Density and tempurature.
The heat driving convection currents in the asthenosphere primarily comes from the Earth's internal heat. This heat is generated through the radioactive decay of elements in the Earth's mantle and core. The flow of this heat causes the asthenosphere to partially melt and create convection currents that drive the movement of tectonic plates.
The heat in the asthenosphere primarily comes from the heat generated by the decay of radioactive isotopes in the mantle and the residual heat from Earth's formation. This heat causes the material in the asthenosphere to become less dense and rise, generating convection currents.
The lithosphere is generally thought of as the crust and outer mantle of the earth. They're solid, and there are no convection currents in solids as we normally think of them. As we move inward toward the core of the earth, we begin to encounter molten rock (magma), and convection currents exist in this superheated fluid.
Convection within the asthenosphere drives the movement of tectonic plates above it. As warm material rises and cooler material sinks, it creates horizontal forces that contribute to plate motion. This convection process is a key driver of plate tectonics and shapes the Earth's surface through processes like seafloor spreading and subduction.
b. asthenosphere Convection currents in the asthenosphere are believed to be responsible for driving plate movement through the process of mantle convection. This movement of the semi-fluid asthenosphere layer beneath the rigid lithosphere is thought to cause the plates to move over the Earth's surface.
The convection currents running through the asthenosphere are widely believed to be the source of movement of the tectonic plates.
heat from the outer core and the mantle when it drifts up to the asthenosphere it causes convection.
The heat driving convection currents in the asthenosphere primarily comes from the Earth's internal heat. This heat is generated through the radioactive decay of elements in the Earth's mantle and core. The flow of this heat causes the asthenosphere to partially melt and create convection currents that drive the movement of tectonic plates.
The heat in the asthenosphere primarily comes from the heat generated by the decay of radioactive isotopes in the mantle and the residual heat from Earth's formation. This heat causes the material in the asthenosphere to become less dense and rise, generating convection currents.
Convection currents in the magma drive plate tectonics.Heat generated from the radioactive decay of elements deep in the interior of the Earth creates magma (molten rock) in the aesthenosphere.
The process responsible for the transfer of matter and energy in the asthenosphere is convection. This is when heat from the core causes the hotter, less dense material in the asthenosphere to rise, while the cooler, denser material sinks back down. This movement of material creates a circular flow of convection currents that transfer energy and move tectonic plates.
asthenosphere
The lithosphere is generally thought of as the crust and outer mantle of the earth. They're solid, and there are no convection currents in solids as we normally think of them. As we move inward toward the core of the earth, we begin to encounter molten rock (magma), and convection currents exist in this superheated fluid.
Convection within the asthenosphere drives the movement of tectonic plates above it. As warm material rises and cooler material sinks, it creates horizontal forces that contribute to plate motion. This convection process is a key driver of plate tectonics and shapes the Earth's surface through processes like seafloor spreading and subduction.
b. asthenosphere Convection currents in the asthenosphere are believed to be responsible for driving plate movement through the process of mantle convection. This movement of the semi-fluid asthenosphere layer beneath the rigid lithosphere is thought to cause the plates to move over the Earth's surface.
from the bottom of the earth
There way more than that.