Boosting human Insight by Cooperative AI: Foundations of Shannon-Neumann Logic

Edouard Siregar

doi:10.34257/GJSFRFVOL22IS4PG1

Authors

Edouard Siregar

artificial general intelligence, complexity, cooperative learning games, frame drift problem

Abstract

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Boosting human Insight by Cooperative AI: Foundations of Shannon-Neumann Logic. (2022). Global Journal of Science Frontier Research, 22(F4), 1-20. https://doi.org/10.34257/GJSFRFVOL22IS4PG1

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References

Leon Sterling, L, Ehud Shapiro, E (1986) The Art of Prolog: Advanced Programming Techniques.

M Mohri (2018) Foundations of Machine Learning.

Kurt Hornik, Maxwell Stinchcombe, Halbert White (1989) Multilayer feedforward networks are universal approximators. 2(5), 359-366.

L Guilhoto (2018) An Overview of Artificial Neural Networks for Mathematicians.

Ian Humphreys, Jimin Pei, Minkyung Baek, Aditya Krishnakumar, Ivan Anishchenko, Sergey Ovchinnikov, Jing Zhang, Travis Ness, Sudeep Banjade, Saket Bagde, Viktoriya Stancheva, Xiao-Han Li, Kaixian Liu, Zhi Zheng, Daniel Barrero, Upasana Roy, Jochen Kuper, Israel Fernández, Barnabas Szakal, Dana Branzei, Josep Rizo, Caroline Kisker, Eric Greene, Sue Biggins, Scott Keeney, Elizabeth Miller, J Fromme, Tamara Hendrickson, Qian Cong, David Baker (2021) Computed structures of core eukaryotic protein complexes. 374(6573).

C Shannon, W Weaver (1949) The mathematical theory of communications.

J Von Neumann, O Morgenstern (1944) Theory of Games and Economic Behavior.

Edouard Siregar (2021) Learning human insight by cooperative AI: Shannon-Neumann measure. 2(2), 025001.

J Nash (1953) Two-Person Cooperative Games. 21(1), 128-140.

S Russell (2019) Human Compatible: Artificial Intelligence and the Problem of Control.

E Fromm (1994) Erich Fromm The Escape From Freedom. 139-154.

P Andrews (2002) An Introduction to Mathematical Logic and Type Theory: To Truth Through Proof.

F Dyson (1949) The radiation theories of Tomonaga, Schwinger and Feynman. 75, 486.

Colin Guillarmou, Antti Kupiainen, Rémi Rhodes, Vincent Vargas (2020) Conformal bootstrap in Liouville theory. 233(1), 33-194.

Kenneth Wilson (1971) Renormalization Group and Critical Phenomena. I. Renormalization Group and the Kadanoff Scaling Picture. 4(9), 3174-3183.

Wikipedia: Cabibbo-Kobayashi-Maskawa matrix.

P Zyla, R Barnett, J Beringer, O Dahl, D Dwyer, D Groom, C-J Lin, K Lugovsky, E Pianori, D Robinson, C Wohl, W-M Yao, K Agashe, G Aielli, B Allanach, C Amsler, M Antonelli, E Aschenauer, D Asner, H Baer, Sw Banerjee, L Baudis, C Bauer, J Beatty, V Belousov, S Bethke, A Bettini, O Biebel, K Black, E Blucher, O Buchmuller, V Burkert, M Bychkov, R Cahn, M Carena, A Ceccucci, A Cerri, D Chakraborty, R Chivukula, G Cowan, G D'ambrosio, T Damour, D De Florian, A De Gouvêa, T Degrand, P De Jong, G Dissertori, B Dobrescu, M D'onofrio, M Doser, M Drees, H Dreiner, P Eerola, U Egede, S Eidelman, J Ellis, J Erler, V Ezhela, W Fetscher, B Fields, B Foster, A Freitas, H Gallagher, L Garren, H-J Gerber, G Gerbier, T Gershon, Y Gershtein, T Gherghetta, A Godizov, M Gonzalez-Garcia, M Goodman, C Grab, A Gritsan, C Grojean, M Grünewald, A Gurtu, T Gutsche, H Haber, C Hanhart, S Hashimoto, Y Hayato, A Hebecker, S Heinemeyer, B Heltsley, J Hernández-Rey, K Hikasa, J Hisano, A Höcker, J Holder, A Holtkamp, J Huston, T Hyodo, K Johnson, M Kado, M Karliner, U Katz, M Kenzie, V Khoze, S Klein, E Klempt, R Kowalewski, F Krauss, M Kreps, B Krusche, Y Kwon, O Lahav, J Laiho, L Lellouch, J Lesgourgues, A Liddle, Z Ligeti, C Lippmann, T Liss, L Littenberg, C Lourengo, S Lugovsky, A Lusiani, Y Makida, F Maltoni, T Mannel, A Manohar, W Marciano, A Masoni, J Matthews, U-G Meißner, M Mikhasenko, D Miller, D Milstead, R Mitchell, K Mönig, P Molaro, F Moortgat, M Moskovic, K Nakamura, M Narain, P Nason, S Navas, M Neubert, P Nevski, Y Nir, K Olive, C Patrignani, J Peacock, S Petcov, V Petrov, A Pich, A Piepke, A Pomarol, S Profumo, A Quadt, K Rabbertz, J Rademacker, G Raffelt, H Ramani, M Ramsey-Musolf, B Ratcliff, P Richardson, A Ringwald, S Roesler, S Rolli, A Romaniouk, L Rosenberg, J Rosner, G Rybka, M Ryskin, R Ryutin, Y Sakai, G Salam, S Sarkar, F Sauli, O Schneider, K Scholberg, A Schwartz, J Schwiening, D Scott, V Sharma, S Sharpe, T Shutt, M Silari, T Sjöstrand, P Skands, T Skwarnicki, G Smoot, A Soffer, M Sozzi, S Spanier, C Spiering, A Stahl, S Stone, Y Sumino, T Sumiyoshi, M Syphers, F Takahashi, M Tanabashi, J Tanaka, M Taševský, K Terashi, J Terning, U Thoma, R Thorne, L Tiator, M Titov, N Tkachenko, D Tovey, K Trabelsi, P Urquijo, G Valencia, R Van De Water, N Varelas, G Venanzoni, L Verde, M Vincter, P Vogel, W Vogelsang, A Vogt, V Vorobyev, S Wakely, W Walkowiak, C Walter, D Wands, M Wascko, D Weinberg, E Weinberg, M White, L Wiencke, S Willocq, C Woody, R Workman, M Yokoyama, R Yoshida, G Zanderighi, G Zeller, O Zenin, R-Y Zhu, S-L Zhu, F Zimmermann, J Anderson, T Basaglia, V Lugovsky, P Schaffner, W Zheng (2020) Review of Particle Physics. 2020(8), 083C-84.