QUESTION 8 What is the maximum kinetic energy that a 30 KeV photon ( lambda = 0.0413 nm) can impart to an electron initially at rest? A. 3.16 KeV B. 9.28 KeV C. 29.4 KeV D. 6.2 KeV E. 30.0 KeV
If we consider an elastic head-on collision of photon with electron at rest, all the energy of photon will be transferred to the electron.
Thus, the maximum energy that can be imparted is 30 KeV.
QUESTION 8 What is the maximum kinetic energy that a 30 KeV photon ( lambda =...
3) A photon of energy 820 keV collides with an electron at rest. The photon eflects at an angle of 5o degrees. (a) Calculate the energy of the deflected photon. (b Calculate the kinetic energy of the electron after the collision. () Calculate the magnitude and direction of the electron momentum after the collision. (d) Calulate the wavelengths of the photon and electron after the collision.
A photon having 34 keV scatters from a free electron at rest. What is the maximum energy that the electron can obtain? (Answer in keV)
What are the maximum possible kinetic energy (keV) of a Compton electron and the corresponding minimum energy of a scattered photon resulting from scattering of ?? 60 gamma source?
In an elastic collision between a photon and an electron at rest, the photon is deflected at an 0 angle of 60 . The energy of the incident photon is 3.0 keV. Calculate: (a) the kinetic energy of the electron, in eV; (b) the recoil angle of the electron; (c) the wavelength of the scattered photon, in nm.
4) If the maximum possible energy that can be given to an electron (initially at rest) during a Compton scattering is 30 keV, what is the wavelength of the incident photon?
a) An electron has been accelerated through an electrical potential of 50 kev from rest. What is the kinetic energy of the electron in Joules? A) 8 E-15 J B) 4 E-20 J C) 8 E 15 J D) Not enough information b) The electron from question 1 encounters a nucleus and undergoes a elastic collision that alters its' trajectory. After the collision the electron has a kinetic energy of 40 kev. What is the frequency of the photon that...
What is the binding energy of an electron that requires a photon with a maximum wavelength of 430 nm to eject it? If a photon with a frequency of 8.21 x 1015 Hz is used, what is the kinetic energy of the electron?
A photon having E = 37.7 keV energy scatters from a free electron inside a metal. What is the maximum energy the electron can gain from the photon? At which angle will the photon scatter with respect to its original direction? (The accepted unit abbreviations for angles are either 'deg' for degrees or 'rad' for radians.) At which angle will the electron scatter?
11 The energy of an annihilation photon (511 keV) corresponds to the: A: Speed of light in vacuum B: Rest-mass energy equivalent of 1 electron C: Binding energy of a PET-isotope D: Total sum of the electron and positron rest mass 12 An annihilation photon has the frequency: A: 511 MHz B: 1.235E+20 Hz C: 1.235E+17 Hz D: 7.712E+38 Hz 13 An annihilation photon has the wave-length: A: 1.522E-12 m B: 1.235E-12 m C: 2.427E-12 m D: 0.102E-10 m 14...
An electron has 1022 keV of kinetic energy. What is its relativistic mass? a. 9.11 x 10^-31kg b. 1.82 x 10^-30 kg c. 3.64 x 10^-30kg d. 4.56x 10^-31kg e. 2.73 x 10^-30kg