earth's gravity
The force of atmospheric pressure on a blimp is what allows it to stay inflated and maintain its shape. The pressure inside the blimp is slightly higher than the surrounding atmosphere, which pushes against the walls of the blimp and keeps it buoyant. If the pressure inside the blimp is lower than the outside atmosphere, the blimp will deflate.
The force of atmospheric pressure on a blimp is what helps it to stay inflated and maintain its shape. The blimp is designed to have a higher pressure inside than outside, creating buoyancy that enables it to float in the air. Changes in atmospheric pressure can impact the altitude and stability of the blimp.
When the air inside the balloon escapes, it creates a difference in air pressure between the inside and outside of the balloon. This pressure difference causes the balloon to move in the direction of lower pressure, which is typically outwards.
The elastic contraction of the rubber in the balloon's membrane causes the pressure in the air inside an inflated balloon. When you inflate a balloon, you have to expand the latex of the balloon, which stretches when filled with air from a pressure of 760 mm Hg to as high as 840 (about 10% higher than standard atmospheric pressure). If you inflate a non-elastic mylar balloon, it takes no effort: the air inside is at the same pressure as the air outside.
The element that is used in the Goodyear blimp and other dirigibles is helium. This gas is lighter than air and causes the blimp to rise.
Heating the air inside the balloon causes the air molecules to move faster and spread out, increasing the pressure inside the balloon. This increase in pressure pushes against the balloon's walls, causing it to expand and inflate.
An everyday example of air having pressure is when you inflate a balloon. The air inside the balloon exerts pressure against the walls of the balloon, which causes it to expand and take on a specific shape. When you release the balloon, the air pressure inside forces it to deflate.
When the air is pumped out of the can, the pressure inside the can becomes significantly lower than the external atmospheric pressure. The higher external pressure then causes the can to collapse. This is due to the unequal forces acting on the can from the outside and inside, leading to the can's deformation.
Differences in air pressure create a pressure gradient that causes air to move from high pressure areas to low pressure areas. When the air inside the chimney is heated by the fire, it becomes less dense and rises. This creates a lower pressure inside the chimney relative to the outside air, which causes the smoke to be drawn up and out of the chimney.
No. helium gas inside the blimp keeps it aloft. Just like a helium makes balloons fly!!
Adding more air molecules to a balloon increases the number of collisions between the molecules and the balloon walls, thereby increasing the pressure inside the balloon. This increase in air pressure causes the balloon to expand until the pressure inside matches the pressure outside.
When you blow air into a balloon, the pressure of the air you are adding is higher than the surrounding air pressure inside the balloon. This increase in pressure causes the rubber of the balloon to stretch and expand. As you continue to blow more air, the balloon grows in size until the pressure inside the balloon equalizes with the pressure outside.