Por favor, use este identificador para citar o enlazar este ítem: http://repositorio.pediatria.gob.mx:8180/handle/20.500.12103/2380
Título : Effects of oxcarbazepine on the behavioral response and neuroanatomical alterations following administration of kainic acid
Creador: Gonzalez Maciel, Angelica
Nivel de acceso: Open access
Palabras clave : Anticonvulsivantes - farmacología
Conducta Animal - efectos de drogas
Carbamazepina - análogos y derivados
Carbamazepina - farmacología
Agonistas de Aminoácidos Excitadores - farmacología
Hipocampo - fisiopatología
Ácido Kaínico - farmacología
Ácido Kaínico - administración y dosificación
Ácido Kaínico - antagonistas e inhibidores
Sistema Nervioso - efectos de drogas Sistema Nervioso - patología
Convulsiones - inducido químicamente
Convulsiones - patología
Convulsiones prevención y control
Ratas
Anticonvulsants -pharmacology
Behavior, Animal - drug effects
Carbamazepine - analogs & derivatives
Carbamazepine -pharmacology
Excitatory Amino Acid Agonists - pharmacology
Hippocampus - physiopathology
Kainic Acid - pharmacology
Kainic Acid - administration & dosage
Kainic Acid - antagonists & inhibitors
Nervous System - drug effects Nervous System - pathology
Seizures - chemically induced
Seizures - pathology
Seizures - prevention & control
Rats
Carbamazepina
Ácido Kaínico
farmacología
Anticonvulsivantes
Sistema Nervioso
Carbamazepine
Kainic Acid
pharmacology
Anticonvulsants
Nervous System
Descripción : Epilepsy is considered to be a disorder intrinsic to the brain, deriving from either a hereditary tendency or a prior insult, in which a portion of the brain is rendered electrically unstable [1]. Temporal lobe epilepsy is the most devastating form of epilepsy commonly encountered in the adult population. The attacks involve loss of consciousness, thus limiting performance of normal functions and exposing the individual to bodily injury. Moreover, long-standing or pharmacologically intractable temporal lobe epilepsy is frequently associated with the loss of neurons from the hippocampus and other brain regions [2-4] Unfortunately, pharmacologically intractable cases are rather common, owing to the relatively low efficacy against this condition of the available anticonvulsants. As ethical considerations rule out use of the modern neuroscientific tools in intact human brain, the study of epilepsy has been dependent upon use of model systems. Much of what is known about the epilepsy is derived from animal models [5]. Basic models of epilepsy have been used to explore questions about seizures and the electrical activity of the brain. These questions are related to the underlying EEG generators of electrical potentials associated with seizures: the nature and identity of neuronal systems able to produce epilepsy; issues of why seizures start, spread and stop, and why seizures occur when they do; what type of pathologies in brain give rise to seizures; whether seizures cause damage to brain; and the mechanisms of action of anticonvulsant drugs [6-8].
Colaborador(es) u otros Autores: Reynoso Robles R
 Romero RM
 Huerta B
 González V
 Vargas L
 Ayala Guerrero F.
Fecha de publicación : 2000
Tipo de publicación: Artículo
Formato: pdf
Fuente: Proceedings of the Western Pharmacology Society 43():35-37
URI : http://repositorio.pediatria.gob.mx:8180/handle/20.500.12103/2380
Idioma: eng
Aparece en las colecciones: Artículos

Ficheros en este ítem:
No hay ficheros asociados a este ítem.


Los ítems de DSpace están protegidos por copyright, con todos los derechos reservados, a menos que se indique lo contrario.