Thick puffy cloud reflects suns radiation thick clouds reflect radiation keeping earth cool. Thin wispy cloud reflects sun radiation thin don't reflect as much radiation allowing the earth to warm.
Cloud cover can block sunlight from reaching the Earth's surface, reducing the amount of solar radiation that penetrates through to warm the surface. This can lead to lower temperatures in areas with persistent cloud cover. However, clouds can also act as a blanket, trapping heat and leading to warmer nighttime temperatures.
At least a 2 million droplets are in a raindrop
The amount of radiation absorbed by the Earth's surface varies depending on factors such as location, time of day, and cloud cover. On average, about half of the solar radiation that reaches the Earth's atmosphere is absorbed by the surface, where it is then transformed into heat energy.
The amount of radiation received on Earth's surface varies due to factors such as latitude, atmosphere thickness, altitude, and cloud cover. The angle at which the sun's rays hit the Earth's surface also plays a role in the distribution of solar radiation. Areas closer to the equator receive more direct sunlight, leading to higher radiation levels.
Many people think that clouds consist of water vapor, but they are actually water droplets. Smooth, light-colored surfaces reflect light best, and because of the abundance of surfaces in a cumulus cloud (raincloud), there are many chances for the light to reflect back or be absorbed and re-radiated.
Thick puffy cloud reflects suns radiation thick clouds reflect radiation keeping earth cool. Thin wispy cloud reflects sun radiation thin don't reflect as much radiation allowing the earth to warm.
All areas don't have the same asorption and reflection areas. Ice covered areqs reflect radiation mores so than vegatation covered areas,etc. Water and land absorb and reflect differently. Cloud covered areas and cloudless areas get different radiation.
All areas don't have the same asorption and reflection areas. Ice covered areqs reflect radiation mores so than vegatation covered areas,etc. Water and land absorb and reflect differently. Cloud covered areas and cloudless areas get different radiation.
Cloud cover prevents IR radiation and light from escaping to space, preventing cooling by radiation.
Cloud cover influences the amount of solar radiation that reaches Earth's surface because solar radiation cannot reach earth if there is tons of clouds blocking the way
Cloud cover can block sunlight from reaching the Earth's surface, reducing the amount of solar radiation that penetrates through to warm the surface. This can lead to lower temperatures in areas with persistent cloud cover. However, clouds can also act as a blanket, trapping heat and leading to warmer nighttime temperatures.
Cloud cover can reflect incoming solar radiation back into space, reducing the amount of energy that reaches the Earth's surface. This can lead to cooler temperatures. However, clouds can also trap heat emitted by the Earth, leading to warmer temperatures. Overall, the effect of clouds on the amount of incoming solar energy reaching the Earth's surface can vary depending on factors such as cloud type, altitude, and thickness.
Cloud cover blocks incoming solar radiation from reaching the earth's surface
It is because there is different amounts of cloud in different areas, thus the amount of precipitation is different. From, Anomynous
Mainly the degree of radiation from the Sun which strikes the Earth's surface is due to parts of the Earth offering its surface at different angles to the Sun at different stages of the Earth's 365 rotation about the Sun, and the Earth's own rotation with its axis being tilted with respect to the Sun.
Clouds reflect sunlight back into space through a process called scattering. When sunlight hits cloud droplets or ice crystals in the atmosphere, it gets scattered in different directions, some of which is redirected back towards space. This scattering effect helps regulate Earth's energy balance by reducing the amount of solar radiation that reaches the surface.
The visible radiation produced by new stars within a molecular cloud is absorbed and scattered by the surrounding gas and dust in the cloud. This can cause the radiation to be reddened, blocked, and scattered in different directions, making it more difficult to detect the stars visually.