307399 A photon with initial frequency \({\rm{1}}{{\rm{0}}^{{\rm{11}}}}{\rm{Hz}}\) scatters off an electron at rest. Its final frequency is \({\rm{0}}{\rm{.9 \times 1}}{{\rm{0}}^{{\rm{11}}}}{\rm{Hz}}\). The speed of scattered electron is close to

307400 If \({{\rm{\lambda }}_{_{\rm{0}}}}\) and \({\rm{\lambda }}\) be threshold wavelength and wavelength of incident light, the velocity of photoelectron ejected from the metal surface is:

307401 A light source of wavelength \({\rm{\lambda }}\) illuminates a metal and eject photoelectrons with \({\left( {K.E.} \right)_{\max }} = 1\,eV\). Another light source of wavelength \({\rm{\lambda /3}}\) ejects photoelectrons from same metal with \({\left( {K.E.} \right)_{\max }} = 4\,eV\). Find the value of work function?

307402 The kinetic energy of the photoelectrons increases linearly with

307399 A photon with initial frequency \({\rm{1}}{{\rm{0}}^{{\rm{11}}}}{\rm{Hz}}\) scatters off an electron at rest. Its final frequency is \({\rm{0}}{\rm{.9 \times 1}}{{\rm{0}}^{{\rm{11}}}}{\rm{Hz}}\). The speed of scattered electron is close to

307400 If \({{\rm{\lambda }}_{_{\rm{0}}}}\) and \({\rm{\lambda }}\) be threshold wavelength and wavelength of incident light, the velocity of photoelectron ejected from the metal surface is:

307401 A light source of wavelength \({\rm{\lambda }}\) illuminates a metal and eject photoelectrons with \({\left( {K.E.} \right)_{\max }} = 1\,eV\). Another light source of wavelength \({\rm{\lambda /3}}\) ejects photoelectrons from same metal with \({\left( {K.E.} \right)_{\max }} = 4\,eV\). Find the value of work function?

307402 The kinetic energy of the photoelectrons increases linearly with

307399 A photon with initial frequency \({\rm{1}}{{\rm{0}}^{{\rm{11}}}}{\rm{Hz}}\) scatters off an electron at rest. Its final frequency is \({\rm{0}}{\rm{.9 \times 1}}{{\rm{0}}^{{\rm{11}}}}{\rm{Hz}}\). The speed of scattered electron is close to

307400 If \({{\rm{\lambda }}_{_{\rm{0}}}}\) and \({\rm{\lambda }}\) be threshold wavelength and wavelength of incident light, the velocity of photoelectron ejected from the metal surface is:

307401 A light source of wavelength \({\rm{\lambda }}\) illuminates a metal and eject photoelectrons with \({\left( {K.E.} \right)_{\max }} = 1\,eV\). Another light source of wavelength \({\rm{\lambda /3}}\) ejects photoelectrons from same metal with \({\left( {K.E.} \right)_{\max }} = 4\,eV\). Find the value of work function?

307402 The kinetic energy of the photoelectrons increases linearly with

307399 A photon with initial frequency \({\rm{1}}{{\rm{0}}^{{\rm{11}}}}{\rm{Hz}}\) scatters off an electron at rest. Its final frequency is \({\rm{0}}{\rm{.9 \times 1}}{{\rm{0}}^{{\rm{11}}}}{\rm{Hz}}\). The speed of scattered electron is close to

307400 If \({{\rm{\lambda }}_{_{\rm{0}}}}\) and \({\rm{\lambda }}\) be threshold wavelength and wavelength of incident light, the velocity of photoelectron ejected from the metal surface is:

307401 A light source of wavelength \({\rm{\lambda }}\) illuminates a metal and eject photoelectrons with \({\left( {K.E.} \right)_{\max }} = 1\,eV\). Another light source of wavelength \({\rm{\lambda /3}}\) ejects photoelectrons from same metal with \({\left( {K.E.} \right)_{\max }} = 4\,eV\). Find the value of work function?

307402 The kinetic energy of the photoelectrons increases linearly with