When a balloon is rubbed on a jersey, it gains an electric charge. This charge creates an attraction between the balloon and the ceiling, which is typically neutral in charge. The balloon sticks to the ceiling because of the electrical forces holding it there.
When an inflated balloon is rubbed with a woolen cloth, it becomes charged with static electricity. When the charged balloon is brought near pieces of paper, the static electricity causes the paper to be attracted towards the balloon due to the electric charges interacting with each other.
When a balloon is rubbed against a material (such as wool or hair), it acquires an electrostatic charge. This charge creates a force between the balloon and the ceiling, causing the balloon to stick. This force is due to static electricity.
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.
A balloon rubbed against your head will most likely stick to a surface like a wall or ceiling, as the rubbing generates static electricity which can cause the balloon to attract to surfaces with opposite charges.
When a balloon is rubbed on your hair, electrons are transferred from your hair to the balloon, giving the balloon a negative charge and your hair a positive charge. This results in an overall negative net charge on the balloon.
When an inflated balloon is rubbed with a woolen cloth, it becomes charged with static electricity. When the charged balloon is brought near pieces of paper, the static electricity causes the paper to be attracted towards the balloon due to the electric charges interacting with each other.
When a balloon is rubbed against a material (such as wool or hair), it acquires an electrostatic charge. This charge creates a force between the balloon and the ceiling, causing the balloon to stick. This force is due to static electricity.
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 charge on the balloon would be -1.6 x 10^-12 coulombs.
A balloon rubbed against your head will most likely stick to a surface like a wall or ceiling, as the rubbing generates static electricity which can cause the balloon to attract to surfaces with opposite charges.
When a balloon is rubbed on your hair, electrons are transferred from your hair to the balloon, giving the balloon a negative charge and your hair a positive charge. This results in an overall negative net charge on the balloon.
When a balloon is rubbed with wool, the wool transfers electrons to the balloon, giving the balloon a net negative charge. Negative charges from the wool are transferred to the balloon, causing the balloon to become negatively charged.
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.
No, a balloon filled with static electricity will not stick to metal if rubbed against your head. The static charge on the balloon and your head would not be strong enough to hold the balloon to the metal.
When the rubbed balloon is brought close to the can, electrons will transfer from the can to the balloon, creating a net positive charge on the can. This causes the can to be attracted to the negatively charged balloon, leading to the can moving towards the balloon until they touch or reach a balance in the electrostatic forces.
no