Here's a guess. When charges are exchanged, they are exchanged at a certain "rate" for the given exchange (whatever it is). In charge exchange in some reactions, as the charges are exchanged, the rate of change goes down because there are less charges than there were to cause exchanges to occur. There is less "exhange pressure" or ionic pressure or, if you like, a lower or reduced ionic gradient to force the exchange. The rate of exchange is declining, and to determine how many exchanges have taken place, we need to integrate to solve the problem. Presto! There is an exchange integral associated with a given charge exchange in a reaction. This will allow us to find out how many charges have been exchanged over a given period. The total number of charges must be written using some kind of units. We could use indvidual charges, but they are so tiny and there are so many of them in just about any "macro reaction" that we'd be using a huge number. We could, instead, use the standard SI unit of charge measurement, the coulomb. And that's about 6.2 x 1018 charges.
The Coulomb. If 1 Coulomb is transmitted per second this is 1 Ampere
The coulomb is the SI unit of electric charge because it is defined as the charge passing a point in a conductor in one second when a current of one ampere is flowing. This definition is based on the relationship between charge and current in electric circuits.
If Coulomb's force is gone , the material structure of the Cosmos would be gone. Coulomb's force hold atoms together and molecules together and matter together.
The coulomb. It is the charge transported by 1 ampere of current in 1 second.
1. If you think to volume: litre (L) 2. In electrical engineering: coulomb or ampere-hour 3. If you mean capacitance (electronics), the unit is a Farad.
Kurt Alder has written: 'Electromagnetic excitation' -- subject(s): Electromagnetic interactions, Ion bombardment, Coulomb excitation 'Tables of the classical orbital integrals in Coulomb excitation' -- subject(s): Definite integrals, Coulomb functions 'Matrix elements between states in the Coulomb field' -- subject(s): Matrix mechanics, Coulomb functions 'On the theory of multiple Coulomb excitation with heavy ions' -- subject(s): Ions, Hypergeometric functions, Matrix mechanics, Coulomb functions
Distance.
Flux integrals, surface integrals, and line integrals!
A coulomb is the SI unit of an electrical charge so a hundredth of a coulomb would be 1% of that unit.
I assume you mean ex ? If so, by definition: ∫ex dx = ex + C Most calculus textbooks have a table of integrals which will list the integrals of other common forms of exponential & logarithmic functions.
A. M. Bruckner has written: 'Differentiation of integrals' -- subject(s): Integrals
In calculus, "to integrate" means to find the indefinite integrals of a particular function with respect to a certain variable using an operation called "integration". Synonyms for indefinite integrals are "primitives" and "antiderivatives". To integrate a function is the opposite of differentiating a function.
In calculus, "to integrate" means to find the indefinite integrals of a particular function with respect to a certain variable using an operation called "integration". Synonyms for indefinite integrals are "primitives" and "antiderivatives". To integrate a function is the opposite of differentiating a function.
No
The exchange particle for electromagnetic force is the photon. It carries the force. This force is mathematically described by Coulomb's Law.
Gottfried Wilhelm Leibniz is credited with defining the standard notation for integrals.
Yes, but only in some cases and they are special types of integrals: Lebesgue integrals.