I assuming you are meaning the potential difference of an electrical charge. Matter is made up of atoms, which contain protons and electrons. Protons have a positive charge, electrons have a negative charge. The 'separation' is that one side has a different ratio of protons/electron charge to that of the other side. The difference is measured in volts, and when connected together using conductive material will cause the radios to become more equal, this causes a current, which is measured in amps.
Charles Augustin de Coulomb (1736 - 1806) did, in 1785 .
A Bjerrum length is the separation at which the electrostatic interaction between two elementary charges is comparable in magnitude to the thermal energy scale.
There is a direct relationship between the voltage gradient of an electric field and the separation of the charges. Higher voltage gradients will separate charges farther.
The product of the two charges and the distance between the charges.
That's the force of repulsion between two positive charges; or between two negative charges.
Charles Augustin de Coulomb (1736 - 1806) did, in 1785 .
That's going to depend on the magnitude of the charges. You've said that they're equal, and that's appreciated although unnecessary. But we still need a number.
A Bjerrum length is the separation at which the electrostatic interaction between two elementary charges is comparable in magnitude to the thermal energy scale.
The charged body will induce a separation of charges in the uncharged body.The charged body will induce a separation of charges in the uncharged body.The charged body will induce a separation of charges in the uncharged body.The charged body will induce a separation of charges in the uncharged body.
There is a direct relationship between the voltage gradient of an electric field and the separation of the charges. Higher voltage gradients will separate charges farther.
The Bjerrum length is the separation distance at which the potential electric energy of two elementary charges is equal to kB*T. The electric potential energy of two elementary charges is inversely proportional to their separation distance. Since kB*T is trivially proportional to temperature T, at a higher temperature you need to place two elementary charges closer to each other to get the electric potential energy equal to kB*T. As the separation distance between those charges is defined as the Bjerrum length, the Bjerrum length is inversely proportional to temperature.
The charged body will induce a separation of charges in the uncharged body.The charged body will induce a separation of charges in the uncharged body.The charged body will induce a separation of charges in the uncharged body.The charged body will induce a separation of charges in the uncharged body.
The product of the two charges and the distance between the charges.
Yes if the quantities of the charges are unchanged.
That's the force of repulsion between two positive charges; or between two negative charges.
Coulomb's law states that the force between two charged particles is directly proportional to the product of their charges and inversely proportional to the square of the distance between them. Mathematically, it is represented as F = k * (q1 * q2) / r^2, where F is the force, k is the proportionality constant, q1 and q2 are the charges, and r is the distance between the charges.
There is no potential difference between identical charges