Motor proteins, such as myosin, kinesin, and dynein, utilize chemical energy to move along cellular tracks, influencing processes like muscle contraction, organelle movements, and cellular migration. With the ability to translocate using ATP hydrolysis, these proteins play crucial roles in various c

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Explore the fascinating process of muscle contraction through the sliding filament theory and cross bridge cycle. Developed by scientists in 1954, this mechanism involves the interaction between myosin and actin filaments, regulated by calcium and ATP. The cycle includes steps such as myosin binding

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Explore the essential roles of carbohydrates, proteins, and lipids in cell structure and function. Learn how cellulose, keratin, myosin, phospholipids, and more contribute to the structural integrity and metabolic activities within living organisms. Discover the significance of these biomolecules in

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Explore the dynamic world of gene expression with the Chunky and Chips Gene Expression Group at the University of Notre Dame. Dive into topics like transcription, translation, and cellular events influencing gene expression. Delve into real-world scenarios and gain insights into the cellular level b

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Plants exhibit a unique cell division process essential for growth and development. This process involves intricate control over the positioning of a new cell wall, crucial for proper patterning. Symmetrical and asymmetrical divisions play distinct roles in plant body formation, each regulated by sp

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Muscle tissue is a vital component in most animals, facilitating movement and maintaining posture. Derived from embryonic cells, muscles come in three types: skeletal, cardiac, and smooth, each serving specific functions in the body. While skeletal muscles are under voluntary control, cardiac and sm

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