02. Radiation
Heat Transfer

149572 In the case of black body for energy distribution energy radiated by a blackbody which is given by, Planck's formula reduces to Rayleigh Jean's formula for

1 long wavelength region
2 short wavelength region
3 equal wavelength of radiation
4 long frequency region
Heat Transfer

149593 Radiations coming from the Sun are mostly in the form of

1 light only
2 light and long wavelength infrared.
3 light and short wavelength infrared.
4 both short and long wavelength infrared.
Heat Transfer

149594 In which of the following phenomenon do heat waves travel along a straight line with the speed of light ?

1 Thermal conduction
2 Thermal convection
3 Thermal radiation
4 Both, thermal conduction and radiation
Heat Transfer

149603 The source of unlimited thermal energy of stars is due to

1 nuclear fission
2 photo disintegration
3 nuclear fusion
4 $\gamma$-ray disintegration
Heat Transfer

149604 The emissive power of a black body is proportional to $(T=$ absolute temperature $)$

1 $\mathrm{E} \propto \mathrm{T}^{0}$
2 $\mathrm{E} \propto \mathrm{T}^{2}$
3 $\mathrm{E} \propto \mathrm{T}^{4}$
4 $\mathrm{E} \propto \mathrm{T}^{5}$
Heat Transfer

149572 In the case of black body for energy distribution energy radiated by a blackbody which is given by, Planck's formula reduces to Rayleigh Jean's formula for

1 long wavelength region
2 short wavelength region
3 equal wavelength of radiation
4 long frequency region
Heat Transfer

149593 Radiations coming from the Sun are mostly in the form of

1 light only
2 light and long wavelength infrared.
3 light and short wavelength infrared.
4 both short and long wavelength infrared.
Heat Transfer

149594 In which of the following phenomenon do heat waves travel along a straight line with the speed of light ?

1 Thermal conduction
2 Thermal convection
3 Thermal radiation
4 Both, thermal conduction and radiation
Heat Transfer

149603 The source of unlimited thermal energy of stars is due to

1 nuclear fission
2 photo disintegration
3 nuclear fusion
4 $\gamma$-ray disintegration
Heat Transfer

149604 The emissive power of a black body is proportional to $(T=$ absolute temperature $)$

1 $\mathrm{E} \propto \mathrm{T}^{0}$
2 $\mathrm{E} \propto \mathrm{T}^{2}$
3 $\mathrm{E} \propto \mathrm{T}^{4}$
4 $\mathrm{E} \propto \mathrm{T}^{5}$
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Heat Transfer

149572 In the case of black body for energy distribution energy radiated by a blackbody which is given by, Planck's formula reduces to Rayleigh Jean's formula for

1 long wavelength region
2 short wavelength region
3 equal wavelength of radiation
4 long frequency region
Heat Transfer

149593 Radiations coming from the Sun are mostly in the form of

1 light only
2 light and long wavelength infrared.
3 light and short wavelength infrared.
4 both short and long wavelength infrared.
Heat Transfer

149594 In which of the following phenomenon do heat waves travel along a straight line with the speed of light ?

1 Thermal conduction
2 Thermal convection
3 Thermal radiation
4 Both, thermal conduction and radiation
Heat Transfer

149603 The source of unlimited thermal energy of stars is due to

1 nuclear fission
2 photo disintegration
3 nuclear fusion
4 $\gamma$-ray disintegration
Heat Transfer

149604 The emissive power of a black body is proportional to $(T=$ absolute temperature $)$

1 $\mathrm{E} \propto \mathrm{T}^{0}$
2 $\mathrm{E} \propto \mathrm{T}^{2}$
3 $\mathrm{E} \propto \mathrm{T}^{4}$
4 $\mathrm{E} \propto \mathrm{T}^{5}$
Heat Transfer

149572 In the case of black body for energy distribution energy radiated by a blackbody which is given by, Planck's formula reduces to Rayleigh Jean's formula for

1 long wavelength region
2 short wavelength region
3 equal wavelength of radiation
4 long frequency region
Heat Transfer

149593 Radiations coming from the Sun are mostly in the form of

1 light only
2 light and long wavelength infrared.
3 light and short wavelength infrared.
4 both short and long wavelength infrared.
Heat Transfer

149594 In which of the following phenomenon do heat waves travel along a straight line with the speed of light ?

1 Thermal conduction
2 Thermal convection
3 Thermal radiation
4 Both, thermal conduction and radiation
Heat Transfer

149603 The source of unlimited thermal energy of stars is due to

1 nuclear fission
2 photo disintegration
3 nuclear fusion
4 $\gamma$-ray disintegration
Heat Transfer

149604 The emissive power of a black body is proportional to $(T=$ absolute temperature $)$

1 $\mathrm{E} \propto \mathrm{T}^{0}$
2 $\mathrm{E} \propto \mathrm{T}^{2}$
3 $\mathrm{E} \propto \mathrm{T}^{4}$
4 $\mathrm{E} \propto \mathrm{T}^{5}$
Heat Transfer

149572 In the case of black body for energy distribution energy radiated by a blackbody which is given by, Planck's formula reduces to Rayleigh Jean's formula for

1 long wavelength region
2 short wavelength region
3 equal wavelength of radiation
4 long frequency region
Heat Transfer

149593 Radiations coming from the Sun are mostly in the form of

1 light only
2 light and long wavelength infrared.
3 light and short wavelength infrared.
4 both short and long wavelength infrared.
Heat Transfer

149594 In which of the following phenomenon do heat waves travel along a straight line with the speed of light ?

1 Thermal conduction
2 Thermal convection
3 Thermal radiation
4 Both, thermal conduction and radiation
Heat Transfer

149603 The source of unlimited thermal energy of stars is due to

1 nuclear fission
2 photo disintegration
3 nuclear fusion
4 $\gamma$-ray disintegration
Heat Transfer

149604 The emissive power of a black body is proportional to $(T=$ absolute temperature $)$

1 $\mathrm{E} \propto \mathrm{T}^{0}$
2 $\mathrm{E} \propto \mathrm{T}^{2}$
3 $\mathrm{E} \propto \mathrm{T}^{4}$
4 $\mathrm{E} \propto \mathrm{T}^{5}$