Ivanovich62
laymanB said:Is not the de Broglie wavelength for matter inversely proportional to the particle's momentum? If so, what effect does this have for macroscopic particles with large masses? How does the wavelength of a massive macroscopic object moving slowly in a surface of the Earth frame compare to the wavelength of a light subatomic particle like an electron in the same frame?
I will bring this back around to the topic of the thread. I just need some more basic understanding first.
laymanB said:Is not the de Broglie wavelength for matter inversely proportional to the particle's momentum? If so, what effect does this have for macroscopic particles with large masses? How does the wavelength of a massive macroscopic object moving slowly in a surface of the Earth frame compare to the wavelength of a light subatomic particle like an electron in the same frame?
I will bring this back around to the topic of the thread. I just need some more basic understanding first.
DB wavelentth = h / p. so 1g moving 1m/s will be around 10^-31 m. that is about 1 / 10^21 th the diameter of an atom. i am not sure that size has any real meaning.
an electron traveling same speed has DB wavelength of about 1 mm