The wind pushing up against it holds it up
Kites stay in the air because of the force exerted on them by moving air (wind). If there were no wind then the kite would fall to the ground. This is because gravity is always trying to pull the kite down. Now the force of wind comes in to play to keep the kite in the air. The kite is at an angle to the ground, and it looks like this slash when it is flying in the air ---> / That is important because as the kite catches the wind two orthogonal forces are applied to the kite. One that is anti-parallel to gravity (Meaning the force is pointing up.) and one that is orthogonal to gravity. We don't necessarily care about the orthogonal force for our example so let's forget about it. The force generated on the kite that is anti-parallel to gravity is what keeps it in the air, so long as the anti-parallel force is greater than the weight of the kite.
kites stay in the air they follow the air around the same things with bollons if they are let go they would fly away > moving air (wind ) is required, the angle of the kite gives vertical force to the kite, opposing gravity.
The tail causes drag and keeps the kite stable. By pulling down, on the part of the kite it is attached to, it keeps it orientated upright and more stable.The longer the tail, the more drag. A short tail, may not be enough in a strong wind to stabilise the kite. A tail that is too long, may cause difficulties in getting it off the ground in a light wind.
The tail causes drag and keeps the kite stable. By pulling down, on the part of the kite it is attached to, it keeps it orientated upright and more stable.The longer the tail, the more drag. A short tail, may not be enough in a strong wind to stabilise the kite. A tail that is too long, may cause difficulties in getting it off the ground in a light wind.
the reason is that the kite would not get any air to help it rise up
Air pressure affects lift on a kite by creating a pressure difference between the top and bottom surfaces of the kite. This pressure difference results in a force called lift that allows the kite to rise and stay airborne. Higher air pressure below the kite and lower air pressure above it lead to an upward force that keeps the kite aloft.
Bernoulli's principle states that as the speed of a fluid (such as air) increases, its pressure decreases. In the case of a kite, the air moving over the top surface of the kite moves faster than the air below, causing a pressure difference that generates lift and keeps the kite aloft.
A kite falls to the ground when the wind stops because it no longer generates lift to keep it airborne. Lift is generated when air flows over the kite's surface, creating a pressure difference that keeps it in the air. Without wind, there is no lift to support the kite, causing it to descend.
Kites stay in the air because of the force exerted on them by moving air (wind). If there were no wind then the kite would fall to the ground. This is because gravity is always trying to pull the kite down. Now the force of wind comes in to play to keep the kite in the air. The kite is at an angle to the ground, and it looks like this slash when it is flying in the air ---> / That is important because as the kite catches the wind two orthogonal forces are applied to the kite. One that is anti-parallel to gravity (Meaning the force is pointing up.) and one that is orthogonal to gravity. We don't necessarily care about the orthogonal force for our example so let's forget about it. The force generated on the kite that is anti-parallel to gravity is what keeps it in the air, so long as the anti-parallel force is greater than the weight of the kite.
Air + snake = kite
Potential energy, because of this a kite is not moving.
A kite string is a string which connects a kite to the person flying it. The string not only prevents the kite from flying away but actually keeps it flying by assuring that it does not turn from the wind.
The lifting force of all kites is produced by deflecting the air downward, the resulting change in momentum producing an upward force. The reason for this is that the air traveling over the top of the curved surface of the kite is going faster than the air passing underneath. Fast-moving air creates less pressure; this means there is more pressure underneath the kite, and this helps to force it upwards. Think of the kite as a sail boat, catching the air. The air tries to push the kite along like the sail boat. But the string the flyer holds keeps the kite tethered. Since the kite cannot go with the wind flow and the kite is tilted so that the air is deflected downward, the kite has no where to go but up. Both the lift-to-drag ratio and the stability of the kite are functions of the length of cable. The more cable released, the more drag created.
Gravity is a strong force that pushes things to the ground. Unfortunately, some objects have a mass that is able to be pushed around by other forces, namely wind, and so in the case of a kite, wind takes over gravity, and flies the kite.
Yes, flying a kite is a density application because it involves utilizing the density difference between the air inside the kite and the surrounding air to generate lift. By harnessing this density differential, the kite is able to fly in the air.
the kite that fly in the air came first but the geometric one is a kite is a quadrilateral with two pairs of congruent adjacent sides and no opposite sides congruent.
the kite