A conventional round parachute works by slowing rate of descent. The resistance of the air against the bell of the parachute provides an opposing force to the gravity pulling down. Such parachutes have a small opening at the top to let the air out slowly and provide stability. Without the hole the parachute tends to swing from side to side like a pendulum allowing air to escape from the upper edge which makes for a very unhappy person beneath. There is limited control on such a parachute with lines that can open small vents or collapse portions of the parachute.
The wing parachute operates completely differently. Forward motion allows air into slots at the front, blowing up the chute into a wing shape. Normal aerodynamic principles apply where air flows over the curved top surface faster than under the wing reducing pressure above the wing and providing lift. Such parachutes can climb as well as descend. Control lines provide equivalence with normal airplane wing controls such as aerilons but they work by flexing the wing as a bird, rather than moving small sections as on a fixed wing. By adjusting the lift ratios on different edges of the wing, turning, stalling, diving etc are achieved.
The man with a small parachute will fall faster.
Changing the weight of a parachute will affect its descent speed. A heavier parachute will fall faster while a lighter parachute will fall more slowly. This is because the weight influences the drag force acting on the parachute during descent.
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.
Because of gravity
a parachute is like a more durable and massive plastic bag it catches the wind so you would float down but if somehow it ripped the air would go straight through and the person would fall to a painful and mostly fatal landing
A heavy weight will cause the parachute to fall at a faster rate than a light weight due to gravity's pull. The air resistance provided by the parachute will slow down the descent of both heavy and light weights.
A parachute slows down the descent of an object by creating drag or air resistance. When a parachute is deployed during free fall, it opens up and catches air, creating a force that counteracts the force of gravity. This allows the object attached to the parachute to decelerate and descend at a slower, safer speed.
The surface area, mass and the shape of the parachute affect the time of fall of the parachutes. Also the height, where the parachute have been dropped from. ( There are more factors that this).
Punching a hole in a parachute will decrease the surface area and disrupt the airflow, causing the parachute to fall faster. The hole will reduce the air resistance acting on the parachute, resulting in a faster descent.
plummeted means to fall from a plane and not to have a parachute that will protect you from hitting the ground to hard.
An open parachute increases air resistance because it catches more air, slowing down the fall. In contrast, a closed parachute offers less resistance because it presents a smaller surface area to the air, causing the object to fall faster.
a parachute will save your life because you land properly and you dont fall face first plus the wind will contriol the parachute