I am here because i googled this same question, but i think i have a hypothesis of my own, which would be that yes it should stop eventually. There are vast areas of the Earth that have no area of isostatic activity - check out the wikipedia on post glacial rebound and there is a map that shows regions. I would imagine that this since this is an energy state issue , balancing with gravity, that the system would tend to settle as soon as possible. If we look at varying geologic areas effected by isostatic rebound it seems like they occur, in then remain static. iso static , a series of teeter-totter weights and balances, on the surface of the crust.
Isostatic rebound slows down over time as the earth's crust reaches a state of isostatic equilibrium where it is balanced with the underlying mantle. As the crust continues to adjust to changes in mass distribution, the rate of rebound gradually decelerates until it eventually stabilizes.
Post-glacial rebound (sometimes called continental rebound, glacial isostasy, glacial isostatic adjustment) is the rise of land masses that were depressed by the huge weight of ice sheets during the last glacial period, through a process known as isostasy.
Isostatic rebound. This is a slow process where the Earth's crust adjusts after being weighed down by glaciers or ice sheets, causing it to rise back up over time.
isostatic rebound
Isostatic rebound.
Areas of the crust that were once covered by continental glaciers are likely still experiencing rebound, a process known as isostatic rebound. This is the slow uplift of land due to the removal of the weight of the ice sheets, causing the crust to rise.
The rising of the crust due to a loss of mass is called isostatic rebound. This occurs when the weight on the Earth's crust decreases, causing the crust to slowly rise in response to the reduced load.
When the weight of an area of the Earth's crust decreases, the lithosphere may rebound or rise due to isostatic adjustment. This can lead to uplift of the crust in that area to reach a new equilibrium state.
A period of major erosion can lead to the removal of significant mass from a mountain range, causing it to rebound or rise due to isostatic adjustment. This adjustment occurs as the lithosphere beneath the mountain range readjusts to achieve equilibrium with the reduced load on top. Over time, the mountain range may experience changes in elevation and shape as a result of this isostatic adjustment process.
The student can demonstrate isostatic rebound by adding weight to the top of the block of wood, causing it to sink lower into the water to simulate the loading of a landmass. When the weight is removed, the block of wood will slowly rise back up to its original position, representing isostatic rebound where land rises after the removal of weight due to the rebounding of the mantle below.
Yes, isostatic adjustments can occur as a result of erosion of mountain ranges. When material is eroded from the top of a mountain range, the removal of the weight causes the crust beneath to slowly rebound and readjust, leading to isostatic adjustments. Over time, this can cause the mountain range to decrease in height and the surrounding land to rise.
When an ice sheet is removed, the lithosphere underneath experiences isostatic rebound due to the removal of the weight of the ice. This causes the lithosphere to rise up and readjust to a new equilibrium state over time. The process can lead to changes in the Earth's crust and can affect landforms and the redistribution of weight in the surrounding areas.