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A free electron and a free proton have the same momentum. This means that, compared to the matter wave associated with the proton, the matter wave associated with the electron has: a shorter wavelength and a greater frequency a longer wavelength and a greater frequency the same wavelength and the same frequency the same wavelength and a greater frequency the same wavelength and a smaller frequency

A free electron and a free proton have the same momentum. This means that, compared to the matter wave associated with the proton, the matter wave associated with the electron has: a shorter wavelength and a greater frequency a longer wavelength and a greater frequency the same wavelength and the same frequency the same wavelength and a greater frequency the same wavelength and a smaller frequency

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A free electron and a free proton have the same momentum. This means that, compared to the matter wave associated with the proton, the matter wave associated with the electron has: a shorter wavelength and a greater frequency a longer wavelength and a greater frequency the same wavelength and the same frequency the same wavelength and a greater frequency the same wavelength and a smaller frequency

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