
K a - IDEALS @ Illinois
... for Ka up to (a maximum of) 12. • Our energy-momentum map contains all of the structure due to quantum monodromy expected for a quasi-linear molecule. • Stephen Ross’ GSRB Hamiltonian proved excellent at predicting the positions of these energy levels, even though only pure rotational spectra were i ...
... for Ka up to (a maximum of) 12. • Our energy-momentum map contains all of the structure due to quantum monodromy expected for a quasi-linear molecule. • Stephen Ross’ GSRB Hamiltonian proved excellent at predicting the positions of these energy levels, even though only pure rotational spectra were i ...
arXiv:0803.3834v2 [quant-ph] 26 May 2009
... for new students. The quantum description of angular momentum involves differential operators or new algebra rules that seem to be disconnected from the classical intuition. For small values of angular momentum one needs a quantum description because the quantum fluctuations are as big as the angula ...
... for new students. The quantum description of angular momentum involves differential operators or new algebra rules that seem to be disconnected from the classical intuition. For small values of angular momentum one needs a quantum description because the quantum fluctuations are as big as the angula ...
An Introduction to Quantum Cosmology
... emphasis on the ‘evolving constants of motion’ approach. This is a so-called ‘timeless’ approach and takes the view that time is not fundamental but rather an approximate notion of time is descibed by ‘clock ’ variables. Observables in this approach are constructed from operators commuting with the ...
... emphasis on the ‘evolving constants of motion’ approach. This is a so-called ‘timeless’ approach and takes the view that time is not fundamental but rather an approximate notion of time is descibed by ‘clock ’ variables. Observables in this approach are constructed from operators commuting with the ...
001 Introduction to Quantum Mechanics, Probability Amplitudes and
... out of attempts to understand things that are so small that they are always seriously not isolated. So an electron carries a charge. Consequently, it is always in contact with – it’s always interacting with the electromagnetic field. But the electromagnetic field is, it turns out, always quivering. ...
... out of attempts to understand things that are so small that they are always seriously not isolated. So an electron carries a charge. Consequently, it is always in contact with – it’s always interacting with the electromagnetic field. But the electromagnetic field is, it turns out, always quivering. ...