Q3. Consider an infinite potential well of width d. In transitions between neighboring values of n, particles of mass that is in a position state as: 2nx e-iwit d f(x.t) = + 20m- (a) Proof that f(x.t) is still normalized for all value of t. (b) Find the probability distribution P(x. t) = \f(x.t)l?
Q3. Consider an infinite potential well of width d. In transitions between neighboring values of n, particles of mass that is in a position state as: 2nx e-iwit d f(x.t) = + 20m- (a) Proof that f(x.t) is still normalized for all value of t. (b) Find the probability distribution P(x. t) = \f(x.t)l?
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![Q3. Consider an infinite potential well of width d. In transitions between neighboring
values of
n, particles of mass that is in a position state as:
2nx
f(x.t) =
e-iwot +
-iwit
sin
d
(a) Proof that f(x.t) is still normalized for all value of t.
(b) Find the probability distribution P(x. t) = \f(x.t)[²](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2Ff44892b2-1643-4e3b-946c-90a9426d7839%2Fabfdd83e-d70a-47db-9f27-2d8ef5cf9d04%2Futl8qpf_processed.jpeg&w=3840&q=75)
Transcribed Image Text:Q3. Consider an infinite potential well of width d. In transitions between neighboring
values of
n, particles of mass that is in a position state as:
2nx
f(x.t) =
e-iwot +
-iwit
sin
d
(a) Proof that f(x.t) is still normalized for all value of t.
(b) Find the probability distribution P(x. t) = \f(x.t)[²
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