PIRA 7A50.00 WAVE MECHANICS

DCS #DEMONSTRATIONREFERENCEABSTRACT
7A50.00Wave Mechanics
7A50.10optical barrier penetrationPIRA 500
7A50.10frustrated total internal reflectionAJP 54(7),601A review of the history and theory. Pellin-Broca prisms eliminate reflection losses when measurements are taken.
7A50.10frustrated total internal reflectionAJP 33(5),xviiiSqueeze two right angle prisms together with a "c" clamp while directing a beam of light at the interface.
7A50.10optical barrier penetrationAJP 43(1),107A Laboratory setup of optical barrier penetration.
7A50.10barrier penetration38-6.7Frustrated total internal reflection with light and glass prisms demonstrates barrier penetration.
7A50.11almost total reflectionAJP 39(10),1141Use a plano-convex lens between the prisms and laser beam illumination.
7A50.12frustrated total internal reflectionAJP 52(4),377A good note on frustrated total internal reflection and other accompanying physics.
7A50.15tunnel effect38-6.8Rocksalt prisms with gaps of 5 microns and 15 microns show transmission of IR to a thermopile. in one case only.
7A50.20microwave barrier penetrationPIRA 500
7A50.20microwave barrier penetrationAJP 31(10),808Two right angle paraffin prisms are used with 3 cm microwaves to demonstrate barrier penetration.
7A50.20optical and microwave penetrationAJP 39(1),74Two detectors are used in both optical and microwave barrier penetration to quantitatively show the reflected and transmitted beams.
7A50.20frustrated total internal reflection38-6.6Demonstrate frustrated total internal reflection using microwaves and two right angle paraffin prisms. Pictures, Reference: AJP 31(10),808.
7A50.20microwave barrier penetrationDisc 24-22Microwaves are totally reflected off a plastic prism until another is touching the first.
7A50.21microwave tunnel effectAJP 33(10),xiiiA waveguide transmission line with three dielectric regions driven at 5 GHz.
7A50.21microwave tunnel effectAJP 34(3),260A microwave "potential barrier" of three sections of waveguide - with dielectric, air and again dielectric.
7A50.30vibrating soap filmPIRA 1000
7A50.30vibrating soap film38-6.3Soap films are vibrated at audio frequencies to produce standing waves which are projected on a screen.
7A50.35circular Rubens tube38-6.4A 4' diameter circular Rubens flame tube demonstrates circular standing waves. Picture.
7A50.40vibrating circular wirePIRA 200Excite a circular wire at audio frequencies by an electromagnet drive to produce standing waves.
7A50.40vibrating circular wire7A50.40
7A50.40vibrating circular wireAJP 33(10),xivEigenfrequences of a 2.2" dia. wire circle are obtained by exciting with a 650 ohm relay coil.
7A50.40vibrating circular wire38-6.5A circular wire is excited at audio frequencies by an electromagnet drive to produce standing waves. Diagram, Pictures, Reference: AJP 33(10),xiv.
7A50.50complementary rulePIRA 1000
7A50.50uncertainty principle with E&MAJP 51(3),239Interpret the inverse relation between the pulse length of a signal on the oscilloscope and the spectral-energy density on a spectrum analyzer as a demonstration of the uncertainty principle.
7A50.50complementarity ruleAJP 39(3),302Circuit for a generator that produces 1,2,4,8, or 16 pulses in a packet. Decrease in bandwidth for longer packets is evident when the Fourier power spectrum is viewed.
7A50.52electric analog circuitAJP 34(12),1122A three dimensional electrical network of inductors and capacitors models energy density in three dimensions.
7A50.60photon counter - correlatorAJP 50(11),996A low cost time correlator-photon counter enables demonstrations of intensity correlation function, photon-bunching, coherence time, and related topics.
7A50.80Kronig-Penny model analog computerAJP 41(8),990Diagram for an analog computer to simulate the Kronig-Penny model wave functions.
7A50.90Mermin's Bell theorem boxesPIRA 1000
7A50.90Mermin's Bell theorem boxesAJP 53(12),1143A logic circuit that makes Mermin's gedanken experiment a feasible and instructive lecture demonstration.
7A50.90noncommuting operatorsAJP 41(3),418Use the Abbe theory of image formation in the microscope is used to demonstrate noncommutativity.

ReferenceDescription
M-1Sutton
Ma-1Freier & Anderson
M-1dHilton
8-2.8Meiners
1A12.01University of Minnesota Handbook
AJP 52(1),85American Journal of Physics
TPT 15(5),300The Physics Teacher
Disc 01-01The Video Encyclopedia of Physics Demonstrations

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