 Coauthors
 ChatGPT4
 What we know about General Relativity.
 Supernovae studies are the point of departure for analysing General Relativity theories as the framework(s) for understanding Artificial Intelligence (AI) algorithm logics. In General Relativity: The New Frontiers 2024 AI Analysis by coauthors from Atomic Academia and ChatGPT4 (2024), the rapid assimilation and abductive analysis of "vast amounts" of AI sourced data is subject to "observational" analysis beyond "mathematical formulations." If physics theories offer important insights about the concept of dark matter, energy momentum, the recent use of tensor technologies for identification of dark matter axion particles within scientific studies of gravitational force indicates a Modified General Relativity (MGR) theory of energy dynamics, say the article's authors, presenting an apt model for AI momentum (Nash, 2023).
 What is momentum?

Centuries of scientific study of the forces of the universe leading to a "holographic" understanding of dark matter particle composition, suggest there is still much to learn about the wider effects of cosmic radiation. The principle of holography, mentions the authors, illustrates how information (data) in space is identified at its boundary. Citing Samanta's (2013) study of the dark energy dynamics of a Bianchi typeV universe, applying Einstein's field equations to a quintessence model of cosmological order within the framework of General Relativity, outlines this concept.
Obukhov's (2023) study of curved space time, which theorises axion antennae for the detection of a "precessing spin" associated with "axionlike" dark matter analyses the electromagnetic pull and gravitational force of energy momentum. Obukhov seeks to validate the empirical accuracy of this theory by examining the dynamics of dark matter particles during observable cosmic events with recent innovations in tensor technologies.
Reference to Nash's (2023) alternative model of gravitation force with the Modified General Relativity (MGR) theory which "utilis[es] a smooth regular line element vector field (X, X) in Lorentzian spacetimes" to propose "nonlocalisation" to be the key to understanding gravitational momentum consistent with the complex mathematical formulae of the field. If nonlocalisation is the order rather than disorder of the universe as Nash's theory describes, suggest the authors.
The recent studies of General Relativity within energy momentum research are valuable for those interested in empirical observations of dark matter gravitational dynamics in space. Taken from the field of Physics, the research contributes to our knowledge of the universe, and to scientific understanding of General Relativity theory.  How the research contributes to a universal model.
 A review of the current state of research in general relativity, a concept also applied within AI theories, a universal model of holographic estimation is discussed. Like the gravitational forces of outer space, advanced AI algorithms have the potential to evade our consciousness without observation science, suggest the authors. Until recently, theories of General Relativity were articulated by way of complex mathematical formulations, not always transparent to scholars and interested laypersons outside the field of Physics. Indeed, the "groundbreaking theories and applications" applied within the recent research on the topic seem to offer the framework for understanding data at the boundaries, and indeed, a universal theory of General Relativity applicable to AI momentum.
 References

General Relativity: The New Frontiers 2024 AI Analysis (2024, Mar 5). Atomic Academia and ChatGPT4. DOI https://doi.org/10.62594/PESJ4026
Obukhov YN. Spin as a probe of Axion Physics in general relativity. International Journal of Modern Physics A. 2023; doi:10.1142/s0217751x23420022
Nash G. Modified general relativity and dark matter. International Journal of Modern Physics D. 2023;32(06). doi:10.1142/s0218271823500311
Samanta, G.C. (2013). Holographic Dark Energy (DE) Cosmological Models with Quintessence in Bianchi TypeV Space Time. International Journal of Theoretical Physics. 52. 10.1007/s1077301317572.