TY - JOUR
T1 - Novel pharmacologic strategies in the treatment of experimental traumatic brain injury
T2 - 1998
AU - McIntosh, T K
AU - Juhler, M
AU - Wieloch, T
PY - 1998/10
Y1 - 1998/10
N2 - The mechanisms underlying secondary or delayed cell death following traumatic brain injury are poorly understood. Recent evidence from experimental models suggests that widespread neuronal loss is progressive and continues in selectively vulnerable brain regions for months to years after the initial insult. The mechanisms underlying delayed cell death are believed to result, in part, from the release or activation of endogenous "autodestructive" pathways induced by the traumatic injury. The development of sophisticated neurochemical, histopathological and molecular techniques to study animal models of TBI have enabled researchers to begin to explore the cellular and genomic pathways that mediate cell damage and death. This new knowledge has stimulated the development of novel therapeutic agents designed to modify gene expression, synthesis, release, receptor or functional activity of these pathological factors with subsequent attenuation of cellular damage and improvement in behavioral function. This article represents a compendium of recent studies suggesting that modification of post-traumatic neurochemical and cellular events with targeted pharmacotherapy can promote functional recovery following traumatic injury to the central nervous system.
AB - The mechanisms underlying secondary or delayed cell death following traumatic brain injury are poorly understood. Recent evidence from experimental models suggests that widespread neuronal loss is progressive and continues in selectively vulnerable brain regions for months to years after the initial insult. The mechanisms underlying delayed cell death are believed to result, in part, from the release or activation of endogenous "autodestructive" pathways induced by the traumatic injury. The development of sophisticated neurochemical, histopathological and molecular techniques to study animal models of TBI have enabled researchers to begin to explore the cellular and genomic pathways that mediate cell damage and death. This new knowledge has stimulated the development of novel therapeutic agents designed to modify gene expression, synthesis, release, receptor or functional activity of these pathological factors with subsequent attenuation of cellular damage and improvement in behavioral function. This article represents a compendium of recent studies suggesting that modification of post-traumatic neurochemical and cellular events with targeted pharmacotherapy can promote functional recovery following traumatic injury to the central nervous system.
KW - Animals
KW - Anti-Inflammatory Agents/therapeutic use
KW - Antioxidants/therapeutic use
KW - Brain Injuries/drug therapy
KW - Calcium Channel Blockers/therapeutic use
KW - Calpain/antagonists & inhibitors
KW - Cholinergic Agents/therapeutic use
KW - Cryotherapy
KW - Disease Models, Animal
KW - Disease Progression
KW - Excitatory Amino Acid Antagonists/therapeutic use
KW - Nerve Degeneration/drug therapy
KW - Nerve Growth Factors/therapeutic use
KW - Neuroprotective Agents/therapeutic use
U2 - 10.1089/neu.1998.15.731
DO - 10.1089/neu.1998.15.731
M3 - Review
C2 - 9814632
SN - 0897-7151
VL - 15
SP - 731
EP - 769
JO - Journal of Neurotrauma
JF - Journal of Neurotrauma
IS - 10
ER -