If you filled the bottle with water and then poked the balloon with a pin, I believe it would pierce but not pop it. With the balloon pierced, all you would then have to do is drain the water from the bottle, maneuver the balloon toward its mouth and drain it, and then finish removing the balloon either by fishing or dropping it out of the bottle's mouth.
If you prick a balloon without water, the air inside the balloon will escape rapidly through the hole created by the prick. The balloon will quickly deflate and likely make a popping sound.
Water can affect balloon popping by dampening the rubber and making it more prone to breaking. Water can also add weight to the balloon, which may increase the likelihood of it popping due to added strain on the rubber.
The 'popping' sound of a balloon disintegrating is made by the sudden expansion of air when the skin is damaged. The compressed air within is then able to escape. One interesting variant of your 'water' experiment, is to stick a bit of cellulose tape to the balloon, and then you'll find that you may puncture the balloon; through the tape; without it popping! It will eventually deflate however.
Balloons are designed to stretch to accommodate different volumes, including water, without breaking. The pressure inside the balloon is distributed more evenly when there is water inside, reducing the risk of popping compared to when there is just air inside. Additionally, the water absorbs some of the energy from external forces acting on the balloon, further reducing the likelihood of it popping.
The distance a water balloon can be thrown before popping depends on various factors including the size of the balloon, the force of the throw, the height of the throw, and the thickness of the balloon's skin. In general, a water balloon can typically be thrown up to 20-30 feet before popping.
If you prick a balloon without water, the air inside the balloon will escape rapidly through the hole created by the prick. The balloon will quickly deflate and likely make a popping sound.
Water can affect balloon popping by dampening the rubber and making it more prone to breaking. Water can also add weight to the balloon, which may increase the likelihood of it popping due to added strain on the rubber.
The 'popping' sound of a balloon disintegrating is made by the sudden expansion of air when the skin is damaged. The compressed air within is then able to escape. One interesting variant of your 'water' experiment, is to stick a bit of cellulose tape to the balloon, and then you'll find that you may puncture the balloon; through the tape; without it popping! It will eventually deflate however.
Balloons are designed to stretch to accommodate different volumes, including water, without breaking. The pressure inside the balloon is distributed more evenly when there is water inside, reducing the risk of popping compared to when there is just air inside. Additionally, the water absorbs some of the energy from external forces acting on the balloon, further reducing the likelihood of it popping.
No.
To conduct a yeast balloon experiment, you will need a balloon, a water bottle, warm water, sugar, active dry yeast, and a funnel. First, mix the warm water with sugar in the bottle, add yeast using the funnel, and stretch the balloon over the top of the bottle. As the yeast consumes the sugar and produces carbon dioxide, the balloon will inflate.
The distance a water balloon can be thrown before popping depends on various factors including the size of the balloon, the force of the throw, the height of the throw, and the thickness of the balloon's skin. In general, a water balloon can typically be thrown up to 20-30 feet before popping.
Air inside the bottle expands when the bottle is heated. Some of it leaves the bottle until the pressure of the heated air remaining in the bottle equals the pressure of the air in the room. The balloon is then placed over the neck of the bottle and prevents any more air from entering or leaving the bottle. The air inside the bottle cools to the temperature of the ice water. The cooler air inside the bottle takes less space (volume) than it did when hot, so it sucks the balloon inside the neck of the bottle. Air pressure inside the bottle causes the balloon to stretch and enlarge until the air pressure inside the bottle, including the air in the balloon, has the same pressure as the air in the room.
The hot water heats up the air inside the bottle, causing it to expand, forcing some of the air out of the bottle and into the balloon, causing it to inflate. The larger the bottle, the more air that will be pushed into the balloon. The air in the balloon will quickly cool and, since hot air is less dense and therefore rises, the cooler air is forced back into the bottle to be heated up. Eventually the air will be a constant temperature and the balloon will reach the limit of inflation. As the water cools, the air cools and the balloon begins to deflate.
When a bottle-and-balloon system is placed in hot water, the air inside the bottle expands due to an increase in temperature. Since the bottle is sealed off from the outside, the expanding air has nowhere to go, causing the balloon to inflate as a result of the increased pressure inside the bottle.
When the bottle is placed in hot water, the air inside expands due to the increased temperature. This causes the balloon to inflate as the air pressure inside the bottle increases.
When a bottle of hot water is placed near a balloon stretched over the top, the air inside the balloon will expand due to the heat, causing the balloon to inflate. Conversely, if the hot water cools down, the air will contract and the balloon will deflate.