Up thrust because the air pushes up and fills up the parachute.
When a parachute is deployed, the action force is the tension force exerted by the parachute on the air molecules it displaces downward. The reaction force is the equal and opposite drag force exerted by the displaced air molecules on the parachute fabric, which slows down the descent of the parachutist.
When a parachute is deployed, the action force is the parachute pushing against the air resistance, creating drag. The reaction force is the air pushing back up on the parachute, providing lift and slowing down the descent of the object attached to the parachute.
When an object floats, the force of weight acting downward is balanced by the force of upthrust acting upward. This equilibrium is achieved because the weight of the object displacing water is equal to the upthrust created by the displaced water.
If enough upthrust is added to an object then it will be pushed upwards. If enough air resistance is applied to an object then it will move in the direction which the air resistance is pushing it in. If you are already falling, then you will have air resistance. If it is increased when you open a parachute for instance, then you will slow down.
When an object is placed in a fluid (like water), it experiences two opposing forces: weight pulling it down and upthrust (also called buoyant force) pushing it up. If the object's weight is less than the upthrust, it will float. This happens because the upthrust force exerted by the fluid is greater than the object's weight, allowing it to stay afloat.
When a parachute is deployed, the action force is the tension force exerted by the parachute on the air molecules it displaces downward. The reaction force is the equal and opposite drag force exerted by the displaced air molecules on the parachute fabric, which slows down the descent of the parachutist.
When a parachute is deployed, the action force is the parachute pushing against the air resistance, creating drag. The reaction force is the air pushing back up on the parachute, providing lift and slowing down the descent of the object attached to the parachute.
When an object floats, the force of weight acting downward is balanced by the force of upthrust acting upward. This equilibrium is achieved because the weight of the object displacing water is equal to the upthrust created by the displaced water.
If enough upthrust is added to an object then it will be pushed upwards. If enough air resistance is applied to an object then it will move in the direction which the air resistance is pushing it in. If you are already falling, then you will have air resistance. If it is increased when you open a parachute for instance, then you will slow down.
When an object is placed in a fluid (like water), it experiences two opposing forces: weight pulling it down and upthrust (also called buoyant force) pushing it up. If the object's weight is less than the upthrust, it will float. This happens because the upthrust force exerted by the fluid is greater than the object's weight, allowing it to stay afloat.
Air resistance or upthrust :)
In a parachute system, the balanced force is the air resistance (drag) acting against the force of gravity. The drag force slows down the descent of the parachute, creating a balanced force that allows it to glide safely to the ground. An unbalanced force would occur if the parachute experiences a sudden shift in wind direction or if there is a malfunction with the parachute system, causing it to descend faster or slower than intended.
When a parachute is deployed, the action force is the air resistance pushing against the parachute fabric. This air resistance is created by the change in the air's velocity as it passes through the canopy of the open parachute. The reaction force to this action force is the drag force created by the parachute pulling against the jumper. This drag force is created by the increase in the parachute's surface area, which slows the jumper down as they fall. The drag force is also responsible for the parachute's ability to slow the jumper's descent enough to safely reach the ground.
A parachute works due to air resistance, which creates drag forces that slow down the falling object by pushing against the air. As the parachute opens and fills with air, the drag force increases, counteracting the force of gravity and allowing for a controlled descent.
Air resistance acts against the force of gravity, slowing down the descent of a parachute. The larger the surface area of the parachute, the more air resistance it creates, which helps to slow down its fall. Gravity, on the other hand, pulls the parachute downwards with a force proportional to the mass of the parachute. Balancing these forces allows the parachute to descend safely and slowly.
Friction, weight, and air resistance are forces that can slow things down. Friction opposes the motion of objects sliding past each other, weight is the force due to gravity pulling objects downwards, and air resistance is caused by air pushing against objects moving through it. Upthrust, also known as buoyancy, is a force that opposes weight but typically does not slow objects down.
The two forces acting on a parachute when it falls are gravity, pulling it downward, and air resistance (drag), pushing against its motion. As the parachute opens, air resistance becomes higher, counteracting gravity and slowing down its descent. Unfortunately, I can't draw a diagram as I'm a text-based assistant, but you can easily search for parachute force diagrams online.