Electrons are always responsible for electric discharges and one example is lightning.
when one electron gets charged in an atom it starts moving rapidly and bursts out of its atom and jumps from one electron to another electrically charging each of the electrons and forms a chain and creates the ligtning which we see in a nanosecond.
Electrons are always responsible for electric discharges and one example is lightning. when one electron gets charged in an atom it starts moving rapidly and bursts out of its atom and jumps from one electron to another electrically charging each of the electrons and forms a chain and creates the ligtning which we see in a nanosecond.
An example of the electrostatic force acting in an atom is the attraction between the positively charged nucleus and the negatively charged electrons. This force keeps the electrons orbiting around the nucleus in stable energy levels, maintaining the atom's overall neutral charge.
Yes, an example of an electrostatic force acting in an atom is a proton attracting an electron. This attraction occurs due to the opposite charges of the proton (positive) and the electron (negative), leading to the electrostatic force of attraction between them.
Well, there are essentially two forces in an atom. They are the strong force (which holds a nucleus together) and the electric force, which holds electrons in an atom. In short, this works because positive and negative charges attract each other. Because the nucleus (protons and neutrons) is positive, and the electrons surrounding it are negative, they are attracted. The result is that the electrons don't fly off in all directions! Because this force describes one specific phenomenon, I can't really give an example. However, if the question meant "what's an example of electrons having an impact in atoms", then I would go with lightning. This happens when negatively charged atoms (electrons!) build up at the bottom of a cloud, and gain enough energy to 'fly' across the ionized air to the ground, which is positively charged due to the repulsion of electrons.
No, the bond between carbon and hydrogen in methane (CH₄) is a covalent bond, not a hydrogen bond. A hydrogen bond is a type of intermolecular force that occurs between a hydrogen atom bonded to a highly electronegative atom (like oxygen or nitrogen) and a neighboring electronegative atom.
The net force between two protons in a nucleus is attractive. The strong nuclear force simply over-whelms the electric force.
The type of intermolecular force present in KOH is hydrogen bonding. Hydrogen bonding occurs between the hydrogen atom of one molecule and the oxygen atom of another molecule when hydrogen is bonded to a highly electronegative atom such as oxygen.
The gravitational force is not an example of an electrostatic force that exists within the atom. The electrostatic forces within an atom include the forces between protons and electrons, and the forces holding the nucleus together.
The force present in an ionic bond is electrostatic force of attraction between positively and negatively charged ions. It occurs when one atom donates an electron to another atom, resulting in the formation of oppositely charged ions that are held together by this electrostatic force.
Gravitational force exists between masses. Gravitational force is only of attractive. No repulsive gravitational force has been found so far. But in electrostatics and magnetism, the force between electric charges and magnetic poles respectively are of both repulsive and attractive. Nuclear force between the nucleons within the nucleus of the atom is also attractive in nature.
The force that attracts electrons from one atom to another is called electrostatic attraction. This force occurs when there is a difference in the electrical charges between atoms, resulting in the formation of ions. In this process, electrons are either gained or lost by an atom, creating a positively or negatively charged ion.
An example of an atom that only exists in its molecular form would be oxygen. It is most commonly found as an O2 molecule.