2. The Heisenberg uncertainty principle demonstrate the symmetry between the particles position and momentum. This can further be extended to the particles probability amplitudes in position (x, t) and momentum (p, t). If y(x, t) = dp (p, t)ex is the Fourier expansion of the probability amplitude for +00 √√2h -00 (p, t) = x (x, t)ex is its Fourier transform, prove that f(x, t) |² dx = f(p, t) |² dp. position and
2. The Heisenberg uncertainty principle demonstrate the symmetry between the particles position and momentum. This can further be extended to the particles probability amplitudes in position (x, t) and momentum (p, t). If y(x, t) = dp (p, t)ex is the Fourier expansion of the probability amplitude for +00 √√2h -00 (p, t) = x (x, t)ex is its Fourier transform, prove that f(x, t) |² dx = f(p, t) |² dp. position and
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2. The Heisenberg uncertainty principle demonstrate the symmetry between the particles
position and momentum. This can further be extended to the particles probability
amplitudes in position (x, t) and momentum (p, t). If y(x, t) =
c+∞0
Vzh dp (p, t)ex is the Fourier expansion of the probability amplitude for
position and
14(x, t) |² dx =
☺
1 +∞0
(p, t) = x (x, t)e-x is its Fourier transform, prove that
√2πh
S+ (p, t) | ²dp.
-8
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