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An electron is within a one-dimensional, infinite potential well. Which is true about the integral of the probability density from one wall to the other? The value of the integral is the same for any value of n. The value of the integral increases as we consider larger values of n. The value of the integral decreases as we consider larger values of n.

An electron is within a one-dimensional, infinite potential well. Which is true about the integral of the probability density from one wall to the other? The value of the integral is the same for any value of n. The value of the integral increases as we consider larger values of n. The value of the integral decreases as we consider larger values of n.

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An electron is within a one-dimensional, infinite potential well. Which is true about the integral of the probability density from one wall to the other? The value of the integral is the same for any value of n . The value of the integral increases as we consider larger values of n . The value of the integral decreases as we consider larger values of n .

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An electron is within a one-dimensional, infinite potential well. Which is true about the integral of the probability density from one wall to the other? The value of the integral increases as we consider larger values of n. The value of the integral is the same for any value of n. The value of the integral decreases as we consider larger values of n.
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