As long as it is not accelerating (going faster and faster, or slower and slower), the forces on the parachute are balanced. Initially, the parachute will accelerate - in this case the forces are unbalanced. It will continue accelerating, until the force of gravitation is balanced by the force of resistance.
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 falling at a steady speed, the primary form of energy being used is gravitational potential energy being converted into kinetic energy. As the parachute falls, the force of gravity acting on it is balanced by air resistance, resulting in a constant speed descent.
When a parachute is falling at a steady speed, the forces acting on it are balanced. The force of gravity pulling the parachute downward is equal to the air resistance pushing upward, resulting in a state of equilibrium.
Yes, the material of a parachute affects how it falls. The type of material used can impact the drag force, deployment speed, and overall stability of the parachute during descent. Different materials have varying strength, weight, and resistance to air flow, all of which can influence the way a parachute falls.
Yes, the area of a parachute directly affects how fast it falls. A larger parachute will create more air resistance, slowing down its descent, while a smaller parachute will fall faster due to less air resistance.
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 falling at a steady speed, the primary form of energy being used is gravitational potential energy being converted into kinetic energy. As the parachute falls, the force of gravity acting on it is balanced by air resistance, resulting in a constant speed descent.
When a parachute is falling at a steady speed, the forces acting on it are balanced. The force of gravity pulling the parachute downward is equal to the air resistance pushing upward, resulting in a state of equilibrium.
Yes, the material of a parachute affects how it falls. The type of material used can impact the drag force, deployment speed, and overall stability of the parachute during descent. Different materials have varying strength, weight, and resistance to air flow, all of which can influence the way a parachute falls.
Yes, the area of a parachute directly affects how fast it falls. A larger parachute will create more air resistance, slowing down its descent, while a smaller parachute will fall faster due to less air resistance.
The scene where Katniss falls off the parachute is on page 136 of the book "Mockingjay" by Suzanne Collins.
by ejaculating
The upwards force on a parachute is called lift. It is created by the air resistance or drag generated by the canopy of the parachute as it falls through the air.
The force pushing a parachute up is called drag. It is created when the parachute interacts with the air as it falls, slowing down its descent.
In the case of a parachute, the person and parachute fall at a constant speed once the forces acting on them are balanced. This means that the net acceleration, including gravity, is zero. Gravity is still acting on the person and parachute, but it is balanced by the drag force exerted by the parachute, resulting in a constant speed descent.
No, a parachute slows down as it falls through the air due to air resistance. The parachute creates drag which counteracts the force of gravity, causing it to descend at a controlled speed.
the bigger the parachute the slower it falls. but, that is dangerous because it carries more so they try not to make them to big because one gust of wind could blow you a mile to 2 miles off course.