,Laura J. McCormick,Julia L. Hill,Gauri Bhosale,Jing Peng,Lydia S. Newton,Greg J. Towers,Simon J. Coles,A. W. Edith Chan,Michael R. Duchen,György Szabadkai,David Baker,David L. Selwood
出处
期刊:Science Advances
[American Association for the Advancement of Science (AAAS)]
日期:2024-07-10
卷期号:10 (28)
标识
DOI:10.1126/sciadv.ado3501
摘要
Macrocyclic drugs can address an increasing range of molecular targets but enabling central nervous system (CNS) access to these drugs has been viewed as an intractable problem. We designed and synthesized a series of quinolinium-modified cyclosporine derivatives targeted to the mitochondrial cyclophilin D protein. Modification of the cation to enable greater delocalization was confirmed by x-ray crystallography of the cations. Critically, greater delocalization improved brain concentrations. Assessment of the compounds in preclinical assays and for pharmacokinetics identified a molecule JP1-138 with at least 20 times the brain levels of a non-delocalized compound or those reported for cyclosporine. Levels were maintained over 24 hours together with low hERG potential. The paradigm outlined here could have widespread utility in the treatment of CNS diseases.
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