Q3 Using the following values, together with equation 5, calculate the power emitted by the Sun. sun's surface temperature = 5780 K temperature of the environment that the Sun is located in = 4 K • emissivity of the Sun = 1 radius of the Sun = 695,700,000 m Stephen-Boltzmann constant o = 5.67 x 10-8 W/m2 K4

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The following heat transfer formula quantifies the radiation emitted from the Sun:
P = eoA(T4 – T?)
Equation 5
where:
P= radiated power (Watts)
e = emissivity (=1 for ideal radiator; unitless)
o = Stefan-Boltzmann constant = 5.67x10-8 W/m2-K+
A = radiating area (m²)
T= temperature of radiator (Kelvin)
Tc = temperature of surroundings (Kelvin)
Q3 Using the following values, together with equation 5, calculate the power emitted by the Sun.
sun's surface temperature = 5780 K
temperature of the environment that the Sun is located in = 4 K
emissivity of the Sun = 1
radius of the Sun = 695,700,000 m
Stephen-Boltzmann constant o = 5.67 x 10-8 W/m2-K4
Show your work below-you may use the equation editor or insert a picture of your handwritten
work.
Transcribed Image Text:The following heat transfer formula quantifies the radiation emitted from the Sun: P = eoA(T4 – T?) Equation 5 where: P= radiated power (Watts) e = emissivity (=1 for ideal radiator; unitless) o = Stefan-Boltzmann constant = 5.67x10-8 W/m2-K+ A = radiating area (m²) T= temperature of radiator (Kelvin) Tc = temperature of surroundings (Kelvin) Q3 Using the following values, together with equation 5, calculate the power emitted by the Sun. sun's surface temperature = 5780 K temperature of the environment that the Sun is located in = 4 K emissivity of the Sun = 1 radius of the Sun = 695,700,000 m Stephen-Boltzmann constant o = 5.67 x 10-8 W/m2-K4 Show your work below-you may use the equation editor or insert a picture of your handwritten work.
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