Chapter 38: Q39P (page 1183)
Through what angle must aphoton be scattered by a free electron so that the photon loses of its energy?
Short Answer
The required value of the angle is, .
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Chapter 38: Q39P (page 1183)
Through what angle must aphoton be scattered by a free electron so that the photon loses of its energy?
The required value of the angle is, .
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The Sun is approximately an ideal blackbody radiator with surface temperature of 5800 K.
(a) Find the wavelength at which its spectral radiancy is maximum and
(b) identify the type of magnetic wave corresponding to that wavelength.
(c) As we shall discuss in chapter 44, the universe is approximately an ideal blackbody radiator with radiation emitted when atoms first formed. Today the spectral radiancy of that radiation peaks at a wavelength of 1.06 mm (in the microwave region). What is the corresponding temperature of the universe?
In a photoelectric experiment using a sodium surface, you find a stopping potential of 1.85 V for a wavelength of and a stopping potential of 0.820 V for a wavelength of 400 nm. From these data find (a) a value for the Planck constant, (b) the work function for sodium, and (c) the cutoff wavelength for sodium?
An electron and a photon each have a wavelength of . What is the momentum (in ) of the (a) electron and (b) photon? What is the energy (in ) of the (c) electron and (d) photon?
The highest achievable resolving power of a microscope is limited only by the wavelength used; that is, the smallest item that can be distinguished has dimensions about equal to the wavelength. Suppose one wishes to 鈥渟ee鈥 inside an atom. Assuming the atom to have a diameter of , this means that one must be able to resolve a width of, say, .
(a) If an electron microscope is used, what minimum photon energy is required?
(b) If a light microscope is used, what minimum photon energy is required?
(c) Which microscope seems more practical? Why?
Just after detonation, the fireball in a nuclear blast is approximately an ideal blackbody radiator with a surface temperature of about .
(a) Find the wavelength at which the thermal radiation is maximum and (b) identify the type of electromagnetic wave corresponding to that wavelength. This radiation is almost immediately absorbed by the surrounding air molecules, which produces another ideal blackbody radiator with a surface temperature of about .
(c) Find the wavelength at which the thermal radiation is maximum and (d) identify the type of electromagnetic wave corresponding to that wavelength.
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