The subtropical ridge, which is the subtropical high pressure systems belt created by the atmospheric circulation, and more precisely the Hadley Cell. The subtropical ridge locates in the subtropical latitudes called the horse latitudes. The story begins at the equator, where the strong solar radiation warms up the ground and the atmosphere a lot. As the air mass warms up continuously, the air mass start to lift and to rise. The air mass cools off by the dry adiabatic lapse rate and is moistened as it rises by expansional cooling. When the air mass can't handle more water vapor, the excessive humidity condenses and forms high-level clouds and heavy rain over the equator region. During the condensation the air cools off more slowly (by the satured adiabatic lapse rate). The air mass has now lost the major part part of his water vapor, so it's now very dry. After a given altitude, the air mass can't rise anymore and begins to move towards the polar regions and the air mass if still cooling down. Then, over the subtropical regions the air can't move towards the poles anymore since there is no more espace, so the air mass is forced to descend, to sink over the horse latitudes. As the air sinks, it warms up and dries out (by the dry adiabatic lapse rate again) adiabatically by compressional heating. This large-scale zone of sinking, descending air is called the subtropical ridge over given latitudes forms a great portion og the subtropical hot deserts found in the world like the Sahara, the Arabian Desert, the Libyan Desert, the Atacama Desert, the Namib Desert or the Australian Desert. The sinking air is very dry in these regions prevents cloud developpement and precipitation formation. It's the first factor of creating dry climates. The fact that the hot deserts are hotter than tropics or the equator resides in the fact the air has gained more heat than this one has lost during the Hadley Cell process.
Erosion by wind can lead to the removal of fine soil particles, decrease soil fertility, and cause loss of topsoil. It can also contribute to the formation of sand dunes in desert regions. Overall, wind erosion can have negative impacts on soil quality and ecosystem health.
A hanging valley is a destructive force. This is because the valley is formed by erosion, anything that is causes elevation to fall is destructive.
Weathering, or erosion changes the Earth's surface slowly over time.
Yes, waves are a major force of erosion along coasts. The continuous impact of waves against the coastline wears away rock and sediment, leading to the erosion of coastal landforms. This erosion can result in the formation of cliffs, sea caves, and other coastal features.
Wind erosion plays the greatest role in shaping the landscape of the Arabian Peninsula. The region experiences strong winds that carry and deposit sand and dust, leading to the formation of sand dunes and desert landscapes. Wind erosion is a prominent geological force in shaping the unique features of the Arabian Peninsula.
Running Water
Friction causes erosion through wind or water.
wind is an agent of erosion which causes sheet erosion
Wind erosion
Wind is the primary agent of erosion in desert regions. It carries and deposits sand particles, creating distinctive landforms like sand dunes. Wind erosion is a significant force in shaping desert landscapes.
No, its erosion that causes rocks to change
the driving force for erosion is , when bad things come out of driving that involves erosion.
The force of the water hitting what ever is below it causes erosion
Any force applied on it, erosion, pressure and heat from underground.
i think water erosion created norways fjords
Erosion is more common in damp areas with a lot of rain because water increases the force of erosion by carrying sediment away more easily. In dry areas, lack of water reduces the erosive power, making erosion less frequent. Additionally, vegetation in damp areas can hold soil in place, reducing erosion, while dry areas with less vegetation are more susceptible to erosion.
Wave action is a pounding force that causes erosion along the shoreline. Waves can carry sand and debris, which wear away the coastline over time. These actions, combined with tides and currents, can reshape beaches and cliffs.