Electrons move from the wool to objects that come into contact with it, such as a rubber rod or a glass surface, through a process called triboelectric charging. When wool is rubbed against another material, it can transfer electrons, causing the wool to become positively charged and the other material to become negatively charged. This transfer occurs due to differences in the materials' electron affinities. As a result, the wool loses electrons and gains a positive charge.
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.
The hard rubber would acquire a negative charge as electrons move from the wool to the rubber. Wool has a higher tendency to lose electrons, leaving the rubber with an excess of electrons and thus a negative charge.
When a rubber rod is rubbed with wool, electrons are transferred from the wool to the rubber rod, causing the rubber rod to become negatively charged. This transfer of electrons creates an imbalance of charge on the two materials, resulting in the rubber rod being negatively charged.
When a plastic rod is rubbed with wool, electrons are transferred from the wool to the plastic rod. This leaves the wool with a net positive charge due to the loss of electrons, while the plastic rod acquires a net negative charge due to gaining these electrons.
When a plastic rod is rubbed with wool, electrons are transferred from the wool to the rod. This process leaves the wool with a deficiency of electrons, resulting in a positive charge. Meanwhile, the plastic rod, having gained these electrons, becomes negatively charged. This charge transfer is due to the differences in the materials' electron affinity, with wool having a stronger tendency to lose electrons compared to plastic.
When polythene is rubbed with wool, electrons are transferred from the wool to the polythene due to differences in their electronegativities. The polythene gains extra electrons, making it negatively charged, while the wool becomes positively charged due to losing electrons.
The wool would have a positive charge, while the comb is negative. This is because the comb will take excess electrons from the wool.
When a balloon is rubbed with a wool cloth, electrons are transferred from the wool to the balloon, giving the balloon a surplus of electrons, making it negatively charged. Wool has a higher affinity for electrons compared to the balloon material, which results in the transfer of electrons and the creation of a negative charge on the balloon.
When the rubber rod is rubbed with wool, electrons are transferred from the wool to the rubber, leaving the rubber with a net positive charge. This occurs because the rubber has a higher affinity for electrons compared to wool. The excess electrons on the rubber rod result in a net negative charge, as the positive charge was neutralized by the transfer of electrons.
When a balloon is rubbed against a wool cloth, electrons are transferred from the wool to the balloon, leaving the balloon with an excess of electrons and a negative charge. This transfer of electrons is due to the difference in the materials' electron affinities, causing one material to lose electrons (becoming positively charged) and the other to gain electrons (becoming negatively charged).
Rubbing wool against plastic doesn't actually "create" static electricity. However, rubbing wool and plastic together does increase the surface area of the two materials that are coming into contact. When this happens electrons are exchanged between the two surfaces creating an imbalance. It is this imbalance of electrons that we see as static electricity.
Rubbing a glass with a piece of wool creates friction, causing electrons to be transferred between the two materials. The glass becomes negatively charged as it gains electrons, while the wool becomes positively charged as it loses electrons. This phenomenon is known as static electricity.