<![CDATA[Human Anatomy: Unit 3]]>https://human-anatomy-unit-3-wddd9r.jellypod.comPowered by Jellypod (https://www.jellypod.com)Mon, 26 Oct 2026 14:13:03 GMTMon, 12 Oct 2026 18:15:03 GMTyes9e3e35bf-701e-4f73-88ed-3abad798b5d7Carlie DreherChapters 10, 11, 12, & 26 (Powered by Jellypod)Chapters 10, 11, 12, & 26 (Powered by Jellypod)episodicCarlie Dreherfeed+f313aa02@podcasts.jellypod.comfalse<![CDATA[Passing the Torch: Anatomy and Physiology of Human Reproduction]]>https://human-anatomy-unit-3-wddd9r.jellypod.com/episodes/2b0ed859-6e64-4f34-9c3d-f008bfc1d3212b0ed859-6e64-4f34-9c3d-f008bfc1d321Tue, 13 Oct 2026 02:20:27 GMT44Explore the complex anatomy and physiology of human reproduction, from temperature regulation and sperm production in the male system to the unique pathways of female gametes. Learn about the cellular mechanics of meiosis, hormonal control, and common clinical conditions like varicoceles and ectopic pregnancies.

]]>Carlie DreherExplore the complex anatomy and physiology of human reproduction, from temperature regulation and sperm production in the male system to the unique pathways of female gametes. Learn about the cellular mechanics of meiosis, hormonal control, and common cliExplore the complex anatomy and physiology of human reproduction, from temperature regulation and sperm production in the male system to the unique pathways of female gametes. Learn about the cellular mechanics of meiosis, hormonal control, and common clinical conditions like varicoceles and ectopic pregnancies.false00:14:24full<![CDATA[Appendicular Muscles: The Tradeoff Between Power and Mobility]]>https://human-anatomy-unit-3-wddd9r.jellypod.com/episodes/083a1112-7013-466e-a084-aa336edde293083a1112-7013-466e-a084-aa336edde293Tue, 13 Oct 2026 02:13:16 GMT33Explore the functional design of the appendicular skeleton as we break down the mobility of the upper limbs and the stability of the lower limbs. Discover the biomechanics behind the rotator cuff, the carpal tunnel, and key muscle groups driving movement from shoulder to hip.

]]>Carlie DreherExplore the functional design of the appendicular skeleton as we break down the mobility of the upper limbs and the stability of the lower limbs. Discover the biomechanics behind the rotator cuff, the carpal tunnel, and key muscle groups driving movement Explore the functional design of the appendicular skeleton as we break down the mobility of the upper limbs and the stability of the lower limbs. Discover the biomechanics behind the rotator cuff, the carpal tunnel, and key muscle groups driving movement from shoulder to hip.false00:10:04full<![CDATA[Wrapping, Levers, and the Axial Muscles]]>https://human-anatomy-unit-3-wddd9r.jellypod.com/episodes/f861041a-98c9-4acc-95c8-6712b8a02053f861041a-98c9-4acc-95c8-6712b8a02053Tue, 13 Oct 2026 01:58:39 GMT22Zoom out from the molecular level to explore how connective tissue wrapping, fascicle geometry, and biomechanical levers govern muscle function. We then tour the axial musculature, detailing the muscles responsible for facial expression, chewing, respiration, and trunk stability.

]]>Carlie DreherZoom out from the molecular level to explore how connective tissue wrapping, fascicle geometry, and biomechanical levers govern muscle function. We then tour the axial musculature, detailing the muscles responsible for facial expression, chewing, respiratZoom out from the molecular level to explore how connective tissue wrapping, fascicle geometry, and biomechanical levers govern muscle function. We then tour the axial musculature, detailing the muscles responsible for facial expression, chewing, respiration, and trunk stability.false00:08:08full<![CDATA[The Molecular Machine: How Muscles Contract]]>https://human-anatomy-unit-3-wddd9r.jellypod.com/episodes/11a8c427-6018-4f90-8858-21fa0bae30a911a8c427-6018-4f90-8858-21fa0bae30a9Tue, 13 Oct 2026 01:57:05 GMT11Journey deep inside muscle tissue to discover how microscopic proteins like actin and myosin drive movement through the sliding filament theory. Learn what powers each contraction, why muscles require ATP to relax, and how conditions like muscular dystrophy and myasthenia gravis occur when this delicate machinery fails.

Show Notes

]]>Carlie DreherJourney deep inside muscle tissue to discover how microscopic proteins like actin and myosin drive movement through the sliding filament theory. Learn what powers each contraction, why muscles require ATP to relax, and how conditions like muscular dystropJourney deep inside muscle tissue to discover how microscopic proteins like actin and myosin drive movement through the sliding filament theory. Learn what powers each contraction, why muscles require ATP to relax, and how conditions like muscular dystrophy and myasthenia gravis occur when this delicate machinery fails. Show Notes Muscles, Part 1 - Muscle Cells: Crash Course Anatomy & Physiology #21: https://www.youtube.com/watch?v=Ktv-CaOt6UQfalse00:08:45full