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How does energy ultimately leave the atmosphere?
Energy ultimately leaves the atmosphere primarily through the process of radiation. The Earth absorbs solar energy and re-emits it as infrared radiation. This energy radiates into space, cooling the planet. Additionally, a small amount of energy is lost through convection and conduction, but radiation is the dominant mechanism for energy loss from the atmosphere.
What absorbs or reflects energy from the sun in the atmosphere?
Gases like water vapor, carbon dioxide, and ozone in the atmosphere can absorb and reflect energy from the sun. Particulate matter, such as dust and pollution, can also play a role in absorbing or reflecting solar energy in the atmosphere.
What do you call the total amount of energy coming into and leaving the atmosphere?
The total amount of energy coming into and leaving the atmosphere is referred to as Earth's energy budget. It includes incoming solar radiation and outgoing terrestrial radiation. This balance of energy is crucial for maintaining Earth's temperature and climate.
Does earth release heat in the atmosphere at night?
Yes, Earth does release heat into the atmosphere at night. During the day, the surface absorbs solar energy, and at night, it radiates that heat back into the atmosphere as infrared radiation. This process contributes to the cooling of the surface and can affect local temperatures and weather patterns. However, the amount of heat released can vary depending on factors such as cloud cover and humidity.
How does temperature change in the layers of the atmosphere?
It depends on their position and the way solar energy is absorbed.
The amount of energy the atmosphere absorbs depends in the part on its level of?
The amount of energy the atmosphere absorbs depends on its greenhouse gas concentration. Greenhouse gases like carbon dioxide and water vapor trap heat in the atmosphere, causing it to absorb more energy from the sun. This leads to warming of the atmosphere and the Earth's surface.
What would happen if water absorbs a large amount of energy?
If water absorbs a large amount of energy it boils.
How many energy levels does an electron go up if it is excited?
It depends on the amount of energy it absorbs. There isn't a single specific number.
What does the amount of energy in the atmosphere depend on?
The amount of energy in the atmosphere depends on factors such as incoming solar radiation, the Earth's surface temperature, greenhouse gas concentrations, and atmospheric circulation patterns. This energy drives weather systems and influences climate patterns globally.
How does radiation affect the atmosphere?
The magnetic force absorbs energy.
How does energy ultimately leave the atmosphere?
Energy ultimately leaves the atmosphere primarily through the process of radiation. The Earth absorbs solar energy and re-emits it as infrared radiation. This energy radiates into space, cooling the planet. Additionally, a small amount of energy is lost through convection and conduction, but radiation is the dominant mechanism for energy loss from the atmosphere.
The Earth's surface absorbs more radiant energy from the sun than the atmosphere?
Yes, the Earth's surface absorbs about 50% of the Sun's incoming solar radiation, while the atmosphere absorbs about 20%. The absorbed energy is then re-emitted by the Earth's surface as infrared radiation.
How does the atmosphere affect the electromagnetic radiation?
The magnetic force absorbs energy.
What absorbs energy from the sun in the atmosphere.?
Ozone, water vapor, carbon dioxide, clouds, dust, and other gases absorb energy in the atmosphere.
What absorbs energy the sun in the atmosphere?
Ozone, water vapor, carbon dioxide, clouds, dust, and other gases absorb energy in the atmosphere.
What absorbs and radiates energy with the least amount of temperature change?
Neutronium
What can be said of the amount of energy that an electron absorbs when it is excited compared to the amount of energy that it releases when it returns to ground state?
When an electron is excited, it absorbs a specific amount of energy to move to a higher energy state. When it returns to its ground state, it releases this absorbed energy in the form of electromagnetic radiation. The energy released is equal to the energy absorbed during excitation, following the principle of conservation of energy.
