Project description:Timed sleep restriction designed to mimic human shift work was performed over a 2 week period in mice. On the final day, tissues were collected at 6 hour intervals to exmaine the effects of sleep restriction on circadian gene expression. 3 mice were used at each time point, for both controls and sleep restricted groups.
Project description:Timed sleep restriction designed to mimic human shift work was performed over a 2 week period in mice. On the final day, tissues were collected at 6 hour intervals to exmaine the effects of sleep restriction on circadian gene expression.
Project description:Timed sleep restriction designed to mimic human shift work was performed over a 2 week period in mice. On the final day, MBH biopsies were collected at 6 hour intervals to exmaine the effects of sleep restriction on circadian gene expression. (MBH = mediobasal hypothalamus)
Project description:We hybridzed cRNA from epididymal white adipose tissue collected at ZT18 of control animals and TSR animals (TSR: these mice were sleep restricted for 6 hours every day by gentle handling for 5 consecutive days and killed on the last day at ZT18) mice used in this study were C57BL/6 control mice were compared to timed sleep restriction mice (TSR: these mice were sleep restricted for 6 hours every day by gentle handling for 5 consecutive days and killed on the last day at ZT18)
Project description:Meal timing is essential in synchronization of circadian rhythms in different organ systems through clock-dependent and -independent mechanisms. The liver is a critical metabolic organ whose circadian clock and transcriptome can be readily reset by meal timing. However, it remains largely unexplored how circadian rhythms in the liver are organized in time-restricted feeding that intervenes meal timing. Here, we applied data-independent acquisition proteomics to characterize circadian features associated with day/sleep- (DRF) and night/wake (NRF)-time restricted feeding in nocturnal female mice. The transcriptomics and metabolomics datasets are public (see www.circametdb.org.cn).
Project description:Meal timing is essential in synchronization of circadian rhythms in different organ systems through clock-dependent and -independent mechanisms. The liver is a critical metabolic organ whose circadian clock and transcriptome can be readily reset by meal timing. However, it remains largely unexplored how circadian rhythms in the liver are organized in time-restricted feeding that intervenes meal timing. Here, we applied affinity-purification based shotgun proteomics for N-glycosylation to characterize circadian features associated with day/sleep- (DRF) and night/wake (NRF)-time restricted feeding in nocturnal female mice. The transcriptomics and metabolomics datasets are public (see www.circametdb.org.cn).
