🧬 BDNF Extraction Viewer

Извлечено: 997 / 997 (100.0%) Средняя confidence: 0.13
← Назад к списку

Multiscale Mechanisms of Exercise-Induced Neuroplasticity: From Molecular Pathways to Network Dynamics and Behavioral Adaptation.

PMID: 41892637 · DOI: 10.3390/brainsci16030294 · Brain sciences, 2026 · Xue Wang, Jun Zhang, Xiaoyu Wang, Shuren Wang, Yidan Zhang, Yupeng Yang, Xuchang Zhou, Chang Liu, Junjie Liu, Mi Zheng
📄 Abstract

Exercise as a non-pharmacological measure is important to increase the brain plasticity hence improving cognitive performance as well as mental health. This narrative review describes in depth the hierarchical multiscale processes of neuroplasticity to exercise, including the presence of neurotrophic factor regulation, cellular metabolic adaptations and neurotransmitter remodeling, up to the structure and functional reorganization of brain networks as seen through neuroimaging, and concluding with adaptive cognitive and behavioral outcomes. We further investigate the role of personal variations in genetic time and social environments in moderating the neuroplasticity of exercise. Furthermore, the review identifies the importance of combining multimodal visualization methods with computational models in generating accurate workout prescriptions and their potential of translation into clinical and educational practice. Lastly, the research problems and "grand challenges" are addressed, with a focus on the importance of exercise as a pleiotropic behavior-intervention and its general implications to the area of promoting brain health.

Confidence: 0.14 · 3 полей извлечено
Идентификация (6 полей)
Механизм действия (21 полей)
Экспрессия (8 полей)
Tissue expression
0.00
In vitro
0.00
In vivo
Endurance training mitigates obesity-induced hippocampal impairment in female rat model; High-intensity interval training effects on neuroplasticity-related proteins in cerebrum of postnatally growth-restricted mice; Long-term moderate exercise regulates Wnt pathway in rat hippocampus; Differential expression of genes in RhoA/ROCK pathway in hippocampus and cortex following intermittent hypoxia and high-intensity interval training
0.90
In silico
0.00
Genetic association
0.00
Ex vivo
0.00
Animal model
Rat, mouse
0.90
Diet/model
Obesity-induced hippocampal impairment in female rat model; Postnatal growth restriction in mice; Intermittent hypoxia in rats
0.90
Клиника (11 полей)
Drug
0.00
Indication
0.00
Patient subgroups
0.00
Safety concerns
0.00
Off-target
0.00
Trial stage
0.00
Pharma competitors
0.00
AE severity
0.00
MOA weight loss
0.00
Endpoints
0.00
Approved
0.00