De Anza College - Lana Sheridan
Office Hours : T & F 10:30-11:20 | Select a Course ⇛
Physics 4C
Syllabus
Lecture Notes
Homeworks
some HW may be posted here
Labs
Lecture for Lab 1
Lab 1: Buoyancy
Lecture for Lab 3
Lab 3: Thermal Expansion
Lecture for Lab 4
Lab 4: Ideal Gas
Lecture for Lab 6 (Mon)
Lab 7: Refraction
Lecture for Lab 7
Lab 8: Lenses
Lecture for Lab 8
Lecture for Lab 9
Resources
Study Advice
Unit Scaling Symbols
Links
Other Material
Previous Lecture Material
2B Labs
Lecture Module Video: Background and introduction (MP4 file)
Watch this first:
Lecture Module Video: Fluids and Pressure
Then check out the first 1 min 40 sec of this:
YouTube - Magdeburg Hemispheres Demo
(We will talk about liquid pressure - the rest of the video - later.)
PDF of Problems
Lecture Module Video: Elastic Moduli
PDF of Problems
Lecture Module Video: Class Policies
Lecture 1: Liquid pressure
Lecture 1: Liquid pressure (recording, mp4)
Lecture 2: Pascal's principle, pressure measurements, introduction to fluid dynamics
Lecture 3: Fluid dynamics, continuity equation, Bernoulli's equation
Lecture 4: Torricelli's law, Bernoulli's equation applications, introducing Thermodynamics
Lecture 5: Heat and temperature
Lecture 6: Thermal expansion
Lecture 7: More thermal expansion
Lecture 8: The ideal gas equation
Lecture 9: Heat, internal energy, heat capacity
Lecture 10: Heat capacity, phase changes, latent heat
Lecture 11: Phase changes, work done on a gas
Lecture 12: Heat and work, first law of thermodynamics, P-V diagrams
Lecture 13: First law of thermodynamics, more P-V diagrams
Lecture 14: Heat transfer, thermal conductivity
Lecture 15: Thermal conductivity, convection, radiative heat transfer
Lecture 16: Molecular model of a gas
Lecture 17: Molecular model of a gas
Lecture 18: Molar heat capacities of a monatomic gas
Lecture 19: Heat capacities of a diatomic gas, adiabatic processes
Lecture 20: Boltzmann and Maxwell-Boltzmann distributions
Lecture 21: Maxwell-Boltzmann distribution, 2nd Law
Lecture 22: Entropy (macroscopically)
Lecture 23: Entropy (microscopically)
Lecture 24: Entropy (microscopically), heat engines, heat pumps
Lecture 25: The Carnot engine
Lecture 26: Finish heat engines
Lecture Module Video: Entropy and Engines
Lecture Module Video: Real Engines
Lecture 27: Oscillations, SHM, intro to waves, pulse propagation
Lecture 28: Wave speed on a string, the wave equation
Lecture 29: Solutons to the wave equation, sine waves
Lecture 30: Transverse speed and acceleration, energy transfer
Lecture 31: Power of a wave, interference, reflection
Lecture 32: Interference of waves, reflection
Lecture 33: Reflection and transmission, standing waves, sound
Lecture 34: Sound waves, speed of sound
Animation: Sound waves (You need to open it in Adobe)
Lecture 35: Speed of sound, interference of sound
Lecture 36: Standing waves and sound
Lecture 37: Standing waves in rods and membranes, beats
Beats Demo (video)
Lecture 38: Nonsinusoidal waves, intensity
Lecture 39: Sound level, the Doppler effect
Lecture 40: The Doppler effect, bow and shock waves
Lecture 41: The nature of light, light as a wave, speed of light
TED talk about measuring speed of light (7.5min)
Lecture 42: Ray optics, reflection
Lecture 43: Refraction, dispersion, total internal reflection
Lecture 44: Dispersion, total internal reflection, image formation terminology
Lecture 45: Image formation from mirrors
Lecture 46: Image formation from refracting surfaces
Lecture 47: Image formation from lenses
Lecture 48: Lenses
Lecture 49: Wave behavior in optics, interference from multiple slits, diffraction gratings
Lecture 50: Diffraction, diffraction intensity, Raleigh's criterion