6533b871fe1ef96bd12d252e

RESEARCH PRODUCT

Role of hydrophobicity on the monoamine receptor binding affinities of central nervous system drugs: a quantitative retention-activity relationships analysis using biopartitioning micellar chromatography.

C. Quiñones‐torreloSalvador SagradoM.j. Medina-hernándezRosa María Villanueva-camañas

subject

Steric effectsQuantitative structure–activity relationshipStereochemistryClinical BiochemistryQuantitative Structure-Activity RelationshipSerotonergicBiochemistryAnalytical ChemistryReceptors Biogenic AmineReceptors Adrenergic alpha-1AnimalsReceptors Histamine H1ReceptorMicellesChromatographyChromatographyMolecular StructureChemistryCell MembraneBrainCell BiologyGeneral MedicineAffinitiesMonoamine neurotransmitterSerotonin 5-HT2 Receptor AntagonistsPharmacophoreReceptors Serotonin 5-HT2Quantitative analysis (chemistry)Central Nervous System Agents

description

Abstract Biological action and activity reflect an aspect of the fundamental physicochemical properties of the bioactive compounds. As an alternative to classical QSAR studies, in this work different quantitative retention–activity relationships (QRAR) models are proposed, which are able to describe the role of hydrophobicity on the binding affinity to different brain monoamine receptors (H 1 -histamine, α 1 -noradrenergic and 5-HT 2 -serotonergic) of different families of psychotherapeutic drugs. The retention of compounds is measured in a biopartitioning micellar chromatography (BMC) system using Brij-35 mobile phases. The adequacy of the QRAR models developed is due to the fact that both the retention of compounds in BMC and the drug–receptor interaction are described by the same hydrophobic, electronic and steric properties of compounds. The obtained results indicate that, for structurally related compounds that present the same molecular features as the basic pharmacophore, there is a retention range in which compounds present the highest affinity to all of monoamine receptors.

10.1016/j.jchromb.2003.11.008https://pubmed.ncbi.nlm.nih.gov/14751786