357648 A metallic surface is illuminated with radiation of wavelength \(\lambda\), the stopping potential is \(V_{0}\). If the same surface is illuminated with radiation of wavelength \(2 \lambda\), the stopping potential becomes \(\dfrac{V_{0}}{4}\). The threshold wavelength for this metallic surface will be

357649 In an experiment to study photo-electric effect the observed variation of stopping potential with frequency of incident radiation is as shown in the figure. The slope and \(y\)-intercept are respectively

357650 The stopping potential as a function of frequency of incident radiation is plotted for two different photo electric surfaces \(A\) and \(B\). The graphs show the work function of \(A\) is

357651 Which of the following statement is not true about stopping potential \(\left(V_{0}\right)\) ?

357652 Assertion :
If work function of a material increases by some mechanism, it requires greater energy to excite the electrons from its surface.
Reason :
A plot of stopping potential \(\left(\mathrm{V}_{0}\right)\) versus frequency \((f)\) for different metals, has greater slope for metals with greater work functions.

357648 A metallic surface is illuminated with radiation of wavelength \(\lambda\), the stopping potential is \(V_{0}\). If the same surface is illuminated with radiation of wavelength \(2 \lambda\), the stopping potential becomes \(\dfrac{V_{0}}{4}\). The threshold wavelength for this metallic surface will be

357649 In an experiment to study photo-electric effect the observed variation of stopping potential with frequency of incident radiation is as shown in the figure. The slope and \(y\)-intercept are respectively

357650 The stopping potential as a function of frequency of incident radiation is plotted for two different photo electric surfaces \(A\) and \(B\). The graphs show the work function of \(A\) is

357651 Which of the following statement is not true about stopping potential \(\left(V_{0}\right)\) ?

357652 Assertion :
If work function of a material increases by some mechanism, it requires greater energy to excite the electrons from its surface.
Reason :
A plot of stopping potential \(\left(\mathrm{V}_{0}\right)\) versus frequency \((f)\) for different metals, has greater slope for metals with greater work functions.

357648 A metallic surface is illuminated with radiation of wavelength \(\lambda\), the stopping potential is \(V_{0}\). If the same surface is illuminated with radiation of wavelength \(2 \lambda\), the stopping potential becomes \(\dfrac{V_{0}}{4}\). The threshold wavelength for this metallic surface will be

357649 In an experiment to study photo-electric effect the observed variation of stopping potential with frequency of incident radiation is as shown in the figure. The slope and \(y\)-intercept are respectively

357650 The stopping potential as a function of frequency of incident radiation is plotted for two different photo electric surfaces \(A\) and \(B\). The graphs show the work function of \(A\) is

357651 Which of the following statement is not true about stopping potential \(\left(V_{0}\right)\) ?

357652 Assertion :
If work function of a material increases by some mechanism, it requires greater energy to excite the electrons from its surface.
Reason :
A plot of stopping potential \(\left(\mathrm{V}_{0}\right)\) versus frequency \((f)\) for different metals, has greater slope for metals with greater work functions.

357648 A metallic surface is illuminated with radiation of wavelength \(\lambda\), the stopping potential is \(V_{0}\). If the same surface is illuminated with radiation of wavelength \(2 \lambda\), the stopping potential becomes \(\dfrac{V_{0}}{4}\). The threshold wavelength for this metallic surface will be

357649 In an experiment to study photo-electric effect the observed variation of stopping potential with frequency of incident radiation is as shown in the figure. The slope and \(y\)-intercept are respectively

357650 The stopping potential as a function of frequency of incident radiation is plotted for two different photo electric surfaces \(A\) and \(B\). The graphs show the work function of \(A\) is

357651 Which of the following statement is not true about stopping potential \(\left(V_{0}\right)\) ?

357652 Assertion :
If work function of a material increases by some mechanism, it requires greater energy to excite the electrons from its surface.
Reason :
A plot of stopping potential \(\left(\mathrm{V}_{0}\right)\) versus frequency \((f)\) for different metals, has greater slope for metals with greater work functions.

357648 A metallic surface is illuminated with radiation of wavelength \(\lambda\), the stopping potential is \(V_{0}\). If the same surface is illuminated with radiation of wavelength \(2 \lambda\), the stopping potential becomes \(\dfrac{V_{0}}{4}\). The threshold wavelength for this metallic surface will be

357649 In an experiment to study photo-electric effect the observed variation of stopping potential with frequency of incident radiation is as shown in the figure. The slope and \(y\)-intercept are respectively

357650 The stopping potential as a function of frequency of incident radiation is plotted for two different photo electric surfaces \(A\) and \(B\). The graphs show the work function of \(A\) is

357651 Which of the following statement is not true about stopping potential \(\left(V_{0}\right)\) ?

357652 Assertion :
If work function of a material increases by some mechanism, it requires greater energy to excite the electrons from its surface.
Reason :
A plot of stopping potential \(\left(\mathrm{V}_{0}\right)\) versus frequency \((f)\) for different metals, has greater slope for metals with greater work functions.