X 0 1 2 3 4 5 6 7 8 |
Section Five |
| Singularities |
| ___ |
| 23. Poincare Sections |
| 24. Linear Algebra |
| 25. Optimal Controls |
| 26. Potential Theory |
| 27. Envelope Curve |
| 28. Vibrations |
| 29. Time |
| 30. Uncertainty |
| 31. Quantum Chemistry |
| 32. Fractal Theory |
TAB 30
THE UNCERTAINTY PRINCIPLEA fundamental flaw to quantum chemistry and the Schrodinger Cloud Plots is that there is no provision for how an electron goes from one stable orbit to the next. Going from a circular s-type orbit to a barbell p-type orbit is a very complex maneuver involving plane changes, Hohmann Transfers, and Lambert Transfers - any one of which requires far more energy than the difference between the two orbital levels. Basic orbital mechanics shows the whole complex scheme embraced by atomic physics is unworkable unless there is a single fundamental frequency that exists like a common harmonic between all allowable energy levels - e.g. the "system wave."
Now to consider some important mathematical ideas:
- Each physically observable property in quantum mechanics (e.g. position, velocity, energy, momentum,…) can be represented by a Hermitian operator, typically a matrix
- Two operators with the same eigenvectors commute
- Physical variables with noncommuting operators cannot be measured simultaneously with arbitrary accuracy
- Position and momentum operators in quantum mechanics do not commute; this is the Heisenberg Uncertainty Principle, which says
joule-seconds
Hermitian matrices have the following properties: (i.e.
)
The principle axis theorem of mechanics applies to orthogonally diagonalizable matrices:
This is just the phenomena that was implied by the Mohr Circle analysis earlier.