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Energy also has mass according to the principle of mass-energy equivalence.
This leads to the mass-energy equivalence formula E = mc2.
Mass-energy equivalence states that any object has a certain energy, even when it is stationary.
E = mc2 is the equation for mass-energy equivalence.
Thereby mass is converted to energy in correspondence to the mass-energy equivalence.
E=mc, also called the mass-energy equivalence, is one of the things that Einstein is most famous for.
By mass-energy equivalence, the electron volt is also a unit of mass.
The mass-energy equivalence in special relativity refers to the inertial mass.
In 1905, Albert Einstein formulated the idea of mass-energy equivalence.
Mass-energy equivalence is a consequence of special relativity.
This annus mirabilis paper on mass-energy equivalence was received September 27.
E, the symbol for energy in equations concerning mass-energy equivalence
Mass in special relativity incorporates the general understandings from the concept of mass-energy equivalence.
This is the mass-energy equivalence, represented by .
Mass is also equivalent to a certain amount of energy, and likewise always appears associated with it, as described in mass-energy equivalence.
It also followed that mass and energy were interchangeable quantities according to the equation Mass-energy equivalence.
Meanings of the strict mass-energy equivalence formula, E = mc
This lost mass is released as electromagnetic energy, according to the mass-energy equivalence relationship E = mc.
It is worth noting that the mass-energy equivalence equation can be solved for this form: .
E=MC, part of the mass-energy equivalence without an exponent
However, in absorbing photons, the dust acquires added mass via mass-energy equivalence.
Using Einstein's mass-energy equivalence formula E = mc2, the amount of energy released can be determined.
These are direct examples of (mass-energy equivalence).
With the advent of special relativity, these two conservation principles were united through the concept of mass-energy equivalence.
See background for mass-energy equivalence.