Answer:
a

b

c

d

Step-by-step explanation:
From the question we are told that
The frequency of the radio station is

The magnitude of the magnetic field is

Generally the wavelength is mathematically represented as

Here c is the speed of light with value

So

=>

Generally the angular frequency is mathematically represented as

=>

=>

Generally the wave number is mathematically represented as
=>

=>

=>

Generally the amplitude of the electric field at this distance from the transmitter is mathematically represented as

=>

=>
