TY - JOUR
T1 - Exercise and the Brain
T2 - Lessons From Invertebrate Studies
AU - Dyakonova, Varvara
AU - Mezheritskiy, Maxim
AU - Boguslavsky, Dmitri
AU - Dyakonova, Taisia
AU - Chistopolsky, Ilya
AU - Ito, Etsuro
AU - Zakharov, Igor
N1 - Funding Information:
This work was supported by the following funding sources: RSF 22-24-00318 to VD, the Koltzov Institute of Developmental Biology Russian Academy of Sciences Basic Research Program 0088-2021-0008, and the Waseda University Grant for Special Research Projects 2018K-141 to EI.
Publisher Copyright:
Copyright © 2022 Dyakonova, Mezheritskiy, Boguslavsky, Dyakonova, Chistopolsky, Ito and Zakharov.
PY - 2022/6/28
Y1 - 2022/6/28
N2 - Benefits of physical exercise for brain functions are well documented in mammals, including humans. In this review, we will summarize recent research on the effects of species-specific intense locomotion on behavior and brain functions of different invertebrates. Special emphasis is made on understanding the biological significance of these effects as well as underlying cellular and molecular mechanisms. The results obtained in three distantly related clades of protostomes, Nematodes, Molluscs and Artropods, suggest that influence of intense locomotion on the brain could have deep roots in evolution and wide adaptive significance. In C. elegans, improved learning, nerve regeneration, resistance to neurodegenerative processes were detected after physical activity; in L. stagnalis—facilitation of decision making in the novel environment, in Drosophila—increased endurance, improved sleep and feeding behavior, in G. bimaculatus—improved orientation in conspecific phonotaxis, enhanced aggressiveness, higher mating success, resistance to some disturbing stimuli. Many of these effects have previously been described in mammals as beneficial results of running, suggesting certain similarity between distantly-related species. Our hypothesis posits that the above modulation of cognitive functions results from changes in the organism’s predictive model. Intense movement is interpreted by the organism as predictive of change, in anticipation of which adjustments need to be made. Identifying the physiological and molecular mechanisms behind these adjustments is easier in experiments in invertebrates and may lead to the discovery of novel neurobiological mechanisms for regulation and correction of cognitive and emotional status.
AB - Benefits of physical exercise for brain functions are well documented in mammals, including humans. In this review, we will summarize recent research on the effects of species-specific intense locomotion on behavior and brain functions of different invertebrates. Special emphasis is made on understanding the biological significance of these effects as well as underlying cellular and molecular mechanisms. The results obtained in three distantly related clades of protostomes, Nematodes, Molluscs and Artropods, suggest that influence of intense locomotion on the brain could have deep roots in evolution and wide adaptive significance. In C. elegans, improved learning, nerve regeneration, resistance to neurodegenerative processes were detected after physical activity; in L. stagnalis—facilitation of decision making in the novel environment, in Drosophila—increased endurance, improved sleep and feeding behavior, in G. bimaculatus—improved orientation in conspecific phonotaxis, enhanced aggressiveness, higher mating success, resistance to some disturbing stimuli. Many of these effects have previously been described in mammals as beneficial results of running, suggesting certain similarity between distantly-related species. Our hypothesis posits that the above modulation of cognitive functions results from changes in the organism’s predictive model. Intense movement is interpreted by the organism as predictive of change, in anticipation of which adjustments need to be made. Identifying the physiological and molecular mechanisms behind these adjustments is easier in experiments in invertebrates and may lead to the discovery of novel neurobiological mechanisms for regulation and correction of cognitive and emotional status.
KW - cognitive functions
KW - desicion making
KW - intense locomotion
KW - invertebrate model organisms
KW - learning and memory
KW - motor performance
KW - nerve regeneration
KW - orientation
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U2 - 10.3389/fnbeh.2022.928093
DO - 10.3389/fnbeh.2022.928093
M3 - Review article
AN - SCOPUS:85134194638
SN - 1662-5153
VL - 16
JO - Frontiers in Behavioral Neuroscience
JF - Frontiers in Behavioral Neuroscience
M1 - 928093
ER -