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Publication : Sex and estrous cycle affect experience-dependent plasticity in mouse primary visual cortex.

First Author  Schecter RW Year  2023
Journal  PLoS One Volume  18
Issue  4 Pages  e0282349
PubMed ID  37068089 Mgi Jnum  J:354713
Mgi Id  MGI:7465818 Doi  10.1371/journal.pone.0282349
Citation  Schecter RW, et al. (2023) Sex and estrous cycle affect experience-dependent plasticity in mouse primary visual cortex. PLoS One 18(4):e0282349
abstractText  Sex hormones can affect cellular physiology and modulate synaptic plasticity, but it is not always clear whether or how sex-dependent differences identified in vitro express themselves as functional dimorphisms in the brain. Historically, most experimental neuroscience has been conducted using only male animals and the literature is largely mute about whether including female mice in will introduce variability due to inherent sex differences or endogenous estrous cycles. Though this is beginning to change following an NIH directive that sex should be included as a factor in vertebrate research, the lack of information raises practical issues around how to design experimental controls and apply existing knowledge to more heterogeneous populations. Various lines of research suggest that visual processing can be affected by sex and estrous cycle stage. For these reasons, we performed a series of in vivo electrophysiological experiments to characterize baseline visual function and experience-dependent plasticity in the primary visual cortex (V1) of male and female mice. We find that sex and estrous stage have no statistically significant effect on baseline acuity measurements, but that both sex and estrous stage have can modulate two mechanistically distinct forms of experience dependent cortical plasticity. We also demonstrate that resulting variability can be largely controlled with appropriate normalizations. These findings suggest that V1 plasticity can be used for mechanistic studies focusing on how sex hormones effect experience dependent plasticity in the mammalian cortex.
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