Artificial Intelligence and Foundations of Mathematics

Authors

  • P.S. Pankov Institute of Mathematics of the National Academy of Sciences of the Kyrgyz Republic under the President of the Kyrgyz Republic Author
  • S.B. Tagaeva Institute of Mathematics of the National Academy of Sciences of the Kyrgyz Republic under the President of the Kyrgyz Republic Author
  • G.M. Kenenbaeva Jusup Balasagyn Kyrgyz National University, Bishkek, Kyrgyzstan Author

DOI:

https://doi.org/10.58649/yszn4141

Keywords:

artificial intelligence, real mathematics, continuity, naturalness, connectivity, integrity

Abstract

The authors consider the problem: what is the essence of real mathematics? This is not axiomatization, because the axiomatization of any new branch of mathematics is performed later, since its essence has appeared. Axiomatization is carried out in such a way that already "existing" notions and statements become theorems or are declared as primary notions and axioms. The authors propose the following framework definition: the concepts of the foundations of real mathematics are abstract objects being self-evident to a thinking being, including artificial intelligence. To identify such objects, the authors suggest using the Socratic method – that is, posing questions as 2D-pictures to a thinking being, but without the use of any conventional signs. Such objects are formed: As quotient objects from large quantities of real objects based on an "evident" equivalence relation (closeness, similarity); by means of the operation of idealization (passing to the limit). The authors conducted experiments with children, with people whose language is unknown, and with artificial intelligence. The existence of a notion of "continuity" without the notion of a real number is proven. 

References

P.S. Pankov, S.B. Tagaeva, G.M. Kenenbaeva, Applying Artificial Intelligence with its Senses in Mathematics, Journal of Modern Mathematical Studies, 1(1) (2025), 21–26.

A. Borubaev, P. Pankov, Computer presentation of kinematic topological spaces, Qingdao: Qingdao University, (2024).

G. Kenenbaeva, Framework Definitions of Effects and Phenomena and Examples in Differential and Difference Equations, Journal of Mathematics and System Science, 4 (2014), 768–776.

P.S. Pankov, S.B. Tagaeva, Enlarged list of effects in mathematics and its applications, Herald of Institute of Mathematics of NAS of KR, 1 (2025), 18–23.

S.B. Tagaeva, P.S. Pankov, Effects-complexes and phenomena-complexes in applied mathematics (in Russian), Vestnik KRSU, 25(12) (2025), 19–25.

P.J. Cohen, The independence of the continuum hypothesis, Proceedings of the National Academy of Sciences of the United States of America, 50(6) (1963), 1143–1148.

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Published

2026-03-31

Data Availability Statement

No datasets were generated or analysed during the current study.