357636 Read Assertion and Reason carefully to mark the correct option given below.
Assertion :
Number of photons increases with increase in frequency of light.
Reason :
Maximum kinetic energy of emitted electrons increases with the frequency of incident radiation.

357637 The following graph represents the variation of photocurrent with anode potential for a metal surface. Here \(I_{1}, I_{2}\) and \(I_{3}\) represents intensities and \(\gamma_{1}, \gamma_{2}\) and \(\gamma_{3}\) represent frequency for curves 1, 2 and 3 respectively then

357638 Assertion :
Stopping potential depends upon the frequency of incident light but is independent of the intensity of the light.
Reason :
The maximum kinetic energy of the photoelectrons depends on stopping potential.

357639 In photoelectric experiment the stopping potential was measured to be ' \(V_{1}\) ' and ' \(V_{2}\) ' volt with incident light of wavelength ' \(\lambda\) ' and \(\dfrac{\lambda}{2}\) respectively. The value of \(V_{2}\) is ( \(\phi_{0}=\) work functionn, \(e=\) electronic charge)

357636 Read Assertion and Reason carefully to mark the correct option given below.
Assertion :
Number of photons increases with increase in frequency of light.
Reason :
Maximum kinetic energy of emitted electrons increases with the frequency of incident radiation.

357637 The following graph represents the variation of photocurrent with anode potential for a metal surface. Here \(I_{1}, I_{2}\) and \(I_{3}\) represents intensities and \(\gamma_{1}, \gamma_{2}\) and \(\gamma_{3}\) represent frequency for curves 1, 2 and 3 respectively then

357638 Assertion :
Stopping potential depends upon the frequency of incident light but is independent of the intensity of the light.
Reason :
The maximum kinetic energy of the photoelectrons depends on stopping potential.

357639 In photoelectric experiment the stopping potential was measured to be ' \(V_{1}\) ' and ' \(V_{2}\) ' volt with incident light of wavelength ' \(\lambda\) ' and \(\dfrac{\lambda}{2}\) respectively. The value of \(V_{2}\) is ( \(\phi_{0}=\) work functionn, \(e=\) electronic charge)

357636 Read Assertion and Reason carefully to mark the correct option given below.
Assertion :
Number of photons increases with increase in frequency of light.
Reason :
Maximum kinetic energy of emitted electrons increases with the frequency of incident radiation.

357637 The following graph represents the variation of photocurrent with anode potential for a metal surface. Here \(I_{1}, I_{2}\) and \(I_{3}\) represents intensities and \(\gamma_{1}, \gamma_{2}\) and \(\gamma_{3}\) represent frequency for curves 1, 2 and 3 respectively then

357638 Assertion :
Stopping potential depends upon the frequency of incident light but is independent of the intensity of the light.
Reason :
The maximum kinetic energy of the photoelectrons depends on stopping potential.

357639 In photoelectric experiment the stopping potential was measured to be ' \(V_{1}\) ' and ' \(V_{2}\) ' volt with incident light of wavelength ' \(\lambda\) ' and \(\dfrac{\lambda}{2}\) respectively. The value of \(V_{2}\) is ( \(\phi_{0}=\) work functionn, \(e=\) electronic charge)

357636 Read Assertion and Reason carefully to mark the correct option given below.
Assertion :
Number of photons increases with increase in frequency of light.
Reason :
Maximum kinetic energy of emitted electrons increases with the frequency of incident radiation.

357637 The following graph represents the variation of photocurrent with anode potential for a metal surface. Here \(I_{1}, I_{2}\) and \(I_{3}\) represents intensities and \(\gamma_{1}, \gamma_{2}\) and \(\gamma_{3}\) represent frequency for curves 1, 2 and 3 respectively then

357638 Assertion :
Stopping potential depends upon the frequency of incident light but is independent of the intensity of the light.
Reason :
The maximum kinetic energy of the photoelectrons depends on stopping potential.

357639 In photoelectric experiment the stopping potential was measured to be ' \(V_{1}\) ' and ' \(V_{2}\) ' volt with incident light of wavelength ' \(\lambda\) ' and \(\dfrac{\lambda}{2}\) respectively. The value of \(V_{2}\) is ( \(\phi_{0}=\) work functionn, \(e=\) electronic charge)