Rivers "carry" their sediment load only as long as the velocity of the water remains high enough to create sufficient turbulence to keep the particles "stirred up". Once a river loses its velocity and the stirring effect of the turbulence subsides the sediment load can no longer remain suspended in the water. At this point gravity takes over and the river begins to "drop" its sediments in a process named deposition.
Now a river going around a curve is like two tires at each end of an axle going around a curve. The tire on the outside of the curve has to move faster than the tire on the inside of the curve since it has a longer radius of travel. So too the water in the river moves faster at the outside of the curve than the water inside the curve. Between the two different water velocities the deposition is going to occur on the inside curve of the river where the water loses its velocity.
Conversely, the opposite of deposition which is erosion will take place at the outside of the curve in the river.
The ability of a stream to erode and transport materials largely depends on its velocity and discharge. Higher flow velocity increases the stream's energy, allowing it to erode the riverbed and banks more effectively while transporting larger sediment particles. Additionally, the gradient of the streambed and the size, shape, and composition of the sediment also play significant roles in determining the stream's erosive and transport capacity.
The base level is the lowest point to which a stream can erode its channel. This can be the level of the body of water into which the stream flows, such as a lake or ocean, or an artificial structure like a dam. At base level, erosion stops and sediment deposition begins.
The outside of a meandering stream erodes more than the inside bends due to the faster flow of water on the outside of the curve. The higher velocity of water on the outside causes more erosion through processes like hydraulic action and abrasion, wearing away the bank more quickly. Additionally, the outside bends experience more turbulence, leading to increased erosion compared to the inside bends.
rate of stream discharge is directly proportional to the erosion i.e the higher the velocity of the stream then it will erode the rock rapidly while the deposition process will be slow when the velocity will be high.
The major factor that determines a stream's ability to erode land is the stream's velocity. Higher velocity streams have more energy and can pick up and transport larger sediment particles, leading to more erosion. Additionally, the volume of water in the stream and the presence of steep gradients can also influence erosion.
The ability of a stream to erode and transport material largely depends on its discharge, velocity, gradient, and the size and shape of the sediments. These factors influence how much sediment a stream can carry and how effectively it can erode material from its surroundings.
Gravity influences a stream's ability to erode materials by pulling them downstream. The force of gravity helps water to carry sediment and erode the streambed. Additionally, gravity plays a role in the deposition of materials by causing sediment to settle out of the water when the stream's velocity decreases.
Raising the base level of a stream would typically cause the stream to lose energy and deposition could occur rather than erosion. This is because by raising the base level, the stream has less energy to transport sediment, leading to sediment accumulation rather than erosion.
The ability of a stream to erode and transport materials largely depends on its velocity and discharge. Higher flow velocity increases the stream's energy, allowing it to erode the riverbed and banks more effectively while transporting larger sediment particles. Additionally, the gradient of the streambed and the size, shape, and composition of the sediment also play significant roles in determining the stream's erosive and transport capacity.
The maximum depth to which a stream can erode is called the "base level." Base level is the lowest point to which a stream can flow, typically determined by factors such as sea level or the level of a lake. When a stream reaches its base level, it can no longer erode its bed further, leading to a reduction in its energy and often resulting in sediment deposition.
The most important factor influencing a stream's ability to erode is the stream's velocity or flow rate. Higher velocities increase the stream's capacity to transport sediment and erode the streambed and banks. Other contributing factors include the gradient of the stream, the volume of water, and the nature of the bed and bank materials, but flow velocity is the primary driver of erosion.
You
The base level is the lowest point to which a stream can erode its channel. This can be the level of the body of water into which the stream flows, such as a lake or ocean, or an artificial structure like a dam. At base level, erosion stops and sediment deposition begins.
You
The variation in stream flow speed significantly influences both stream depth and sediment deposition. When the flow speed increases, it has the capacity to erode the streambed and banks, leading to deeper channels. Conversely, when the flow slows down, sediment carried by the water settles out, resulting in sediment deposition and potentially shallower areas. This dynamic relationship affects the overall morphology and ecology of the stream system.
The outside of a meandering stream erodes more than the inside bends due to the faster flow of water on the outside of the curve. The higher velocity of water on the outside causes more erosion through processes like hydraulic action and abrasion, wearing away the bank more quickly. Additionally, the outside bends experience more turbulence, leading to increased erosion compared to the inside bends.
Are you talking about meanders? when overtime laterally erode the banks (undermine) due to the hydrolic fore of the water. Then then turn to ox-bow lakes due to deposition along the curve and erosion coming into the curve. (bypasses the curve; cuts straight through)