The ratio of slopes of `K_(max)` vs. V and `V_(0)` vs. v curves in the photoelectric effect gives (v= freqency. `K_(max)`= maximum kinetic energy, `V_(0)`=stopping potential) :

The stopping potential (V_(0))

Which of the following graphs is correct with respect to phtotelectric effect ? Where v to Frequency of EMR KE_(max) to Maximum kinetic energy of photon-electron I to Intensity of EMR ltbr. V_(S.P.) to Stopping potential n_(PE) to Number of photon electron

Slope of V_(0) vs v curve is (where V_(0) = Stopping potential, v=subjected freqency)

Slope of V_(0) vs v curve is (where V_(0) = Stopping potential, v=subjected freqency)

Slope of V_(0) vs v curve is (where V_(0) = Stopping potential, v=subjected freqency)

The stopping potential in an experiment on the photoelectric effect is 1.5 V. What is the maximum kinectic energy of the photoelectrons emitted?

This question has statement - 1 and statement - 2 of the four choice given after the statements choose the one that best describes the two statements statement - 1 : A metallic surface is irradiated by a monochromatic light of frequency v gt v_(0) (the threshold frequency). The maximum kinetic energy and the stopping potential are K_(max) and V_(0) respectively if the frequency incident on the surface is doubled , both the K_(max) and V_(0) are also doubled statement - 2 : The maximum kinetic energy and the stopping potential of photoelectron emitted from a surface are linearly dependent on the frequency of incident light

This question has statement - 1 and statement - 2 of the four choice given after the statements choose the one that best describes the two statements statement - 1 : A metallic surface is irradiated by a monochromatic light of frequency v gt v_(0) (the threshold frequency). The maximum kinetic energy and the stopping potential are K_(max) and V_(0) respectively if the frequency incident on the surface is doubled , both the K_(max) and V_(0) are also doubled statement - 2 : The maximum kinetic energy and the stopping potential of photoelectron emitted from a surface are linearly dependent on the frequency of incident light