A) Earth and the other inner planets have higher average surface temperatures than the outer planets.
Explanation:
the earth and the other inner planets have higher average surface temperatures than the outer planets.
The reason for this response is due to the distance between the sun and the respective planet, the source of energy generation is the sun and the only way in which the temperature increase of each planet is guaranteed is by radiation, the further away a planet is from its star, its temperature will decrease. Although it is also important to highlight the atmospheric composition of the planet if this planet in its stratosphere has high density clouds that do not allow the entry of solar radiation, the temperature of the planet's surface will not increase, independent of the distance from the sun, but these are more complex cases where specialists in that area enter to perform a study in detail.
Earth and the other inner planets have higher average surface temperatures than the outer planets.
Explanation:
The chart shows that the temperatures of the inner planets (Mercury, Venus, Earth, and Mars) range from 100 K to 735 K. The temperatures of the outer planets range from 55 K to 165 K.
Thus, a good conclusion for the data would be that Earth and the other inner planets have higher average surface temperatures than the outer planets.
Most of the radiation, however, is absorbed by the earth's surface. ... Every surface on earth absorbs and reflects energy at varying degrees, based on its color and texture. Dark-colored objects absorb more visible radiation; light-colored objects reflect more visible radiation.
This is a conversion problem. 760 Torr is equal to 1 atmosphere. so we can can solve now. 5,550torr*(1atmosphere/760torr)=7.3atmospheres. since the two torrs cancel out with cross multiplication we are left in atmosphere units.
Acceleration = (velocity final-velocity initial)/ time where velocity final = 135 km/hr x 1 hr /3600 s x 1000m/1km = 37.5 m/s velocity initial = 35 km/hr x 1hr /3600 s x 1000 m/1 km = 9.72 m/s a) acceleration = 2.646 m/s^2 b) acceleration in g units = (2.646m/s^2)/(9.8m/s^2) = 0.27 units
