When a balloon is rubbed on a carpet, it becomes negatively charged due to the transfer of electrons from the carpet to the surface of the balloon. The wall, being neutral or slightly positively charged, is then attracted to the negatively charged balloon, causing it to stick to the wall due to electrostatic forces.
The balloon will have static electricity after being rubbed on the woolen cloth. This results from the transfer of electrons between the balloon and the cloth, causing the balloon to become negatively charged.
Yes, when a balloon is rubbed with wool, electrons are transferred from the wool to the balloon. This causes the balloon to become negatively charged as it gains extra electrons. This process is known as static electricity.
When a balloon is rubbed with plastic wrap, the balloon becomes negatively charged due to the transfer of electrons from the plastic wrap to the balloon. This results in the balloon being attracted to positively charged objects or surfaces, due to the attraction between opposite charges.
Yes, a balloon maintains its shape after being inflated because it is filled with air, which exerts pressure on the walls of the balloon to keep it inflated. If the balloon is tied or sealed properly, it will hold its shape until the air inside gradually seeps out over time.
Pepper sticks to a balloon due to static electricity. When the balloon is rubbed against hair or clothing, it gains an electric charge. The pepper, being lightweight, is attracted to the charged balloon and sticks to it.
no
The balloon will have static electricity after being rubbed on the woolen cloth. This results from the transfer of electrons between the balloon and the cloth, causing the balloon to become negatively charged.
Yes, when a balloon is rubbed with wool, electrons are transferred from the wool to the balloon. This causes the balloon to become negatively charged as it gains extra electrons. This process is known as static electricity.
When a balloon is rubbed with plastic wrap, the balloon becomes negatively charged due to the transfer of electrons from the plastic wrap to the balloon. This results in the balloon being attracted to positively charged objects or surfaces, due to the attraction between opposite charges.
Yes, a balloon maintains its shape after being inflated because it is filled with air, which exerts pressure on the walls of the balloon to keep it inflated. If the balloon is tied or sealed properly, it will hold its shape until the air inside gradually seeps out over time.
Pepper sticks to a balloon due to static electricity. When the balloon is rubbed against hair or clothing, it gains an electric charge. The pepper, being lightweight, is attracted to the charged balloon and sticks to it.
When a balloon is rubbed against a jumper, it gains a negative charge due to the transfer of electrons. The wall, being neutral, has positive charges in its atoms. Opposite charges attract, so the negatively charged balloon is attracted to the positively charged wall, causing it to stick.
The balloon, being charged with static electricity from the wool, will attract the opposite charges in the wall, causing the wall to slightly deform towards the balloon. This is a demonstration of electrostatic forces at play.
Over inflation is when (for example) a car tyre is pumped up higher than the manufacture recommends. A toy balloon blown up until it burst, is another example of something being over inflated.
A balloon inflated with vinegar and baking soda typically lasts for a few minutes. The chemical reaction between the vinegar (acid) and baking soda (base) produces carbon dioxide gas, which inflates the balloon. Once the reaction is complete and the gas stops being produced, the balloon will slowly deflate.
Negative charges move from a balloon when the balloon is rubbed against another object, such as hair or clothing, causing a transfer of electrons between the two materials. This process creates a buildup of negative charge on the balloon, resulting in it being negatively charged.
The pressure inside the balloon is greater than the ambient atmosphere pressure because the air molecules inside the balloon are more concentrated due to being compressed when the balloon is inflated. The pressure difference causes the balloon to expand until the internal pressure matches the external pressure, at which point the balloon stops inflating.