In an experiment on photo electric emission, following observations were made,
(i) Wavelength of the incident light `=1.98xx10^(-7)m`,
(ii) Stopping potential `=2.5 "volt"`.
Find: (a) Kinetic energy of photoelectrons with maximum speed.
(b) Work function and
(c )Threshold frequency,

In an experiment of photo electric emission for incident light of 4000 A^(0) ,the stopping potentail is 2V .If the wavelength of incident light is made 300 A^(0) , then the stopping potential will be

If in a photoelectric experiment, the stopping potential is 1.5 volts, what is the maximum kinetic energy of a photoelectrons?

The work function of a metal is 2.3 eV and the wavelength of incident photon is 4.8 xx 10 ^( -7) m. Find maximum kinetic energy of photo electrons

Photoelectric emission is observed from a metallic surface for frequencies v_(1) and v_(2) of the incident light. If the maximum value of kinetic energies of the photoelectrons emitted in the two cases are in the ratio n:1 then the threshold frequency of the metallic surface is

The photoelectric work function for potassium is 2 eV . The light of wavelength 3.6 xx 10^(-7) m falls on potassium . The stopping potential is

Calculate the valocity of a photoelectron if the work function of the target material is 1.24eV and the wavelength of incident light is 4.36xx10^(-7) m. What retarding potentia is necessary to stop the emission of the electrons?

Photoelectric emission is observed from a metallic surface for frequencies v_(1) and v_(2) of the incident light rays (v_(1) gt v_(2)) . If the maximum values of kinetic energy of the photoelectrons emitted in the two cases are in the ratio of 1 : k , then the threshold frequency of the metallic surface is

The stopping potential for photoelectrons emitted from a surface illuminated by light wavelength of 5893A is 036 V . Calculate the maximum kinetic energy of photoelectrons, the work function of the surface, and the threshold frequency.

Light of wavelength 2000Å is incident on a metal surface of work function 3.0 eV. Find the minimum and maximum kinetic energy of the photoelectrons.