I am assuming that a rubber balloon is meant here not a hot air balloon!
Squeezing a balloon will give rise to a decrease in volume and a subsequent increase in internal pressure which may not be too large as the balloon expands in another part to compensate.
Using the kinetic theory of gases (which shouldn't strictly be applied to this case but provides insights) the average energy of the particles inside depends on the temperature- the particles don't go any faster they just hit the inside of the balloon more often because of the decrease in volume.
When you leave a balloon in the freezer overnight, the air inside the balloon cools down and contracts, causing the balloon to shrink. The particles in the air inside the balloon lose kinetic energy and move more slowly, resulting in a decrease in pressure and volume inside the balloon.
no, the air inside balloons is a gas and therefore the particles are moving quickly and are spread out, bouncing off the sides of the balloon. Particles in solids are packed close together.
When the burner is turned off, the air inside the hot air balloon cools down. As the air cools, it becomes denser and the balloon will start to descend due to the decrease in buoyancy. The pilot may need to use the burner again to maintain altitude or control the descent.
When you put a balloon in the freezer, the particles of the air inside the balloon will lose energy and slow down, causing them to contract and the balloon to shrink. This is because the cold temperature reduces the kinetic energy of the air molecules, leading to a decrease in pressure inside the balloon.
because the particles are destroyed when they are cooled.
When you blow into a balloon, the particles of air you exhale are compressed and forced into the balloon. This increases the air pressure inside the balloon, causing it to expand and inflate.
it rises
When you leave a balloon in the freezer overnight, the air inside the balloon cools down and contracts, causing the balloon to shrink. The particles in the air inside the balloon lose kinetic energy and move more slowly, resulting in a decrease in pressure and volume inside the balloon.
A hot air balloon rises because the air inside the balloon is heated by a burner, making it less dense than the surrounding cooler air. This temperature difference creates buoyancy, causing the balloon to float upwards. As the air inside the balloon cools down, the particles lose energy and the balloon begins to descend.
The number of air particles in a balloon can vary depending on the size of the balloon and the pressure of the air inside. On average, there are approximately 2.5 x 10^22 air molecules in a standard-sized balloon.
As the speed of particles inside an air-filled balloon increases, the pressure inside the balloon also increases due to more frequent collisions with the walls of the balloon. This can cause the balloon to expand or even burst if the speed increases significantly.
When the heater is turned on inside a hot air balloon, the air inside the balloon gets heated, causing the particles to move faster and spread apart. This lowers the density of the air inside the balloon, making it lighter than the surrounding cooler air, which allows the balloon to rise.
A hot air balloon works by heating the air inside the balloon with a burner, which causes the air to become less dense and rise. As the air inside the balloon expands and is less dense than the cooler air outside, it creates lift, allowing the balloon to float. The particles in the heated air have more energy and move farther apart, making the air lighter and causing the balloon to rise.
The speed of the particles inside the air-filled balloon increases as the temperature increases. This is because higher temperatures provide more thermal energy to the particles, causing them to move faster.
They move around faster and faster, causing the temperature to increase, and because hot air rises above cold air, the balloon lifts, applying lift to the basket, causing the hot air balloon to rise into the air.
Cooling the air inside a sealed balloon will cause the air particles to slow down and lose energy, resulting in a decrease in pressure. As a result, the balloon will shrink in size due to the decrease in pressure exerted by the air particles on the balloon walls.
The air particles inside a balloon exert pressure evenly in all directions against the walls of the balloon, causing it to inflate and take on its shape. The elasticity of the balloon material allows it to stretch in response to the pressure from the air particles, resulting in the balloon's shape.