Most physicists were slow to accept matrix mechanics because of its abstract nature. Erwin Schrodinger came up with a mathematical equation which nicely described the wave nature of electrons. Scientists gladly welcomed Schrodinger's alternative wave mechanics when it appeared in early 1926 since it entailed more familiar concepts and equations. This led to much easier calculations and more familiar visualizations of atomic events than did Heisenberg's matrix mechanics. Schrodinger's equation provides us with information about the probability of finding the particle in a location at some future time. We can state that the probability of finding the object at each point is high or low, but we can never say with certainty where the object will be at a future time.

Bohr drew a relation between uncertainty, and the statistical interpretation of Schrodinger's wave function, and published a proof that matrix and wave mechanics gave equivalent results-mathematically they were the same theory. Together, the two theories formed a logical interpretation of the physical meaning of quantum mechanics that became known as the "Copenhagen Interpreta

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