Abstract
The goal of a new area of Computing with Words (CWW) is solving computationally tasks formulated in a natural language (NL). The extreme uncertainty of NL is the major challenge to meet this ambitious goal requiring computational approaches to handle NL uncertainties. Attempts to solve various CWW tasks lead to the methodological questions about rigorous and heuristic formulations and solutions of the CWW tasks. These attempts immediately reincarnated the long-time discussion about different methodologies to model uncertainty, namely: Probability Theory, Multi-valued logic, Fuzzy Sets, Fuzzy Logic, and the Possibility theory. The main forum of the recent discussion was an on-line Berkeley Initiative on Soft Computing group in 2014. Zadeh claims that some computing with words tasks are in the province of the fuzzy logic and possibility theory, and probabilistic solutions are not appropriate for these tasks. In this work we propose a useful constructive probabilistic approach for CWW based on sets of specialized K-Measure (Kolmogorov’s measure) probability spaces that differs from the random sets. This work clarifies the relationships between probability and possibility theories in the context of CWW.
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References
Zadeh, L., Computing with Words: Principal Concepts and Ideas, Springer, 2012.
Zadeh, L., From Computing with Numbers to Computing with Words—From Manipulation of Measurements to Manipulation of Perceptions, IEEE Transactions on Circuits and Systems—I: Fundamental Theory and Applications, Vol. 45, No. 1, 1999, 105–119.
Beliakov, G., Bouchon-Meunier, B., Kacprzyk, J., Kovalerchuk, B., Kreinovich, V., Mendel J.,: Computing With Words: role of fuzzy, probability and measurement concepts, and operations, Mathware & Soft Computing Magazine. Vol.19 n.2, 2012, 27–45.
Kovalerchuk, B. Summation of Linguistic Numbers, Proc. of North American Fuzzy Information Processing Society (NAFIPS) and World Congress on Soft Computing, 08-17-19, 2015, Redmond, WA pp.1–6. doi:10.1109/NAFIPS-WConSC.2015.7284161.
Zadeh, L.: Discussion: Probability Theory and Fuzzy Logic are Complementary rather than competitive, Technometrics, vol. 37, n 3, 271–276, 1996.
Zadeh L., Berkeley Initiative on Soft Compting (BISC), Posts on 01/30/2014, 02/05/2014 , 04/09/2014, 05/27/2014, 10/27/2014Â http://mybisc.blogspot.com.
Goodman, I.R., Fuzzy sets as equivalent classes of random sets, in: R. Yager (Ed.), Fuzzy Sets and Possibility Theory, 1982, pp. 327–343.
Nguyen, H.T., Fuzzy and random sets, Fuzzy Sets and Systems 156 (2005) 349–356.
Nguyen, H.T., Kreinovich, V., How to fully represent expert information about imprecise properties in a computer system: random sets, fuzzy sets, and beyond: an overview. Int. J. General Systems 43(6): 586–609 (2014).
Orlov A.I., Fuzzy and random sets, Prikladnoi Mnogomiernii Statisticheskii Analyz (Nauka, Moscow), 262–280, 1978 (in Russian).
Kovalerchuk, B., Probabilistic Solution of Zadeh’s test problems, in IPMU 2014, Part II, CCIS 443, Springer, pp. 536–545, 2014.
Kovalerchuk, B., Berkeley Initiative on Soft Computing (BISC), Posts on 01/17/2014, 02/03/2014, 03.07.2014.03/08/2014, 03/21/2014 http://mybisc.blogspot.com.
Cooman, Gert de; Kerre, E; and Vanmassenhov, FR: Possibility Theory: An Integral Theoretic Approach, Fuzzy Sets and Systems, v. 46, pp. 287–299, (1992).
Dubois, D., Possibility Theory and Statistical Reasoning, 2006.
Dubois, D., Nguyen, H.T., Prade H., 2000. Possibility theory, probability and fuzzy sets: misunderstandings, bridges and gaps. In: D. Dubois H. Prade (Eds), Fundamentals of Fuzzy Sets, The Handbooks of Fuzzy Sets Series, Kluwer, Dordrecht, 343–438.
Dubois, D., Steps to a Theory of Qualitative Possibility, in: Proc. 6\(^{th}\) Int. Congress on Cybernetics and Systems, pp. 10–14, 1984.
Joslyn, C., Possibilistic processes for complex systems modeling, Ph. D. dissertation, SUNY Binghamton, 1995. http://ftp.gunadarma.ac.id/pub/books/Cultural-HCI/Semiotic-Complex/thesis-possibilistic-process.pdf.
Gaines, B., Fundamentals of decision: Probabilistic, possibilistic, and other forms of uncertainty in decision analysis. Studies in Management Sciences, 20:47-65, 1984.
Giles, R., Foundations for a Theory of Possibility, in: Fuzzy Information and Decision Processes, pp. 183–195, North-Holland, 1982.
