Concept

Passive transport

Related lectures (18)

Explores Gaussian solutions for the diffusion equation, ecological models, and morphogen gradients in biological systems.

Explains the passive membrane model in computational neuroscience and its mathematical aspects.

Explores the structure and function of proteins, essential for life.

Explores cell wall structures, membrane proteins, transport mechanisms, motility, and chemotaxis in prokaryotic cells.

Covers the role of ion channels in biological processes, from bacterial resistance to neuronal signaling and pain modulation.

Covers the electrical properties of neurons, focusing on ion transport mechanisms and their role in generating electrical signals.

Introduces transport phenomena, covering diffusion and thermal conduction in daily life.

Covers the introduction to transport phenomena, diffusion, and thermal conduction in daily life.

Explores different types of directed motion in cellular systems, emphasizing the role of motor proteins in transporting biomolecules.

Explores diffusion in fluid mechanics, discussing how molecules transport in a fluid without flow and deriving the convection-diffusion equation.

Explores the Nobel Prize-winning research on cell transport mechanisms and vesicle formation.

Explores classical size effects in transport perpendicular to boundaries, focusing on nanoscale heat transfer and energy conversion.

Discusses Ussing's model for epithelial transport and its experimental investigation.

Explores classical size effects in energy transport parallel to boundaries, emphasizing kinetic and thermal energy characteristics.

Explores mass transfer through diffusion mechanisms and transport forces.

Introduces the basics of plasma physics, covering collective behavior, Debye length, and plasma conditions.

Explores diffusive transport, classical and neo-classical diffusion, and turbulent transport in tokamak plasmas.

Explores diffusion in alloys, covering chemical diffusion, phase separation, and ionic crystals.