Lectures related to Muscle cell

Explores muscle anatomy, function, force generation, and measurement techniques in biomechanics.

Explores the histological structure and function of the epididymis, emphasizing cell types and secretion processes.

Explores muscle functional anatomy, force generation, and biomechanical incorporation of spring and active elements.

Explores the concept and classification of tissues, with a focus on muscle tissue structure and function.

Explores muscle fibre types, performance, fatigue, and resistance training consequences, including hypertrophy and neural adaptations.

Explains the male reproductive system anatomy, including vas deferens, prostate, and seminal vesicles.

Covers the introduction and detailed anatomy of the digestive system, highlighting its purpose in managing nutrients and the challenges it faces.

Explores the anatomy and function of the pharynx muscles and related structures.

Explores the autonomic effects on the eye, focusing on adrenergic and cholinergic receptors and their impact on eye structures.

Discusses challenges in measuring depolarization propagation speed in muscle fibers.

Explores cup medialization in total hip arthroplasty, focusing on lever arms and bone stock.

Explores cardiac fiber properties, electrical signal generation, muscle coupling, and the cardiac cycle during systole and diastole.

Explores negative feedback in body temperature regulation and how it maintains core temperature around 37°C.

Delves into muscle contraction speed variations with load adjustments and force sensor movements.

Investigates how muscle length affects force generation during contractions through an experimental approach.

Discusses blood distribution, vascular structure, and smooth muscle regulation in the vascular system.

Covers the anatomy of the iliopsoas muscle and its related structures.

Covers the analysis of electromyography (EMG) data for evaluating muscle recruitment patterns.

Explores the analysis of excitability in muscle contraction, emphasizing force and stimulus relationship.

Discusses the final analysis of biomechanical results and the relationship between force and acceleration.