Yager, R., On the Completion of Qualitative Possibility Measures, IEEE Trans. on Fuzzy Systems, v. 1:3, 184–194, 1993.
Yager, R., Foundation for a Theory of Possibility, J. Cybernetics, v. 10, 177–204, 1980.
Zadeh, L., Fuzzy sets as a basis for a theory of possibility, Fuzzy Sets and Systems, 1, 3–28, 1978.
Zadeh, L., A Note on Z-numbers, Information Science 181, 2923–2932, 2011.
Chang, C.-L., Berkeley Initiative on Soft Computing (BISC) post, 2014 http://mybisc.blogspot.com.
Piegat, A., Berkeley Initiative on Soft Compting (BISC) Post on 04/10/2014. http://mybisc.blogspot.com.
Burdzy, K., Search for Certainty. On the Clash of Science and Philosophy of Probability. World Scientific, Hackensack, NJ, 2009.
Wright, G., Ayton, O.,(eds.) Subjective probability. Wiley, Chichester, NY, 1994.
Kolmogorov, A., Foundations of the Theory of Probability, NY, 1956.
Dujmovic, J., Relationships between fuzziness, partial truth and probability in the case of repetitive events. (This volume).
Cheeseman, Peter: Probabilistic vs. Fuzzy Reasoning. In: Kanal, Laveen N. and John F. Lemmer (eds.): Uncertainty in Artificial Intelligence, Amsterdam: Elsevier (North-Holland), 1986, pp. 85–102.
Kovalerchuk, B., Quest for Rigorous Combining Probabilistic and Fuzzy Logic Approaches for Computing with Words, in R.Seising, E. Trillas, C. Moraga, S. Termini (eds.): On Fuzziness. A Homage to Lotfi A. Zadeh, SFSC Vol. 216, Springer 2013. Vol. 1. pp. 333–344.
Kovalerchuk, B., Context Spaces as Necessary Frames for Correct Approximate Reasoning. International Journal of General Systems. vol. 25 (1) (1996) 61–80.
Kovalerchuk, B., Klir, G.: Linguistic context spaces and modal logic for approximate reasoni.ng and fuzzyprobability comparison. In: Proc. of Third International Symposium on Uncertainty Modeling and Analysis and NAFIPS’ 95, IEEE Press, A23A28 (1995).
Raufaste, E., da Silva Neves, R., Mariné, C., Testing the descriptive validity of Possibility Theory in human judgments of uncertainty, Artificial Intelligence, Volume 148, Issues 1–2, 2003, 197–218.
Resconi G., Kovalerchuk, B., Copula as a Bridge between Probability Theory and Fuzzy Logic. (In this volume).
Piegat, A., A New Definition of the Fuzzy Set, Int. J. Appl. Math. Comput. Sci., Vol. 15, No. 1, 125–140, 2005
Zadeh, L., The concept of linguistic variable and its application to approximate reasoning—1. Information Sciences 8, 199–249, 1977.
Kovalerchuk, B., Vityaev, E., Data Mining in Finance: Advances in Relational and Hybrid Methods (chapter 7 on fuzzy systems), Boston: Kluwer (2000).
Grabisch, M., Belief Functions on Lattices, International Journal of Intelligent Systems, Vol. 24, 76–95, 2009.
Kovalerchuk B, Analysis of Gaines’ logic of uncertainty. In: Proceedings of NAFIPS’90, Eds I.B.Turksen. v.2, Toronto, Canada, 293–295, (1990).
Dujmovic, J, Berkeley Initiative on Soft Compting (BISC), Post on 4/28/2014. http://mybisc.blogspot.com.
Kovalerchuk, B, Talianski, V., Comparison of empirical and computed values of fuzzy conjunction. Fuzzy sets and Systems 46:49–53 (1992).
Thole, U., Zimmermann, H-J., Zysno, P., On the Suitability of Minimum and Product Operations for the Intersection of Fuzzy Sets, Fuzzy Sets and Systems 2, 173–186 (1979).
Kovalerchuk B., Interpretable Fuzzy Systems: Analysis of T-norm interpretability, IEEE World Congress on Computational Intelligence, 2010. doi:10.1109/FUZZY.2010.5584837.
Tschantz, M., Berkeley Initiative on Soft Compting (BISC) Posts on 03/11/2014, 04/07/2014, http://mybisc.blogspot.com.
Dubois, D., Prade, H., Measure-Free Conditioning, Probability, and Non-Monotonic Reasoning, in: Proc. 11th Int. Joint Conf. on Artificial Intelligence, pp. 1110–1114, 1989.
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Kovalerchuk, B. (2017). Relationships Between Probability and Possibility Theories. In: Kreinovich, V. (eds) Uncertainty Modeling. Studies in Computational Intelligence, vol 683. Springer, Cham. https://doi.org/10.1007/978-3-319-51052-1_7
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