You have a small person under the small parachute.
Yes, the size of a parachute does affect how long it will float in the air. A larger parachute with more surface area will create more drag, slowing the descent and allowing it to float in the air longer compared to a smaller parachute.
A parachute works by increasing air resistance. When the parachute opens, it creates a large surface area that catches and slows down the air as the object falls. This increased air resistance reduces the speed at which the object falls, allowing it to descend more slowly and safely.
At a short distance, a small parachute would fall faster than a large parachute. This is because a smaller parachute has less surface area to slow down the descent, causing it to fall more quickly.
Parachutes fall slowly due to air resistance. The large surface area of the parachute creates drag, which counteracts the force of gravity pulling the object down. By catching air and creating drag, the parachute allows for a slower descent, providing a gentle landing.
You can make a parachute stay in the air longer by increasing its surface area, either by using a larger parachute or by adding more fins or panels to the canopy. You can also try adjusting the weight of the payload attached to the parachute to help it descend more slowly. Finally, make sure the parachute is properly packed and deployed to maximize its effectiveness in the air.
A parachute creates air resistance as it falls, slowing down its descent. The increased surface area of the parachute allows for more air resistance, counteracting the force of gravity. A stone, on the other hand, has a smaller surface area and experiences less air resistance, leading to a faster 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.
An open parachute increases air resistance by creating a larger surface area that pushes against the air as the skydiver falls. This increased surface area results in greater air resistance, slowing down the skydiver's descent. The parachute helps to counteract the force of gravity and allows the skydiver to descend more slowly and safely.
The larger surface area of a big parachute creates more drag or air resistance compared to a smaller parachute. This increased drag helps to slow down the fall more effectively. Additionally, the shape and design of a big parachute are optimized to catch more air, further enhancing its braking effect.
Yes, a pin can float on water due to its low density and small surface area. Surface tension of water helps support the weight of the pin, allowing it to float.
A parachute works as the gravity allows the parachute to go up into the air, then the surface area is covered with air resistance.
A small parachute would fall faster then a larger one because there is less air resistance trying to push the small one up but the larger one has a lot of air resistance because there is more area for the air to push up. Hope this helped :P