When the leather soles rub against the wool, electrons are transferred to the shoes. These free electrons travel along the body and when the skin contacts a metal object, the electrons ground out, causing a shock.
When you walk across a carpet, you can accumulate an excess of electrons on your body, creating a charge imbalance. When you touch a metal doorknob, the excess charge flows from your body to the metal doorknob, resulting in a sudden discharge of static electricity, which is felt as a shock.
A cloth dryer generates static electricity because different fabrics rubbing against each other create friction. This friction transfers electrons between the clothing, causing them to become positively or negatively charged. When the clothes rub against the dryer drum, this can lead to a buildup of static electricity.
Galvani's theory to explain his first investigation was that animal electricity was responsible for the contraction of muscles, rather than an external source of electricity. He believed that the electricity originated within the muscle tissue itself, leading to the concept of "animal electricity."
Rubbing the balloon against your dry hair transfers electrons from your hair to the balloon, giving the balloon a negative charge. When you then place the negatively charged balloon against the wall, it creates an attraction with the positive charges in the wall, causing the balloon to stick due to static electricity.
In a semiconductor material, free electrons and holes can conduct electricity. Free electrons are negatively charged particles that move in response to an electric field, creating an electron flow or current. Holes are spaces within the crystal lattice where an electron is missing, and they behave as positively charged carriers that can also move in response to an electric field, contributing to the overall current flow. Both free electrons and holes play a role in conducting electricity in semiconductors.
When you walk across a carpet, you can accumulate an excess of electrons on your body, creating a charge imbalance. When you touch a metal doorknob, the excess charge flows from your body to the metal doorknob, resulting in a sudden discharge of static electricity, which is felt as a shock.
A cloth dryer generates static electricity because different fabrics rubbing against each other create friction. This friction transfers electrons between the clothing, causing them to become positively or negatively charged. When the clothes rub against the dryer drum, this can lead to a buildup of static electricity.
Corruption misery and sin :) <3
Not on government but on utility companys.
Galvani's theory to explain his first investigation was that animal electricity was responsible for the contraction of muscles, rather than an external source of electricity. He believed that the electricity originated within the muscle tissue itself, leading to the concept of "animal electricity."
http://www.explainthatstuff.com/electricity.html That's a good website explaining electricity or google: electricity explained to little kids
explain the need for circuit protection
if this is to do with electricity then this may help. Basically, you have to explain how the circuit works. So you may want to explain the function of the battery and how it produces electricla energy. Then you say how the current travels through the wire. Just explain what voltage is as well. It is quite easy as that.
As the cathode rays carry a charge of negative electricity, are deflected by an electrostatic force as if they were negatively electrified, and are acted on by a magnetic force in just the way in which this force would act on a negatively electrified body moving along the path of these rays, I can see no escape from the conclusion that they are charges of negative electricity carried by particles of matter. -J. J. Thomson
Rubbing the balloon against your dry hair transfers electrons from your hair to the balloon, giving the balloon a negative charge. When you then place the negatively charged balloon against the wall, it creates an attraction with the positive charges in the wall, causing the balloon to stick due to static electricity.
In a semiconductor material, free electrons and holes can conduct electricity. Free electrons are negatively charged particles that move in response to an electric field, creating an electron flow or current. Holes are spaces within the crystal lattice where an electron is missing, and they behave as positively charged carriers that can also move in response to an electric field, contributing to the overall current flow. Both free electrons and holes play a role in conducting electricity in semiconductors.
The advantage of positioning a doorknob farthest from the hinges is that it enhances leverage, making it easier to open and close the door. This design allows for greater torque when pulling or pushing the door, requiring less force from the user. Additionally, it helps to maintain a smoother operation and can contribute to the door's overall stability and functionality. Overall, this placement improves convenience and efficiency in door use.