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anvesh111
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can any 1 tell mme the derivation of Einstein's field equations? please
jtbell said:It seems that we're stumbling over the meanings of English words here. "Derivation" in physics and math means a strict logical/mathematical sequence of steps starting from some axioms (first principles). In general relativity, the Einstein field equations are axioms, so there's no real "derivation" of them.
jtbell said:It seems that you're asking about what inspired or led Einstein to postulate these specific field equations in the first place. I expect you'd have to look for a source that focuses on the historical and philosophical development of general relativity.
George Jones said:anvesh111, are you ooking for modern motivations for Einstein's equation? For Einstein's route, including dead ends, to Einstein's equation?
George Jones said:How is [itex]F = ma[/itex] derived?
Nabeshin said:One could say the field equations are derived from the Einstein-Hilbert action, but this seems a lot more like shifting the topic of discussion to "How is the Einstein-Hilbert action derived?" than anything else.
Mentz114 said:I can't believe that no one has mentioned the Einstein-Hilbert action.
Einstein's field equations are a set of ten equations that form the cornerstone of Einstein's theory of general relativity. They describe the relationship between the curvature of space-time and the distribution of matter and energy in the universe.
Einstein's field equations revolutionized our understanding of gravity, providing a more accurate and comprehensive description of the universe. They have been used to make predictions about the behavior of black holes, the expansion of the universe, and the existence of gravitational waves.
Einstein's field equations were derived using a combination of mathematical equations and physical principles. He built upon the work of previous scientists, including Isaac Newton and James Clerk Maxwell, and incorporated his own insights into the nature of space and time.
Yes, Einstein's field equations are still considered to be the most accurate description of gravity and have been extensively tested and confirmed through various experiments and observations. They continue to serve as the foundation for our understanding of the universe.
While the equations themselves may be quite complex, the basic concepts behind them can be understood by anyone with a basic understanding of physics and mathematics. There are also many resources available, such as books and online tutorials, that can help break down the equations and make them more accessible to the general public.