Kea
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The forum discussion centers on the fundamental nature of computation in relation to quantum gravity theories, particularly emphasizing the significance of M-theory and noncommutative geometry. Participants argue that all theories of quantum gravity, including string theory, loop quantum gravity, and causal set theory (CDT), are subsets of computational frameworks. The conversation highlights the need for a deeper understanding of the underlying algorithms and structures that govern these theories, suggesting that M-theory may ultimately provide a unified framework for theoretical physics. The discussion concludes with a call for experimental validation to support these theoretical approaches.
PREREQUISITESThe discussion is beneficial for theoretical physicists, researchers in quantum gravity, and anyone interested in the intersection of computation and fundamental physics theories.
String theory/ M-theory have branes and strings as submanifolds imbedded in a background spacetime which is not explained. What obviously needs to be done is to explain where spacetime came from to begin with and how particles arise from that. CDT seems to be the most direct approach. I think that strings and LQG will turn out to be some holomorphic properties of spacetime distortions.Curious6 said:I don't see why the majority of people on this sub-forum are so anti-stringy. M-Theory has many more researchers than any other approach to quantum gravity, and it is probably for a reason. No doubt it is going through a hard moment now with the string landscape, but that doesn't mean it is wrong, maybe just that it has been heading temporarily down the wrong path. Probably when a nonperturbative formulation of M-theory is found it will provide the most unified and fundamental framework of theoretical physics.
The most promising approach to QG at present is