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Chemistry
·
Module 1
Quantum Language for Atomic Electrons
1
De Broglie Wavelength and the Significance of Matter Waves
Calculate a particle’s de Broglie wavelength and assess when wave behavior is significant.
Calculate a particle’s de Broglie wavelength and assess when wave behavior is significant.
2
Estimating Measurement Limits with the Heisenberg Uncertainty Principle
Use the Heisenberg uncertainty relation to estimate limits on simultaneous position and momentum measurements.
Use the Heisenberg uncertainty relation to estimate limits on simultaneous position and momentum measurements.
3
Interpreting Wavefunctions with the Born Rule
Interpret the wavefunction and probability density using the Born rule.
Interpret the wavefunction and probability density using the Born rule.
4
Normalizing a One-Dimensional Wavefunction
Normalize a simple one-dimensional wavefunction over a specified domain.
Normalize a simple one-dimensional wavefunction over a specified domain.
5
Calculating Position and Momentum Expectation Values
Calculate expectation values of position and momentum for a given normalized wavefunction.
Calculate expectation values of position and momentum for a given normalized wavefunction.
6
Eigenfunctions and Eigenvalues of Basic Quantum Operators
Identify eigenfunctions and eigenvalues of basic quantum-mechanical operators.
Identify eigenfunctions and eigenvalues of basic quantum-mechanical operators.
7
Determining Simultaneous Observability Using Commutators
Use an operator commutator to determine whether two observables can have simultaneous definite values.
Use an operator commutator to determine whether two observables can have simultaneous definite values.
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