If a charged rod is brought close to a gas filled balloon, one will notice a change in shape in the balloon. In short, the charge of the rod works on the molecules of the gas within the balloon and cause the balloon to elongate.Ê
they will repel
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.
The can will be attracted towards the balloon due to static electricity. The rubbing of the balloon with the woollen cloth creates a charge imbalance, causing the can to be attracted to the charged balloon. This is due to the principle of static electricity where opposite charges attract each other.
The increase in water pressure as you dive deeper compresses the air inside the balloon, causing it to shrink in size. The higher pressure squishes the air molecules closer together, reducing the volume the balloon occupies.
Yes, the strength of the electric field of a charged particle does increase as you move closer to the charged particle. This is because electric fields follow an inverse square law, meaning that the field strength is inversely proportional to the square of the distance from the charged particle. As you move closer, the distance decreases, leading to an increase in the electric field strength.
they will repel
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.
The can will be attracted towards the balloon due to static electricity. The rubbing of the balloon with the woollen cloth creates a charge imbalance, causing the can to be attracted to the charged balloon. This is due to the principle of static electricity where opposite charges attract each other.
The increase in water pressure as you dive deeper compresses the air inside the balloon, causing it to shrink in size. The higher pressure squishes the air molecules closer together, reducing the volume the balloon occupies.
Yes, the strength of the electric field of a charged particle does increase as you move closer to the charged particle. This is because electric fields follow an inverse square law, meaning that the field strength is inversely proportional to the square of the distance from the charged particle. As you move closer, the distance decreases, leading to an increase in the electric field strength.
The balloon would shrink in the cold weather because the air molecules inside the balloon lose kinetic energy and move closer together, resulting in a decrease in volume.
If the air inside a balloon is heated, the volume will increase because the molecules move faster and spread out, causing the air to expand. Conversely, if the air inside a balloon is cooled, the volume will decrease as the molecules slow down and come closer together.
As an electron is brought closer to a negatively charged plate, its potential energy increases. Since like charges repel, the electron has to be "brought" near the negatively charged plate ... it'll never go there on its own. You have to push it there, meaning you have to do work on it, and that work adds to the potential energy of the electron. As soon as you let it go, it'll whizz AWAY from the negatively charged plate, and that energy you put into it will turn into the kinetic energy of a hasty retreat.
The positively charged object will be attracted towards the negatively charged object due to the electrostatic force between opposite charges. The suspended object may move closer to or even touch the negatively charged object, depending on the strength of the charges and the distance between them.
When a charged rod is brought near an electroscope with the opposite charge, the positive and negative charges in the electroscope are attracted to the rod. This causes the leaves to come closer together as the negative charges in the leaves are attracted to the positively charged rod. This movement indicates that the electroscope has detected a charge.
They will be pushed closer together.
The negatively charged object will attract the positive charges in the neutral object, causing them to move away, leaving the side closer to the negatively charged object slightly positive and the other side slightly negative. This uneven distribution of charges is known as polarization.