Quantum mechanics can at one level be viewed as an extremely useful operational theory for understanding the behavior of atoms, molecules and solids. The strange ideas like wave-functions and rules like the Pauli exclusion principle provide a framework for computing and predicting behavior at the atomic scale. But is there something deeper in the ideas of quantum theory and can this deeper meaning open up an even more powerful realm of application? We think the answer is unequivocally "yes" to the existence of deeper meaning to even simple experiments like double-slit diffraction of either photons or electrons - but we are just now at the threshold of employing such thought in areas like quantum computing, detection, and possibly even living processes. What experiments best reveal such deeper aspects and their potential for application?
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(This section is still being developed.)
.S01 Single photon interference / photon entanglement
.S02 Capillary pilot wave analogue of particle-wave behavior
.S03 Electron diffraction
.S04 Stern-Gerlach experiment: quantization of spatial orientation of angular momentum
.S05 Quantized conductance
.S06 SQUIDs and flux quantization
.S07 Qubit realizations
Fundamental particle properties
Mass of the electron
Spin
Electron diffraction
Pilot wave analog of particle-wave phenomena
Quantized conductances
SQUIDs and magnetic flux quantization
Field quantization
Photoelectric effect
Fine structure constant
Cavity quantum electrodynamics
Casimir effect
Qubits
American Physical Society organizational units
Open problems
PIRA bibliography
Physicslabrefs bibliography
ALPhA immersions
Five Modern Physics Experiments (photoelectric effect)
Labs at other universities and colleges
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