Consider a reddish star with a temperature of 3280 K and a radius of 3.03 × 105 km. The star is a perfect black body with an emissivity of exactly 1. Part 1) Assuming radiation is the only method by which this star loses heat, what is the rate of heat loss from the star? 7.57*10^24 W Your last answer was interpreted as follows: 7.57 · 1024 Part 2) If the temperature of the star was doubled, but everything else remained constant, what would be the new power output of the star? 1.21*10^26 W Your last answer was interpreted as follows: 1.21 · 1026 Part 3) In reality, the radius and temperature of a star are not independent. Assume all main sequence stars have the same density. The mass and temperature of a star are related by _Tª m2.5 = constant. If you double the temperature of the star in part 1) and take the changing mass into account, what is the power output now? W
Consider a reddish star with a temperature of 3280 K and a radius of 3.03 × 105 km. The star is a perfect black body with an emissivity of exactly 1. Part 1) Assuming radiation is the only method by which this star loses heat, what is the rate of heat loss from the star? 7.57*10^24 W Your last answer was interpreted as follows: 7.57 · 1024 Part 2) If the temperature of the star was doubled, but everything else remained constant, what would be the new power output of the star? 1.21*10^26 W Your last answer was interpreted as follows: 1.21 · 1026 Part 3) In reality, the radius and temperature of a star are not independent. Assume all main sequence stars have the same density. The mass and temperature of a star are related by _Tª m2.5 = constant. If you double the temperature of the star in part 1) and take the changing mass into account, what is the power output now? W
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