Venus would be an inner planet!
x
Answer:
8.3
Explanation:
thats what i think sorry if its wrong im ok at doing this stuff
First, let's calculate the frequency of this radiation, which is given by:

where c is the speed of light and

is the photon wavelength. For this radiation, photons have wavelength of

Therefore their frequency is

The energy of a photon with frequency f is given by

where h is the Planck constant. By using the frequency we found before, we find the energy of a single photon of this radiation: