Einstein's famous equation E = mc2 shows that energy (E) and matter (m) can be converted into each other. This means that a certain amount of matter (atoms etc) can be completely converted into energy. This happens all of the time in the interior of stars which produce their energy (heat and light) by nuclear fusion, using up the matter of which they are made. Mass to energy conversion also happens in atomic and hydrogen bombs and in nuclear power stations. Similarly, pure energy can be converted into matter. In theory this happened most significantly in a big bang at the origin of the universe. It also happens in "atom smashers" where subatomic particles are accelerated to very high speeds and allowed to collide with each other. The high speed of the collision produces a large amount of energy, some of which can be converted into new particles of matter. The large size of the speed of light, and the fact that it is squared, means that a tiny amount of matter can release very large amounts of energy. See http://www.pbs.org/wgbh/nova/einstein/legacy.html http://www.edge.org/3rd_culture/greene05/greene05_index.html E=mc2 says that energy and mass are the same basic stuff, and that mass "m" can be converted to energy "E" and you wind up with a huge amount of it. This is what makes stars light. "c" is " the velocity of light in a vacuum" which is approximately 300,000 kilometres per second, making c2, a gigantic number, (approx.90,000,000,000). For example if energy is in Joules, and mass in kilograms, then the factor c2 is 1016(m2/s2). Consideration of the essential unity of matter and energy, of space and time, and of the forces of gravitation and acceleration, give rise to expectations of their properties existing in equilibrium, at both quantum and relativistic stages. As the quantum theory applies to the very small, so the relativity theory applies to the very large, and both, according to Einstein's Theory of Special Relativity,published in 1905, give substance to the idea also touched on by Newton, that no particular object in the universe is suitable as an absolute frame of reference which is at rest with respect to space.Thus it is that any object, such as a chosen position in the solar system, can be used be used to determine the motion of any other object; as all motion is relative. Without reference to the place where an event happens it is not possible to specify uniquely the time when an event happens.When attention is moved from terrestrial to astronomical phenomena, any assumption that the observed motion of an object at a given velocity is unaffected by the velocity of light is dispelled by what is known as the beta factor. (If a space ship was travelling faster than light its true position would be invisible.) In 1915 Einstein developed the Theory of General Relativity in which he considered objects accelerated with respect to one another, using the Principle of Equivalenceto resolve any apparent conflict between laws of relativity and laws of gravity. Given that a quantifiable mass multiplied by squared light velocity is in equilibrium with the energy available from that quantity of mass, it holds that forces produced by gravity (giving rise to the weight of mass) are in every way equivalent to forces produced by acceleration (giving rise to the change of velocity of mass). Newton's hypothesis that every object attracts every other object in direct proportion to its mass, was replaced by the hypothesis that the space-time continuum is curved in the neighbourhood of massive objects, therefore producing fields where gravity and acceleration are equivalent. With matter and energy, space and time, gravitation and acceleration, it really is a question of balance!
Scientists applied Albert Einstein's equation E=mc^2 by using it to understand the relationship between energy and mass. This equation shows that mass can be converted into energy and vice versa, which has led to advancements in nuclear physics, such as in the development of nuclear weapons and nuclear power.
Einstein's famous equation, E=mc², is a fundamental concept in physics. It states that energy (E) is equal to mass (m) multiplied by the speed of light squared (c²). This equation shows the equivalence of mass and energy, indicating that mass can be converted into energy and vice versa. It is the foundation of the theory of relativity and has led to advancements in nuclear energy and understanding the structure of the universe.
Albert Einstein announced the equation E=mc^2 in 1905 as part of his special theory of relativity.
The equation "FG = mc^2" is not a standard physics equation. "E=mc^2" (energy equals mass times the speed of light squared) is a famous equation from Einstein's theory of relativity that relates energy, mass, and the speed of light. If "FG" refers to a force, then the equation "FG = mc^2" doesn't have a standard interpretation in physics.
The "m" in Einstein's equation E=mc^2 represents mass. It signifies that energy (E) is equivalent to mass (m) times the speed of light (c) squared.
no
speed of light
No, It's a a quadratic equation because you have X squared.
It is a quadratic equation in X.
no, because xx=x squared, and x squared is not linear
Einsteins theory of relativity can answer this. The equation is E=mC^2. This reads e equals m c squared. E is energy, m is mass and every object that has mass has a gravitational pull.
It is the Cartesian equation of an ellipse.
Yes it is. The thing that makes it a quadratic equation is that "x squared" in there.
Relativity.
It is the equation of a parabola.
It is a quadratic equation in the one variable.
The greatness of 4 squared and 3 squared is expressed by the equation: 16 - 9 which equals 7.3 squared equals 3 x 3 = 94 squared equals 4 x 4 = 1616 - 9 = 7