The recognition that neurogenesis does not stop with adolescence has spun off research towards the reduction of brain disorders by enhancing brain regeneration. Adult neurogenesis is one of the tougher problems of developmental biology as it requires the generation of complex intracellular and pericellular anatomies, amidst the danger of neuroinflammation. We here review how a multitude of regulatory pathways optimized for early neurogenesis has to be revamped into a new choreography of time dependencies. Distinct pathways need to be regulated, ranging from neural growth factor induced differentiation to mitochondrial bioenergetics, reactive oxygen metabolism, and apoptosis. Requiring much Gibbs energy consumption, brain depends on aerobic energy metabolism, hence on mitochondrial activity. Mitochondrial fission and fusion, movement and perhaps even mitoptosis, thereby come into play. All these network processes are interlinked and involve a plethora of molecules. We recommend a deep thinking approach to adult neurobiology

Colangelo, A., Cirillo, G., Alberghina, L., Papa, M., Westerhoff, H. (2019). Neural plasticity and adult neurogenesis: the deep biology perspective. NEURAL REGENERATION RESEARCH, 14(2), 201-205 [10.4103/1673-5374.244775].

Neural plasticity and adult neurogenesis: the deep biology perspective

Colangelo, Anna Maria
Primo
;
Alberghina, Lilia;
2019

Abstract

The recognition that neurogenesis does not stop with adolescence has spun off research towards the reduction of brain disorders by enhancing brain regeneration. Adult neurogenesis is one of the tougher problems of developmental biology as it requires the generation of complex intracellular and pericellular anatomies, amidst the danger of neuroinflammation. We here review how a multitude of regulatory pathways optimized for early neurogenesis has to be revamped into a new choreography of time dependencies. Distinct pathways need to be regulated, ranging from neural growth factor induced differentiation to mitochondrial bioenergetics, reactive oxygen metabolism, and apoptosis. Requiring much Gibbs energy consumption, brain depends on aerobic energy metabolism, hence on mitochondrial activity. Mitochondrial fission and fusion, movement and perhaps even mitoptosis, thereby come into play. All these network processes are interlinked and involve a plethora of molecules. We recommend a deep thinking approach to adult neurobiology
Articolo in rivista - Review Essay
adult brain; deep biology; differentiation; energy homeostasis; mitochondria; nerve growth factor; neurogenesis; neuron; neuroregeneration; systems biology
English
7-dic-2018
2019
14
2
201
205
none
Colangelo, A., Cirillo, G., Alberghina, L., Papa, M., Westerhoff, H. (2019). Neural plasticity and adult neurogenesis: the deep biology perspective. NEURAL REGENERATION RESEARCH, 14(2), 201-205 [10.4103/1673-5374.244775].
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Utilizza questo identificativo per citare o creare un link a questo documento: https://hdl.handle.net/10281/212899
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