Lab Assignments
Plan on doing six experiments over the course of the semester.
- 1) Wavelength of a Laser: This is the first lab, everyone does it and we'll keep coming back to it as we talk about uncertainty analysis.
- 2-5) Four experiments of your choice, chosen from the list below. At least one of these four must be chosen from those marked by an asterix; they are new, or currently broken, and will probably take a better-than-average effort.
- 6) A final project. You may design your own (I encourage this!) or attempt to duplicate something from American Journal of Physics, or you can do an extra-thorough job on one of the experiments marked with an explanation point below.
Please note: Your first writeup, for "Measure the wavelength of a laser" is due 9/10/17. The point of this particular experiment is to gain experience in uncertainty analysis, so the first few homework assignments are probably quite relevant.
Also please note: the "location" of many items in this list is wrong because we just moved the lab. Be patient as I update pages.
PID Control
Chaos
- * Duffing oscillator circuit
- Bouncing-Ball circuit
- Physical pendulum
- Kiers' Circuit (* synchronization)
Nuclear
- Gamma spectroscopy
- Halflife measurements
- Compton Scattering
- * Muon Lifetime
- Electron-Positron Annihilation
- !* Alpha spectroscopy with a Raspberry Pi
Solid State
- Acoustic bandgap
- Quantum conductance
- Temperature coefficient of resistivity
- Band gap in semiconductors
- * Measurement of single-atom layers of graphene
Thermal
- Leidenfrost effect
- Heat flow: comparison of theory and experiment (1D or *2D)
- Ruchardt's method for Cp/Cv
- Interferometric measurement of thermal expansion
Vacuum
- Vacuum chamber: make a mirror
- !* Vacuum chamber: make a thin-film capacitor
Assorted
- Pfund's Method
- * Acoustic Impedance
- * Lock-In amplifier: measure c
- * Measurement of G / Cavendish balance
- Measurement of g / Kater's pendulum
- Lock-in Amplification and low-level measurements
- !* Mechanical analogue of NMR
- * Polarization characteristics of nanoparticle light scattering
- * Standing waves on a hanging chain
- Granular Flow
- * Franck-Hertz experiment
- * Coupled Oscillations