Circadian Clocks: Mastering Your Body’s Natural Rhythm
Explore the biological processes that drive your body’s circadian rhythm on this online course from Taipei Medical University. Gain scientific insights to boost your sleep, energy, and focus.
Duration
4 weeks
Weekly study
2 hours
100% online
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Unlimited subscription
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Your body operates on a natural 24-hour cycle that regulates everything from sleep patterns to energy levels, but common disruptors like jet lag, shift work, and irregular schedules can easily throw it off balance.
Explore the biological mechanisms behind this vital system on this flexible, online course from Taipei Medical University.
In just four weeks, you’ll uncover the science of circadian rhythms and discover how they shape sleep, energy, and metabolism – giving you the tools to optimise your health and enhance your daily performance.
You’ll begin this course by exploring the molecular biology behind your body’s internal clock, learning how genes, proteins, and biochemical processes work together to regulate circadian rhythms.
You’ll then explore the biological mechanisms that regulate your circadian rhythms, including the role of genetic circuits and time-delayed negative feedback.
Through an in-depth look at key proteins and molecular pathways, you’ll uncover how these intricate processes help synchronise your body’s internal clock with the external environment, keeping vital functions in balance.
You’ll finally, delve into how your chronotypes – your body’s natural sleep-wake cycles – affect circadian rhythms and the role of external cues (e.g. light) in clock synchronisation.
As you explore intricate inner workings and fascinating phenomena, like social jet lag, you’ll apply mathematical modelling techniques to study circadian clocks and gain insights into the latest research from Taipei Medical University.
This session explores the circadian clock, an intrinsic 24-hour rhythm that is genetic, autonomous, and persists across generations and environments.
We will explore the biological basis of the circadian clock using doubleplot actograms to understand genetically persistent rhythms.
Time-delayed negative feedback involves a system where output affects input after a delay, stabilizing fluctuations and promoting equilibrium.
We will explore how mutations in the PER gene affect circadian rhythms through time-delayed feedback.
n this session, we will explore how the suprachiasmatic nucleus (SCN) orchestrates circadian rhythms and synchronizes body clocks across organisms.
In this session, we will explore how phase differences and spontaneous synchronization in the SCN regulate circadian rhythms, coordinating body-wide clocks.
Entrainment and Chronotypes
Explore how light influences our internal clocks, the biological diversity of chronotypes, and the phenomenon of social jet lag.
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