Biophysics: Cellular Systems and Physical Principles

Related lectures (37)

Explores major themes in biology, focusing on energy transformations within cellular systems and the crucial role of adenosine triphosphate (ATP).

Explores statistical mechanics models for mechanosensitive ion channels and proteins, including amino acid sequences and biophysical models.

Explores the transport mechanisms of the Malaria Parasite in the Red Blood Cell, focusing on protein export, nutrient import, and lipid transport.

Explores the statistical definition of entropy, adatoms on a surface, and mixing in a solid solution.

Explores TRP channels' role in sensory perception, focusing on their activation by various stimuli and their implications in disease pathogenesis.

Delves into protein polymers, discussing co-evolution, diffusion, protein structures, and experimental methods.

Covers entropy, its definition, and its implications in thermodynamics.

Explores cell composition, including macromolecules, metabolites, ribosomes, and ion concentration, in prokaryotic cells like E. coli.

Explores statistical mechanics models, crowding in E. coli, and subcellular organization.

Covers microstates, macrostates, entropy, and density of states in statistical mechanics.

Explores Fresnel and Fraunhofer diffraction, near vs far field observations, lens focusing, and x-ray diffraction by crystals.

Covers the analysis of hyperstatic structures using virtual work principles and computational methods.

Explores the applications of Archimedes' force in various scenarios and includes an experiment with a helium balloon on a rotating table.

Introduces the Ellingham diagram and its significance in metallurgy and thermodynamics of metals.

Covers basic thermodynamic conventions, chemical potential, vapor pressure, and the relationship between chemical potential and pressure in gases.

Covers the concept of virtual work and equilibrium in structural analysis.

Compares physisorption and chemisorption, covering interaction, strength, equilibrium, and gas adsorption isotherms.

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