If Earth were flat, the distribution of thermal energy would be uneven due to the lack of curvature affecting the intensity of sunlight reaching different regions. This would lead to extreme temperature variations between areas exposed to direct sunlight and those in shadow. Without the spherical shape of the Earth redistributing heat through atmospheric circulation and ocean currents, there would be more significant temperature disparities between regions.
If Earth were flat, the distribution of thermal energy would likely differ due to the altered surface area and angle of incidence of solar radiation. The regions near the center of the flat Earth would receive more direct sunlight and experience higher temperatures, while the edges would receive less sunlight and be cooler. This could lead to more extreme temperature variations across the flat Earth compared to the current spherical Earth.
The major source of thermal energy on Earth is the Sun. The Sun emits heat and light through nuclear fusion, which warms the Earth's surface. This energy is essential for sustaining life and driving the Earth's climate systems.
The thermal energy emitted from the surface of the Earth is in the form of longwave infrared radiation, also known as heat energy. This radiation is released as a result of the Earth absorbing solar radiation during the day and re-radiating it back into the atmosphere at night. The Earth's surface cools down by emitting this thermal energy into the atmosphere.
Thermal energy inside the Earth is used in natural processes such as plate tectonics, volcanic activity, and geothermal energy generation. The heat from the Earth's interior drives these processes and contributes to the dynamic nature of our planet.
The Earth emits thermal energy in the form of heat as a result of its core's high temperature. This thermal energy is primarily generated by the decay of radioactive isotopes and residual heat from Earth's formation.
Water vapor.
If Earth were flat, the distribution of thermal energy would likely differ due to the altered surface area and angle of incidence of solar radiation. The regions near the center of the flat Earth would receive more direct sunlight and experience higher temperatures, while the edges would receive less sunlight and be cooler. This could lead to more extreme temperature variations across the flat Earth compared to the current spherical Earth.
On Earth, the greatest source of thermal energy would be at the earth's core.
Sun provides heat to earth's surface. It provides thermal energy to the earth.
Yes, I believe so. As it gains upward momentum it is using thermal energy, and when it stops, and falls with gravity back to earth it is using kinetic energy. I think that's right.
Yes. All storms on earth are driven by thermal energy.
thermal energy is made in numerous places, such as the earth's core, your body and space heaters. any where you feel heat is giving off thermal energy.
Energy leaves Earth primarily in the form of thermal radiation, which is emitted by the Earth's surface and atmosphere. This thermal radiation eventually escapes into space. Solar energy that is absorbed by the Earth's surface is also re-emitted as heat.
Hydrothermal energy is generated through the earth's hot water. The water is produced underground, and heated by the earth's thermal heat.
The term "geothermal energy" is often used.
We studied about Thermal Energy in my Science class. The sum of the kinetic and potential energy of all the molecules in an object is the thermal energy. Thermal energy is a form of energy that can be used in some places. I think I can save money by using thermal energy from the earth.
The major source of thermal energy on Earth is the Sun. The Sun emits heat and light through nuclear fusion, which warms the Earth's surface. This energy is essential for sustaining life and driving the Earth's climate systems.