University of California Davis
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- 2019
- UCD: Physics 7A
- UCD: Physics 7B
- 5: Flow, Transport and Exponential
- 5.0: Overview of Flow, Transport and Exponential
- 5.1: Steady-State Energy-Density Model
- 5.2: Steady-State Energy Density Model Applied to Fluids
- 5.3: Steady-State Energy Density Model Applied to Electric Circuits
- 5.4: Examples of Using the Steady-State Energy Density Model
- 5.5: Simple Circuit Analysis Techniques
- 5.6: Extending the Electrical Model
- 5.7: The Linear Transport Model
- 5.8: Exponential Change Model
- 5.9: Wrap up
- 6: Space, Time, and the Agent of Interactions
- 7: Momentum Conservation
- 7.0: Overview
- 7.1: (Linear) Momentum Conservation Model
- 7.2: Applications of Momentum Conservation
- 7.3: Momentum Conservation Model Summary
- 7.4: Angular Momentum Conservation Model
- 7.5: The Rotational Analogs of Force, Momentum, Mass and Impulse
- 7.6: Other Angular Counterparts
- 7.7: Interesting Effects Involving Angular Momentum
- 7.8: Angular Momentum Conservation Model Summary
- 7.9: Wrap-up
- 8: Detailed Relation of Force to Motion
- Agenda
- 5: Flow, Transport and Exponential
- UCD: Physics 7C
- UCD: Physics 9A/9HA – Classical Mechanics
- UCD: Physics 9C – Electricity and Magnetism
- UCD: Physics 9HE - Modern Physics
- UCD: Physics 156 - A Cosmology Workbook
- A Cosmology Workbook
- Overview
- 1: Euclidean Geometry
- 2: Curvature
- 3: Galilean Relativity
- 4: Einstein Relativity
- 5: The Simplest Expanding Spacetime
- 6: Redshifts
- 7: Distances as Determined by Standard Candles
- 8: The Distance-Redshift Relation
- 9: Dynamics of the Expansion
- 10: A Newtonian Homogeneous Expanding Universe
- 11: The Friedmann Equation
- 12: Particle Kinematics in an Expanding Universe - Newtonian Analysis
- 13: The Evolution of Mass-Energy Density and a First Glance at the Contents of the Cosmos
- 14: Energy and Momentum Conservation
- 15: Pressure and Energy Density Evolution
- 16: Distance and Magnitude
- 17: Parallax, Cepheid Variables, Supernovae, and Distance Measurement
- 18: Cosmological Data Analysis
- 19: The Early Universe
- 20: Equilibrium Statistical Mechanics
- 21: Equilibrium Particle Abundances
- 22: Hot and Cold Relics of the Big Bang
- Exercise Solutions
- S01. Euclidean Geometry - SOLUTIONS
- S02. Curvature - SOLUTIONS
- S03. Galilean Relativity - SOLUTIONS
- S04. Einstein Relativity - SOLUTIONS
- S05. Spacetime - SOLUTIONS
- S07. Distances as Determined by Standard Candles - SOLUTIONS
- S08. The Distance-Redshift Relation - SOLUTIONS
- S10. A Newtonian Homogeneous Expanding Universe - SOLUTIONS
- S11. The Friedmann Equation - SOLUTIONS
- S12. Particle Kinematics in an Expanding Universe: Newtonian Analysis - SOLUTIONS
- S13. The Evolution of Mass-Energy Density and a First Glance at the Contents of the Cosmos - SOLUTIONS
- S15 Pressure and Energy Density Evolution SOLUTIONS
- S16. Distance and Magnitude - SOLUTIONS
- S19 Equilibrium Statistical Mechanics SOLUTIONS
- A Cosmology Workbook
- UCD: Biophysics 200A - Current Techniques in Biophysics
- Biological Energy - Charge Transfer Reactions in Mitochondrial Respiratory Chain
- Dynamic Force Spectroscopy
- Electron Paramagnetic Resonance
- NMR Spectroscopy vs. X-ray Crystallography
- Raman Scattering and Surface Enhanced Raman Spectroscopy
- Surface Force Apparatus
- Transient Photobiology
- X-ray Protein Crystallography
- UCD: Biophysics 241 - Membrane Biology
- Lipids
- Membranes Properties and Morphologies
- Membrane Phases
- Experimental Characterization
- AFM on Membranes
- Electrospray Ionization (ESI) Mass Spectrometry
- Fluorescence on Membranes
- FTIR on Membranes
- Mass Analyzer Orbitrap
- Mass Analyzer Time of Flight
- Mass Spectrometry
- Model membranes vs. biological membranes
- Near-field scanning optical microscopy (NSOM)
- Raman Spectroscopy
- Single Molecule Tracking
- SMALP Technology
- Solid-state NMR
- Supported and Tethered Membranes
- Computational Characterization
- Extra Credit
- coarse grain simulations of membranes
- Designing molecular models of membranes with VMD
- EPR of membranes
- insertion of membrane proteins into lipid membranes
- Lipids in non-aqueous environments
- Lipid Probes
- Mass spectrometer Ionization Techniques for Membrane Proteins
- mathematical continuum descriptions of membranes
- nanoparticle interaction/penetration into cell membranes
- NMR of membranes
Fri, 08 Jul 2016 18:51:50 GMT
University of California Davis