Acute stress promotes post-injury brain regeneration in fish

The central nervous system and the immune system, the two major players in homeostasis, operate in the ongoing bidirectional interaction. Stress is the third player that exerts strong effect on these two ‘supersystems’; yet, its impact is studied much less. In this work employing carp model, we stud...

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Veröffentlicht in:Brain research 2017-12, Vol.1676, p.28-37
Hauptverfasser: Sinyakov, Michael S., Haimovich, Amihai, Avtalion, Ramy R.
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Haimovich, Amihai
Avtalion, Ramy R.
description The central nervous system and the immune system, the two major players in homeostasis, operate in the ongoing bidirectional interaction. Stress is the third player that exerts strong effect on these two ‘supersystems’; yet, its impact is studied much less. In this work employing carp model, we studied the influence of preliminary stress on neural and immune networks involved in post-injury brain regeneration. The relevant in vivo models of air-exposure stress and precisely directed cerebellum injury have been developed. Neuronal regeneration was evaluated by using specific tracers of cell proliferation and differentiation. Involvement of immune networks was accessed by monitoring the expression of selected T cells markers. Contrast difference between acute and chronic stress manifested in the fact that chronically stressed fish did not survive the brain injury. Neuronal regeneration appeared as a biphasic process whereas involvement of immune system proceeded as a monophasic route. In stressed fish, immune response was fast and accompanied or even preceded neuronal regeneration. In unstressed subjects, immune response took place on the second phase of neuronal regeneration. These findings imply an intrinsic regulatory impact of acute stress on neuronal and immune factors involved in post-injury brain regeneration. Stress activates both neuronal and immune defense mechanisms and thus contributes to faster regeneration. In this context, paradoxically, acute preliminary stress might be considered a distinct asset in speeding up the following post-injury brain regeneration.
doi_str_mv 10.1016/j.brainres.2017.09.009
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subjects Acute Disease
Acute stress
Air
Animals
Blood Glucose
Brain - pathology
Brain - physiopathology
Brain Injuries - pathology
Brain Injuries - physiopathology
Brain injury
Carps
CD8 Antigens - metabolism
Cerebellum
Chronic Disease
Fish
Fish Proteins - metabolism
Nerve Regeneration - physiology
Neuronal regeneration
Neurons - pathology
Neurons - physiology
Physical Stimulation
Stress, Physiological - physiology
title Acute stress promotes post-injury brain regeneration in fish
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