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Route to Prolonged Residence Time at the Histamine H(1) Receptor: Growing from Desloratadine to Rupatadine

[Image: see text] Drug–target binding kinetics are an important predictor of in vivo drug efficacy, yet the relationship between ligand structures and their binding kinetics is often poorly understood. We show that both rupatadine (1) and desloratadine (2) have a long residence time at the histamine...

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Autores principales: Bosma, Reggie, Wang, Zhiyong, Kooistra, Albert J., Bushby, Nick, Kuhne, Sebastiaan, van den Bor, Jelle, Waring, Michael J., de Graaf, Chris, de Esch, Iwan J., Vischer, Henry F., Sheppard, Robert J., Wijtmans, Maikel, Leurs, Rob
Formato: Online Artículo Texto
Lenguaje:English
Publicado: American Chemical Society 2019
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC6750840/
https://www.ncbi.nlm.nih.gov/pubmed/31274307
http://dx.doi.org/10.1021/acs.jmedchem.9b00447
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author Bosma, Reggie
Wang, Zhiyong
Kooistra, Albert J.
Bushby, Nick
Kuhne, Sebastiaan
van den Bor, Jelle
Waring, Michael J.
de Graaf, Chris
de Esch, Iwan J.
Vischer, Henry F.
Sheppard, Robert J.
Wijtmans, Maikel
Leurs, Rob
author_facet Bosma, Reggie
Wang, Zhiyong
Kooistra, Albert J.
Bushby, Nick
Kuhne, Sebastiaan
van den Bor, Jelle
Waring, Michael J.
de Graaf, Chris
de Esch, Iwan J.
Vischer, Henry F.
Sheppard, Robert J.
Wijtmans, Maikel
Leurs, Rob
author_sort Bosma, Reggie
collection PubMed
description [Image: see text] Drug–target binding kinetics are an important predictor of in vivo drug efficacy, yet the relationship between ligand structures and their binding kinetics is often poorly understood. We show that both rupatadine (1) and desloratadine (2) have a long residence time at the histamine H(1) receptor (H(1)R). Through development of a [(3)H]levocetirizine radiolabel, we find that the residence time of 1 exceeds that of 2 more than 10-fold. This was further explored with 22 synthesized rupatadine and desloratadine analogues. Methylene-linked cycloaliphatic or β-branched substitutions of desloratadine increase the residence time at the H(1)R, conveying a longer duration of receptor antagonism. However, cycloaliphatic substituents directly attached to the piperidine amine (i.e., lacking the spacer) have decreased binding affinity and residence time compared to their methylene-linked structural analogues. Guided by docking studies, steric constraints within the binding pocket are hypothesized to explain the observed differences in affinity and binding kinetics between analogues.
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spelling pubmed-67508402019-09-19 Route to Prolonged Residence Time at the Histamine H(1) Receptor: Growing from Desloratadine to Rupatadine Bosma, Reggie Wang, Zhiyong Kooistra, Albert J. Bushby, Nick Kuhne, Sebastiaan van den Bor, Jelle Waring, Michael J. de Graaf, Chris de Esch, Iwan J. Vischer, Henry F. Sheppard, Robert J. Wijtmans, Maikel Leurs, Rob J Med Chem [Image: see text] Drug–target binding kinetics are an important predictor of in vivo drug efficacy, yet the relationship between ligand structures and their binding kinetics is often poorly understood. We show that both rupatadine (1) and desloratadine (2) have a long residence time at the histamine H(1) receptor (H(1)R). Through development of a [(3)H]levocetirizine radiolabel, we find that the residence time of 1 exceeds that of 2 more than 10-fold. This was further explored with 22 synthesized rupatadine and desloratadine analogues. Methylene-linked cycloaliphatic or β-branched substitutions of desloratadine increase the residence time at the H(1)R, conveying a longer duration of receptor antagonism. However, cycloaliphatic substituents directly attached to the piperidine amine (i.e., lacking the spacer) have decreased binding affinity and residence time compared to their methylene-linked structural analogues. Guided by docking studies, steric constraints within the binding pocket are hypothesized to explain the observed differences in affinity and binding kinetics between analogues. American Chemical Society 2019-06-20 2019-07-25 /pmc/articles/PMC6750840/ /pubmed/31274307 http://dx.doi.org/10.1021/acs.jmedchem.9b00447 Text en Copyright © 2019 American Chemical Society This is an open access article published under a Creative Commons Non-Commercial No Derivative Works (CC-BY-NC-ND) Attribution License (http://pubs.acs.org/page/policy/authorchoice_ccbyncnd_termsofuse.html) , which permits copying and redistribution of the article, and creation of adaptations, all for non-commercial purposes.
spellingShingle Bosma, Reggie
Wang, Zhiyong
Kooistra, Albert J.
Bushby, Nick
Kuhne, Sebastiaan
van den Bor, Jelle
Waring, Michael J.
de Graaf, Chris
de Esch, Iwan J.
Vischer, Henry F.
Sheppard, Robert J.
Wijtmans, Maikel
Leurs, Rob
Route to Prolonged Residence Time at the Histamine H(1) Receptor: Growing from Desloratadine to Rupatadine
title Route to Prolonged Residence Time at the Histamine H(1) Receptor: Growing from Desloratadine to Rupatadine
title_full Route to Prolonged Residence Time at the Histamine H(1) Receptor: Growing from Desloratadine to Rupatadine
title_fullStr Route to Prolonged Residence Time at the Histamine H(1) Receptor: Growing from Desloratadine to Rupatadine
title_full_unstemmed Route to Prolonged Residence Time at the Histamine H(1) Receptor: Growing from Desloratadine to Rupatadine
title_short Route to Prolonged Residence Time at the Histamine H(1) Receptor: Growing from Desloratadine to Rupatadine
title_sort route to prolonged residence time at the histamine h(1) receptor: growing from desloratadine to rupatadine
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC6750840/
https://www.ncbi.nlm.nih.gov/pubmed/31274307
http://dx.doi.org/10.1021/acs.jmedchem.9b00447
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