Campuses:
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| classes:2009:fall:phys4101.001:q_a_1023 [2009/10/26 10:36] – myers | classes:2009:fall:phys4101.001:q_a_1023 [2009/11/12 13:49] (current) – x500_chap0326 | ||
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| ===Devlin 10/23 830a=== | ===Devlin 10/23 830a=== | ||
| As far as I can tell, determinate states are just eigenfunctions of certain operators. | As far as I can tell, determinate states are just eigenfunctions of certain operators. | ||
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| + | ===chap0326 11/12=== | ||
| + | I think indeterminacy is the phenomenon in QM when you have a bunch of identical systems all in the same state and you don't get the same result each time you measure the observable. So a determinate state is the idea that you could prepare some state where you get the same value for every measurement of the system (Griffith calls it ' | ||
| ====Daniel Faraday 10/23 12:30 pm==== | ====Daniel Faraday 10/23 12:30 pm==== | ||
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| ===Esquire 10/26 10:33am=== | ===Esquire 10/26 10:33am=== | ||
| The test was fairly straightforward. After the first test, I made a more concentrated effort at studying for this one and it seems to have paid off. | The test was fairly straightforward. After the first test, I made a more concentrated effort at studying for this one and it seems to have paid off. | ||
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| + | ===Blackbox 10/26 5:59 pm=== | ||
| + | I'm not quite sure I've got all correct answers for the test but it was reasonable length and also appropriate amount of time. | ||
| ====Schrodinger' | ====Schrodinger' | ||
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| **Q&A for the previous lecture: [[Q_A_1021]]**\\ | **Q&A for the previous lecture: [[Q_A_1021]]**\\ | ||
| **Q&A for the next lecture: [[Q_A_1026]]** | **Q&A for the next lecture: [[Q_A_1026]]** | ||
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