Which item best illustrates the behavior of an electron in the photoelectric effect?

(1 point)
Responses

a funnel because it can capture energy if the energy level is greater than the opening in the bottom
a funnel because it can capture energy if the energy level is greater than the opening in the bottom

a bottle because its opening is small, so only low levels of energy can get in and fill it
a bottle because its opening is small, so only low levels of energy can get in and fill it

a bucket because it can be continuously filled with energy, regardless of the energy's level
a bucket because it can be continuously filled with energy, regardless of the energy's level

a teapot because it can be filled with energy and, when overfilled, low energy levels leave from the spout

a bottle because its opening is small, so only low levels of energy can get in and fill it

Which statement explains how the photoelectric effect influenced the way physicists view electromagnetic radiation?(1 point)

Responses

Physicists have always thought of electromagnetic radiation using the wave model. The photoelectric effect confirmed this view.
Physicists have always thought of electromagnetic radiation using the wave model. The photoelectric effect confirmed this view.

Physicists have always thought of electromagnetic radiation using the particle model. The photoelectric effect confirmed this view.
Physicists have always thought of electromagnetic radiation using the particle model. The photoelectric effect confirmed this view.

Physicists initially considered electromagnetic radiation using the particle model. The photoelectric effect brought about the wave model.
Physicists initially considered electromagnetic radiation using the particle model. The photoelectric effect brought about the wave model.

Physicists initially considered electromagnetic radiation using the wave model. The photoelectric effect brought about the particle model.

Physicists have always thought of electromagnetic radiation using the wave model. The photoelectric effect confirmed this view.

Which statement describes photons?(1 point)

Responses

Photons behave like waves of electromagnetic radiation.
Photons behave like waves of electromagnetic radiation.

Photons behave like particles of electromagnetic radiation.
Photons behave like particles of electromagnetic radiation.

Photons are a medium that conducts waves.
Photons are a medium that conducts waves.

Photons are a type of subatomic particle.

Photons behave like particles of electromagnetic radiation.

Why was the wave model of electromagnetic radiation unsuitable for describing the photoelectric effect?(1 point)

Responses

because it predicted that electrons would be able to store energy
because it predicted that electrons would be able to store energy

because it predicted that electrons would not be able to store energy
because it predicted that electrons would not be able to store energy

because it predicted that increasing the intensity of the radiation would lower the kinetic energy of the electrons
because it predicted that increasing the intensity of the radiation would lower the kinetic energy of the electrons

because it predicted that increasing the intensity of the radiation would release fewer electrons

because it predicted that increasing the intensity of the radiation would lower the kinetic energy of the electrons

Which photoelectric effect observation supports the idea that the energy of a photon is proportional to its frequency?(1 point)

Responses

Only a single frequency will enable electrons to have the exact energy needed to escape the material.
Only a single frequency will enable electrons to have the exact energy needed to escape the material.

The frequency of the electrons emitted by the material decreases as the energy increases.
The frequency of the electrons emitted by the material decreases as the energy increases.

Electrons only have enough energy to escape the material when the light’s frequency is above a certain level.
Electrons only have enough energy to escape the material when the light’s frequency is above a certain level.

The energy of the electrons that are emitted by the material all have the same frequency.

Only a single frequency will enable electrons to have the exact energy needed to escape the material.