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spelling todo:paper_16102940_v7_n7_p231_Tasso2023-10-03T16:27:55Z Pharmacophore model for antiepileptic drugs acting on sodium channels Tasso, S.M. Bruno-Blanch, L.E. Estiú, G.L. Antiepileptic Pharmacophore Quantum chemical molecular design Rational drug design Sodium channel anticonvulsive agent carbamazepine dezinamide ethosuximide felbamate gabapentin lamotrigine oxcarbazepine phenytoin ralitoline remacemide rufinamide sodium channel sodium channel blocking agent topiramate valproic acid vinpocetine zonisamide anticonvulsant activity article chemical interaction computer model conformation controlled study drug mechanism drug potency drug structure electric shock nerve block pharmacophore priority journal quantitative structure activity relation quantum chemistry seizure Fifteen antiepileptic drugs (AED), active against the maximal electroshock seizure test and able to block the neuronal voltage-dependent sodium channel, have been studied by means of a similarity analysis. Structural and electronic, quantum chemically derived characteristics are compared. Rigid analogs are included, because of the flexibility of some structures, in order to discern the conformational requirements associated with these ligands in the moment of the interaction. An inactive compound (ethosuximide) helps in the definition of the structural factors that are important for the activity. We propose a pharmacophore model that, giving an interpretation of the biological activity, allows the design of new AED with a well-defined mechanism of interaction. JOUR info:eu-repo/semantics/openAccess http://creativecommons.org/licenses/by/2.5/ar http://hdl.handle.net/20.500.12110/paper_16102940_v7_n7_p231_Tasso
institution Universidad de Buenos Aires
institution_str I-28
repository_str R-134
collection Biblioteca Digital - Facultad de Ciencias Exactas y Naturales (UBA)
topic Antiepileptic
Pharmacophore
Quantum chemical molecular design
Rational drug design
Sodium channel
anticonvulsive agent
carbamazepine
dezinamide
ethosuximide
felbamate
gabapentin
lamotrigine
oxcarbazepine
phenytoin
ralitoline
remacemide
rufinamide
sodium channel
sodium channel blocking agent
topiramate
valproic acid
vinpocetine
zonisamide
anticonvulsant activity
article
chemical interaction
computer model
conformation
controlled study
drug mechanism
drug potency
drug structure
electric shock
nerve block
pharmacophore
priority journal
quantitative structure activity relation
quantum chemistry
seizure
spellingShingle Antiepileptic
Pharmacophore
Quantum chemical molecular design
Rational drug design
Sodium channel
anticonvulsive agent
carbamazepine
dezinamide
ethosuximide
felbamate
gabapentin
lamotrigine
oxcarbazepine
phenytoin
ralitoline
remacemide
rufinamide
sodium channel
sodium channel blocking agent
topiramate
valproic acid
vinpocetine
zonisamide
anticonvulsant activity
article
chemical interaction
computer model
conformation
controlled study
drug mechanism
drug potency
drug structure
electric shock
nerve block
pharmacophore
priority journal
quantitative structure activity relation
quantum chemistry
seizure
Tasso, S.M.
Bruno-Blanch, L.E.
Estiú, G.L.
Pharmacophore model for antiepileptic drugs acting on sodium channels
topic_facet Antiepileptic
Pharmacophore
Quantum chemical molecular design
Rational drug design
Sodium channel
anticonvulsive agent
carbamazepine
dezinamide
ethosuximide
felbamate
gabapentin
lamotrigine
oxcarbazepine
phenytoin
ralitoline
remacemide
rufinamide
sodium channel
sodium channel blocking agent
topiramate
valproic acid
vinpocetine
zonisamide
anticonvulsant activity
article
chemical interaction
computer model
conformation
controlled study
drug mechanism
drug potency
drug structure
electric shock
nerve block
pharmacophore
priority journal
quantitative structure activity relation
quantum chemistry
seizure
description Fifteen antiepileptic drugs (AED), active against the maximal electroshock seizure test and able to block the neuronal voltage-dependent sodium channel, have been studied by means of a similarity analysis. Structural and electronic, quantum chemically derived characteristics are compared. Rigid analogs are included, because of the flexibility of some structures, in order to discern the conformational requirements associated with these ligands in the moment of the interaction. An inactive compound (ethosuximide) helps in the definition of the structural factors that are important for the activity. We propose a pharmacophore model that, giving an interpretation of the biological activity, allows the design of new AED with a well-defined mechanism of interaction.
format JOUR
author Tasso, S.M.
Bruno-Blanch, L.E.
Estiú, G.L.
author_facet Tasso, S.M.
Bruno-Blanch, L.E.
Estiú, G.L.
author_sort Tasso, S.M.
title Pharmacophore model for antiepileptic drugs acting on sodium channels
title_short Pharmacophore model for antiepileptic drugs acting on sodium channels
title_full Pharmacophore model for antiepileptic drugs acting on sodium channels
title_fullStr Pharmacophore model for antiepileptic drugs acting on sodium channels
title_full_unstemmed Pharmacophore model for antiepileptic drugs acting on sodium channels
title_sort pharmacophore model for antiepileptic drugs acting on sodium channels
url http://hdl.handle.net/20.500.12110/paper_16102940_v7_n7_p231_Tasso
work_keys_str_mv AT tassosm pharmacophoremodelforantiepilepticdrugsactingonsodiumchannels
AT brunoblanchle pharmacophoremodelforantiepilepticdrugsactingonsodiumchannels
AT estiugl pharmacophoremodelforantiepilepticdrugsactingonsodiumchannels
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