Consider a photoelectric effect experiment set-up shown below. The metal is Magnesium with a work function of 3.68 eV. For each incident photon frequency shown in the table below, compute the maximum kinetic energy and the maximum velocity of the ejected photoelectrons. Ouonturm PhyECs ecron Cinsk ol PheS Irv KE - 1/2m Photoderot Metal Kinelic Telec -Bound electron Incident Incident Maximum Kinetic Maximum Frequency 9x1014 Hz Energy (eV) Energy (eV) Velocity 9.846 x1014 Hz ocress 9.846 x1015 Hz Incident Photon

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B7
Consider a photoelectric effect experiment set-up shown below. The metal
is Magnesium with a work function of 3.68 eV. For each incident photon
frequency shown in the table below, compute the maximum kinetic energy
and the maximum velocity of the ejected photoelectrons.
Ouentum Pys
Clasko PhaleS
ine
KE - 1/2m
Photoelectror
Metal
-Bound electronrtec
electons
dep
Up Incident
Frequency
9x1014 Hz
Incident
Maximum Kinetic
Energy (eV)
Maximum
Velocity
Energy (eV)
9.846 x1014 Hz
Wor
ocrenses
9.846 x1015 Hz
Incident Photon
Transcribed Image Text:Consider a photoelectric effect experiment set-up shown below. The metal is Magnesium with a work function of 3.68 eV. For each incident photon frequency shown in the table below, compute the maximum kinetic energy and the maximum velocity of the ejected photoelectrons. Ouentum Pys Clasko PhaleS ine KE - 1/2m Photoelectror Metal -Bound electronrtec electons dep Up Incident Frequency 9x1014 Hz Incident Maximum Kinetic Energy (eV) Maximum Velocity Energy (eV) 9.846 x1014 Hz Wor ocrenses 9.846 x1015 Hz Incident Photon
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