Learn · Physics of Biological Systems
Lecture 13 of 65Week 3
Lecture 13: Cell Signalling and Capture Probability of absorbing sphere
Prof. Mithun Mitra · IIT Bombay
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All the lectures
- Lecture 1: Introduction
- Lecture 2: DNA packing and structure
- Lecture 3: Shape and function
- Lecture 4: Numbers and sizes
- Lecture 5: Spatial scales and System variation
- Lecture 6: Timescales in Biology
- Lecture 7: Random walks and Passive diffusion
- Lecture 8: Random walks to model Biology
- Lecture 9: Derivation of FRAP equations
- Lecture 10: Drift-diffusion equations
- Lecture 11: Solutions of the drift-diffusion equations
- Lecture 12: The cell signaling problem
- Lecture 13: Cell Signalling and Capture Probability of absorbing sphere
- Lecture 14: Capture probability of reflecting sphere
- Lecture 15: Mean capture time
- Lecture 16: Introduction to fluids, viscosity and reynolds number
- Lecture 17: Introduction to the navier stokes equation
- Lecture 18: Understanding reynolds number
- Lecture 19: Life at low reynolds number
- Lecture 20: Various phenomena at low reynolds number
- Lecture 21: Bacterial flagellar motion
- Lecture 22: Rotating flagellum
- Lecture 23: Energy and equilibrium
- Lecture 24: Binding problems
- Lecture 25: Transcription and translation
- Lecture 26: Internal states of macromolecules
- Lecture 27: Protein modification problem
- Lecture 28: Haemoglobin-Oxygen binding problem
- Lecture 29: Freely jointed polymer model
- Lecture 30: Entropic springs and persistence length
- Lecture 31: Freely rotating chain model and radius of gyration
- Lecture 32: The hierarchical chromatin packing model
- Lecture 33: FISH & DNA looping
- Lecture 34: Nucleosomes as barriers, Hi-C, and contact probabilities
- Lecture 35: Deriving the full force extension curve
- Lecture 36: Random walk models for proteins
- Lecture 37: Hydrophobic polar protein model
- Lecture 38: Diffusion in crowded environments
- Lecture 39: Depletion interactions
- Lecture 40: Examples & implications of depletion interactions
- Lecture 41: Introduction to Biological dynamics
- Lecture 42: Introduction to rate equations
- Lecture 43: Separation of timescales in enzyme kinetics
- Lecture 44: Structure and treadmilling of actins and microtubules
- Lecture 45: Average length of polymers in equilibrium
- Lecture 46: Growth rate of polymers
- Lecture 47: Dynamic treadmilling in microtubules
- Lecture 48: Introduction to molecular motors
- Lecture 49: Force generation by molecular motors
- Lecture 50: Models of motor motion
- Lecture 51: molecular motors
- Lecture 52: Free energies of motor for stepping
- Lecture 53: Two state models
- Lecture 54: cooperative transport of cargo
- Lecture 55: Cytoskeleton as a motor
- Lecture 56: translocation ratchet
- Lecture 57: Spatial pattern in biology
- Lecture 58: Some common spatial patterns in biology
- Lecture 59: reaction diffusion and spatial pattern
- Lecture 60: Pattern formation in reaction diffusion system with stability
- Lecture 61: Condition for destablization in pattern formation
- Lecture 62: Schnakenberg kinetics
- Live Session 08-02-2021
- Live Session 18-03-2021
- Live Session 20-02-2020