357829
Match the quantities of Column I with their values in Column II and choose the correct option from the codes given below.
Column I
Column II
A
Maximum number of photons absorbed by an electron in a photo electric effect
P
\(\frac{{{\phi _0}}}{{{v_0}}}\)
B
Number of photons each of energy \(E\) emitted by a source of power \(P\) per second
Q
\(\frac{P}{E}\)
C
Energy of a photon
R
\(hv\)
D
Planck's constant in terms of work function and threshold frequency
S
1
357831
Energy from the sun is received on earth at the rate of \( = 2\,cal\,c{m^{ - 2}}\;{\rm{mi}}{{\rm{n}}^{ - 1}}\). If average wavelength of solar light be taken as \(5500\,\mathop {{\rm{ }}A}\limits^{\;\;^\circ } \), then how many photons are received on the earth \(\left( {c{m^{ - 2}}\;{\rm{mi}}{{\rm{n}}^{ - 1}}} \right)\)?
(Take, \(h = 6.6 \times {10^{ - 34}}\;J - s,1\,cal = 4.2\;J\))
357829
Match the quantities of Column I with their values in Column II and choose the correct option from the codes given below.
Column I
Column II
A
Maximum number of photons absorbed by an electron in a photo electric effect
P
\(\frac{{{\phi _0}}}{{{v_0}}}\)
B
Number of photons each of energy \(E\) emitted by a source of power \(P\) per second
Q
\(\frac{P}{E}\)
C
Energy of a photon
R
\(hv\)
D
Planck's constant in terms of work function and threshold frequency
S
1
357831
Energy from the sun is received on earth at the rate of \( = 2\,cal\,c{m^{ - 2}}\;{\rm{mi}}{{\rm{n}}^{ - 1}}\). If average wavelength of solar light be taken as \(5500\,\mathop {{\rm{ }}A}\limits^{\;\;^\circ } \), then how many photons are received on the earth \(\left( {c{m^{ - 2}}\;{\rm{mi}}{{\rm{n}}^{ - 1}}} \right)\)?
(Take, \(h = 6.6 \times {10^{ - 34}}\;J - s,1\,cal = 4.2\;J\))
357829
Match the quantities of Column I with their values in Column II and choose the correct option from the codes given below.
Column I
Column II
A
Maximum number of photons absorbed by an electron in a photo electric effect
P
\(\frac{{{\phi _0}}}{{{v_0}}}\)
B
Number of photons each of energy \(E\) emitted by a source of power \(P\) per second
Q
\(\frac{P}{E}\)
C
Energy of a photon
R
\(hv\)
D
Planck's constant in terms of work function and threshold frequency
S
1
357831
Energy from the sun is received on earth at the rate of \( = 2\,cal\,c{m^{ - 2}}\;{\rm{mi}}{{\rm{n}}^{ - 1}}\). If average wavelength of solar light be taken as \(5500\,\mathop {{\rm{ }}A}\limits^{\;\;^\circ } \), then how many photons are received on the earth \(\left( {c{m^{ - 2}}\;{\rm{mi}}{{\rm{n}}^{ - 1}}} \right)\)?
(Take, \(h = 6.6 \times {10^{ - 34}}\;J - s,1\,cal = 4.2\;J\))
357829
Match the quantities of Column I with their values in Column II and choose the correct option from the codes given below.
Column I
Column II
A
Maximum number of photons absorbed by an electron in a photo electric effect
P
\(\frac{{{\phi _0}}}{{{v_0}}}\)
B
Number of photons each of energy \(E\) emitted by a source of power \(P\) per second
Q
\(\frac{P}{E}\)
C
Energy of a photon
R
\(hv\)
D
Planck's constant in terms of work function and threshold frequency
S
1
357831
Energy from the sun is received on earth at the rate of \( = 2\,cal\,c{m^{ - 2}}\;{\rm{mi}}{{\rm{n}}^{ - 1}}\). If average wavelength of solar light be taken as \(5500\,\mathop {{\rm{ }}A}\limits^{\;\;^\circ } \), then how many photons are received on the earth \(\left( {c{m^{ - 2}}\;{\rm{mi}}{{\rm{n}}^{ - 1}}} \right)\)?
(Take, \(h = 6.6 \times {10^{ - 34}}\;J - s,1\,cal = 4.2\;J\))
357829
Match the quantities of Column I with their values in Column II and choose the correct option from the codes given below.
Column I
Column II
A
Maximum number of photons absorbed by an electron in a photo electric effect
P
\(\frac{{{\phi _0}}}{{{v_0}}}\)
B
Number of photons each of energy \(E\) emitted by a source of power \(P\) per second
Q
\(\frac{P}{E}\)
C
Energy of a photon
R
\(hv\)
D
Planck's constant in terms of work function and threshold frequency
S
1
357831
Energy from the sun is received on earth at the rate of \( = 2\,cal\,c{m^{ - 2}}\;{\rm{mi}}{{\rm{n}}^{ - 1}}\). If average wavelength of solar light be taken as \(5500\,\mathop {{\rm{ }}A}\limits^{\;\;^\circ } \), then how many photons are received on the earth \(\left( {c{m^{ - 2}}\;{\rm{mi}}{{\rm{n}}^{ - 1}}} \right)\)?
(Take, \(h = 6.6 \times {10^{ - 34}}\;J - s,1\,cal = 4.2\;J\))