94.31: Light of a single freq gh0pob9t o,e pc17l6muency falls on a photoelectric material but no electrons are emitted. Electrons may be emittpcp 09lmbgoeh6o1 7t, ed if the:

  97.36: A student performs the Photoelectric Effect Exper +rbbmu88k, ot1q51kj*obez siment and obtains the data depicted in the accompanying grau1o+bk tm858 jqbkbr,z s*oe1ph of $E_{Km}$, the maximum kinetic energy of the photoelectrons in eV, versus f, the frequency of the photons in $10^{14}$ Hz. What is the approximate work function for this material?

  96.28: A photon with frvw6u5 tg dg6s 5) +;wzjunlxi-equency f behaves as if it had a mass equal to:

  14.32: Planck’s constant is mu8iw20is1zzo +x3tx 6uu8ig zultiplied by the speed of light. The resulting value then is divided by three meters. This final value haszt1zo 2i 0 6wi38ugxu8zsxiu+ the units of which one of the following quantities?

  10.48: Which of the followin3 yaj71;/ glk1evu.yqnfhlp.g wavelengths (in nm) of electromagnetic radiation will produce photoelectrons of the least kinetic energy if the radiation is incident on a materkfj.n /p 3q7v.1e uall1ghy;yial with a work function of 4.80 eV?

  12.45: A stationary atom :)i2-a.loqw ;4ob ghbdb3qxnof mass $4.00\times10^{-26}kg$ spontaneously emits a photon of energy 10.0 eV. Which one of the following choices best represents the speed, in units of m/s, of the atom after emitting the photon?

  16.45: Light of wavelength 250 nm shines onto a medc s1fxcey82 (tallic surface. It is known that the electrons ejected f8scecyxdf (12 rom the surface range in speed as 0 ≤ v ≤ 4.85× 105 m/s. What is the work function of the surface?

  06.46: In the photoelect, *che4)lugt:c3 eo bnric effect experiment, a stopping potential of V_{stop}$ is needed when light of frequency $f_0$ shines on the electron-emitting metal surface. If the metal surface on which the light shines is replaced with a new material that has half the work function, what is the new stopping potential ???????????????? , for light of frequency $f_0$ shining on it?