Protons all have positive charge, so they repel each other. It takes work to push two protons closer together, so you're putting energy into them (potential energy increases). If you let go, the potential energy is released when the protons fly apart; it becomes kinetic energy.
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.
An electron will experience a higher electric potential when it moves closer to a positively charged object.
The potential energy of the protons decreases as they are brought together due to the attractive electromagnetic force between them. As they move closer, the potential energy decreases and it is converted into kinetic energy and other forms of energy, such as thermal energy.
When a compass is brought closer to a magnet, the compass needle will align itself with the magnetic field of the magnet. This alignment occurs because the magnetic field of the compass interacts with the magnetic field of the magnet, causing the needle to point towards the magnet.
When two balloons that are wet are brought closer together, they may stick together temporarily due to surface tension and water molecules acting as a weak adhesive. As the water evaporates, the balloons will separate.
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.
An electron will experience a higher electric potential when it moves closer to a positively charged object.
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The potential energy of the protons decreases as they are brought together due to the attractive electromagnetic force between them. As they move closer, the potential energy decreases and it is converted into kinetic energy and other forms of energy, such as thermal energy.
As the orbit of the electron increases, the electron's energy also increases. Electrons in higher energy orbits are farther from the nucleus and have more potential energy. Conversely, electrons in lower energy orbits are closer to the nucleus and have less energy.
When a compass is brought closer to a magnet, the compass needle will align itself with the magnetic field of the magnet. This alignment occurs because the magnetic field of the compass interacts with the magnetic field of the magnet, causing the needle to point towards the magnet.
An electron loses potential energy when it moves to a lower energy level, such as when it transitions between orbitals in an atom or when it moves closer to a positively charged nucleus. This release of energy can manifest as the emission of a photon or the transfer of energy to another particle.
No, energy is released when an electron moves to a closer shell. This process is known as an electron transition or recombination, and it typically results in the emission of light or other forms of electromagnetic radiation. The energy difference between the two shells is released in the form of a photon.
When two balloons that are wet are brought closer together, they may stick together temporarily due to surface tension and water molecules acting as a weak adhesive. As the water evaporates, the balloons will separate.
The respective electron has to lose energy.
Yes, that's correct. The closer an electron is to the nucleus of an atom, the stronger the attractive force between the nucleus and the electron. This attraction is due to the electrostatic force between the positively charged nucleus and the negatively charged electron.
Dorsiflexion happens when the toes are brought closer to the shin and decreases the ankle between the leg and the dorsum of the foot. Walking on your heels causes dorsiflexion of your ankle.