When the sky is high in the sky, the blue component of incoming sunlight is scattered much more than any other color component. Do your home work next time :D
Sunlight gets absorbed, scattered, reflected, and transmitted through the atmosphere. Almost all of the ultraviolet component gets absorbed by ozone in the stratosphere. About half of the radiation gets absorbed or scattered and reflected in the troposphere. The remainder passes through, getting absorbed by the earth's surface.
Sunlight scattered by the atmosphere masks the much dimmer light from the stars.
Approximately 30% of incoming sunlight is reflected back into space by clouds, dust, and gases in the atmosphere. This phenomenon is known as Earth's albedo, which measures the reflectivity of the planet's surface and atmosphere. Clouds play a significant role in this reflection, along with other atmospheric particles and gases.
The Earth appears blue from space due to the way that sunlight is scattered and absorbed by the Earth's atmosphere and surface. The blue color comes from the scattering of sunlight by air molecules, and the reflection of sunlight by the oceans and other bodies of water.
Rainbows are formed when sunlight is refracted, or bent, as it passes through raindrops in the atmosphere. This refraction separates the sunlight into its component colors, which are then visible as a spectrum of colors in the sky.
The sky looks blue because sunlight is scattered by the Earth's atmosphere.
An example is the short wavelengths of sunlight which are blue are scattered by particles in the atmosphere, making the sky blue.
Rough surfaces produce scattered reflection, where incoming light is reflected in multiple directions due to the uneven surface texture. This type of reflection can create glare and reduce visibility, especially in outdoor environments with sunlight. Smooth surfaces, on the other hand, produce specular reflection where light is reflected at a consistent angle.
Yes, scattered light can appear bluer than ordinary sunlight because shorter-wavelength blue light is scattered more efficiently by the gases and particles in the atmosphere. This is why the sky appears blue, especially during midday when the sunlight has to pass through more atmosphere, scattering the blue light in different directions.
About 70% of incoming sunlight is absorbed by Earth's surface, primarily by land, oceans, and vegetation. The remainder is reflected back into space by clouds, aerosols, and ice, contributing to Earth's energy balance.
UV rays
Yes, scattered light can appear yellower than direct sunlight due to the scattering process, where shorter-wavelength light like blue and violet is scattered more strongly by particles in the atmosphere. This leaves behind longer-wavelength light such as yellow and red, making the scattered light appear more yellow.
Direct sunlight produces more heat than indirect sunlight. Direct sunlight is more intense and focused, resulting in higher temperatures compared to diffuse or scattered sunlight.
As sunlight passes through the stratosphere, it will be scattered and produce different colors. That's why we see colors on earth.
clean ice reflects sunlight back into space and prevents heat buidup on ice, dirty ice has the opposite affect
Incoming solar radiation is primarily caused by the Sun's nuclear fusion processes, which emit energy in the form of electromagnetic radiation, including visible light, ultraviolet, and infrared radiation. This energy travels through the vacuum of space and reaches Earth, where it is absorbed, reflected, or scattered by the atmosphere and surface. The intensity and distribution of this radiation are influenced by factors such as the Earth's distance from the Sun, the angle of sunlight, and atmospheric conditions.
An example is the short wavelengths of sunlight which are blue are scattered by particles in the atmosphere, making the sky blue.