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Increase in the mass of body as predicted by theory of relativity is real or apparent?
It is quite real; since the kinetic energy increases, the mass also increases. In fact, for people who work with particle accelerators, this is something they have to take into account in their daily work. But please note that:
1. This is relative to the observer. Someone who travels at the same velocity of the moving object will not measure an increase in mass; for him, the object is not moving.
2. In "normal" everyday life, at slow speeds, any changes in mass, length, times, are too insignificant to worry about. Even at 1/10 of the speed of light, the change is less than one percent.
It is quite real; since the kinetic energy increases, the mass also increases. In fact, for people who work with particle accelerators, this is something they have to take into account in their daily work. But please note that:
1. This is relative to the observer. Someone who travels at the same velocity of the moving object will not measure an increase in mass; for him, the object is not moving.
2. In "normal" everyday life, at slow speeds, any changes in mass, length, times, are too insignificant to worry about. Even at 1/10 of the speed of light, the change is less than one percent.
It is quite real; since the kinetic energy increases, the mass also increases. In fact, for people who work with particle accelerators, this is something they have to take into account in their daily work. But please note that:
1. This is relative to the observer. Someone who travels at the same velocity of the moving object will not measure an increase in mass; for him, the object is not moving.
2. In "normal" everyday life, at slow speeds, any changes in mass, length, times, are too insignificant to worry about. Even at 1/10 of the speed of light, the change is less than one percent.
It is quite real; since the kinetic energy increases, the mass also increases. In fact, for people who work with particle accelerators, this is something they have to take into account in their daily work. But please note that:
1. This is relative to the observer. Someone who travels at the same velocity of the moving object will not measure an increase in mass; for him, the object is not moving.
2. In "normal" everyday life, at slow speeds, any changes in mass, length, times, are too insignificant to worry about. Even at 1/10 of the speed of light, the change is less than one percent.
What else can I help you with?
When was e equals mc2 invented?
That's part of the Special Theory of Relativity - published 1905.That's part of the Special Theory of Relativity - published 1905.That's part of the Special Theory of Relativity - published 1905.That's part of the Special Theory of Relativity - published 1905.
What are the formulas given by Albert Einstein to math?
The most famous one are his Theory of General Relativity, and Theory of Special Relativity.
Which theory is expressed in the equation in E equals mc squared?
Relativity.
What is the theory of relativity of pi?
Pi is only constant in Euclidean Geometry, it is not the same in other Geometries. In the non-Euclidean geometry that Relativity theory uses the difference between PiE and PiNE is extremely small, approaching zero.
What is the molecular shape of ClO3F as predicted by the VSEPR theory?
ClO3F would be tetrahedral.
How does Eisenstein's theory of relativity support the Big Bang theory?
The Theory of Relativity was created by Einstein, not by Eisenstein. Comment: The most obvious thing is that Einstein's equations predicted that the Universe was not "static". So a "Big Bang", expanding Universe fits the theory.
Who wrote the Theory of Relativity?
Galileo Galile wrote "the Theory of Relativity", and Einstein wrote the General theory of relativity and the special theory of relativity.
When was the theory of relativity created?
The theory of relativity was introduced by Albert Einstein in 1905 with his special theory of relativity, and later expanded with the general theory of relativity in 1915.
When did Albert Einstein propose the theory of relativity?
Albert Einstein proposed the theory of relativity in 1905 with his special theory of relativity and in 1915 with his general theory of relativity.
When was A Theory of Relativity created?
A Theory of Relativity was created in 2001.
When did the law of relativity begin?
The theory of relativity, proposed by Albert Einstein, was first introduced in 1905. This theory consists of two parts: the special theory of relativity and the general theory of relativity. The special theory of relativity deals with the relationship between space and time, while the general theory of relativity extends this to include gravity.
When was the theory of relativity first propoesed?
The theory of relativity was first proposed by Albert Einstein in 1905, with his publication of the special theory of relativity. Later, in 1915, Einstein further developed his theory with the publication of the general theory of relativity.
Who's theory was relativity?
The Theory of Relativity was developed by Albert Einstein.
How did british scientist test Einstein's theory of relativity?
The British scientist Sir Arthur Eddington tested Einstein's theory of relativity during a solar eclipse in 1919 by observing the deflection of starlight passing close to the sun. His observations supported Einstein's predictions, confirming the bending of light around massive objects as predicted by general relativity.
When was The Einstein Theory of Relativity created?
The Einstein Theory of Relativity was developed by Albert Einstein in 1905. This theory introduced the concepts of special relativity and general relativity, revolutionizing our understanding of space, time, and gravity.
Who is the develpoer of the theory of relativity?
Albert Einstein is the developer of the theory of relativity. His groundbreaking work consisted of two theories: the special theory of relativity, published in 1905, and the general theory of relativity, published in 1915.
Why do the predicted consequences of the special theory of relativity seem so strange to most of us?
Because they are obvious only at speeds that we never experience in our daily lives.
