Minimizing and maximizing a linear objective function under a fuzzy max - * relational equation and an inequality constraint

Zofia Matusiewicz

Kybernetika (2022)

  • Volume: 58, Issue: 3, page 320-334
  • ISSN: 0023-5954

Abstract

top
This paper provides an extension of results connected with the problem of the optimization of a linear objective function subject to max - * fuzzy relational equations and an inequality constraint, where * is an operation. This research is important because the knowledge and the algorithms presented in the paper can be used in various optimization processes. Previous articles describe an important problem of minimizing a linear objective function under a fuzzy max - * relational equation and an inequality constraint, where * is the t -norm or mean. The authors present results that generalize this outcome, so the linear optimization problem can be used with any continuous increasing operation with a zero element where * includes in particular the previously studied operations. Moreover, operation * does not need to be a t-norm nor a pseudo- t -norm. Due to the fact that optimal solutions are constructed from the greatest and minimal solutions of a max - * relational equation or inequalities, this article presents a method to compute them. We note that the linear optimization problem is valid for both minimization and maximization problems. Therefore, for the optimization problem, we present results to find the largest and the smallest value of the objective function. To illustrate this problem a numerical example is provided.

How to cite

top

Matusiewicz, Zofia. "Minimizing and maximizing a linear objective function under a fuzzy $\max -\ast $ relational equation and an inequality constraint." Kybernetika 58.3 (2022): 320-334. <http://eudml.org/doc/298939>.

@article{Matusiewicz2022,
abstract = {This paper provides an extension of results connected with the problem of the optimization of a linear objective function subject to $\max -\ast $ fuzzy relational equations and an inequality constraint, where $\ast $ is an operation. This research is important because the knowledge and the algorithms presented in the paper can be used in various optimization processes. Previous articles describe an important problem of minimizing a linear objective function under a fuzzy $\max -\ast $ relational equation and an inequality constraint, where $\ast $ is the $t$-norm or mean. The authors present results that generalize this outcome, so the linear optimization problem can be used with any continuous increasing operation with a zero element where $\ast $ includes in particular the previously studied operations. Moreover, operation $\ast $ does not need to be a t-norm nor a pseudo-$t$-norm. Due to the fact that optimal solutions are constructed from the greatest and minimal solutions of a $\max -\ast $ relational equation or inequalities, this article presents a method to compute them. We note that the linear optimization problem is valid for both minimization and maximization problems. Therefore, for the optimization problem, we present results to find the largest and the smallest value of the objective function. To illustrate this problem a numerical example is provided.},
author = {Matusiewicz, Zofia},
journal = {Kybernetika},
keywords = {fuzzy optimization; minimizing a linear objective function; maximizing a linear objective function; fuzzy relational equations; system of equations; fuzzy relational inequalities; system of inequalities; $\max -\ast $ composition; solution family; minimal solutions},
language = {eng},
number = {3},
pages = {320-334},
publisher = {Institute of Information Theory and Automation AS CR},
title = {Minimizing and maximizing a linear objective function under a fuzzy $\max -\ast $ relational equation and an inequality constraint},
url = {http://eudml.org/doc/298939},
volume = {58},
year = {2022},
}

TY - JOUR
AU - Matusiewicz, Zofia
TI - Minimizing and maximizing a linear objective function under a fuzzy $\max -\ast $ relational equation and an inequality constraint
JO - Kybernetika
PY - 2022
PB - Institute of Information Theory and Automation AS CR
VL - 58
IS - 3
SP - 320
EP - 334
AB - This paper provides an extension of results connected with the problem of the optimization of a linear objective function subject to $\max -\ast $ fuzzy relational equations and an inequality constraint, where $\ast $ is an operation. This research is important because the knowledge and the algorithms presented in the paper can be used in various optimization processes. Previous articles describe an important problem of minimizing a linear objective function under a fuzzy $\max -\ast $ relational equation and an inequality constraint, where $\ast $ is the $t$-norm or mean. The authors present results that generalize this outcome, so the linear optimization problem can be used with any continuous increasing operation with a zero element where $\ast $ includes in particular the previously studied operations. Moreover, operation $\ast $ does not need to be a t-norm nor a pseudo-$t$-norm. Due to the fact that optimal solutions are constructed from the greatest and minimal solutions of a $\max -\ast $ relational equation or inequalities, this article presents a method to compute them. We note that the linear optimization problem is valid for both minimization and maximization problems. Therefore, for the optimization problem, we present results to find the largest and the smallest value of the objective function. To illustrate this problem a numerical example is provided.
LA - eng
KW - fuzzy optimization; minimizing a linear objective function; maximizing a linear objective function; fuzzy relational equations; system of equations; fuzzy relational inequalities; system of inequalities; $\max -\ast $ composition; solution family; minimal solutions
UR - http://eudml.org/doc/298939
ER -

References

top
  1. Belohlavek, R., Fuzzy Relational Systems. Foundations and Principles., Academic Publishers, Kluwer New York 2002. 
  2. Czogała, E., Drewniak, J., Pedrycz, W., , Fuzzy Sets Systems 7 (1982), 89-101. MR0635357DOI
  3. Drewniak, J., , Fuzzy Sets Systems 14 (1984), 237-247. MR0768110DOI
  4. Drewniak, J., Fuzzy Relation Calculus., Silesian University, Katowice 1989. MR1009161
  5. Drewniak, J., Matusiewicz, Z., , Inform. Sci. 206 (2012), 18-29. MR2930162DOI
  6. Fang, S. Ch., Li, G., Solving fuzzy relation equations with a linear objective function., Fuzzy Sets Systems 103 (1999), 107-113 Zbl0933.90069MR1674026
  7. Guo, F., Pang, L.-P., Meng, D., Xia, Z.-Q., , Inform. Sci. 252 (2011), 20-31. MR3123917DOI
  8. Guu, S.-M., Wu, Y. K., , Fuzzy Sets Systems 161 (2010), 285-297. Zbl1190.90297MR2566245DOI
  9. Han, S. Ch., Li, H.-X., Wang, J.-Y., , Appl. Math. Lett. 19 (2006), 752-757. MR2232250DOI
  10. Higashi, M., Klir, G. J., Resolution of finite fuzzy relation equations., Fuzzy Sets Systems 13 (1984), 65-82 MR0747391
  11. Khorram, E., Zarei, H., , Math. Comput. Modell. 5 (2009), 49, 856-867. MR2495003DOI
  12. Klement, E. P., Mesiar, R., Pap, E., Triangular Norms., Kluwer Academic Publishers, Dordrecht 2000. Zbl1087.20041MR1790096
  13. Lee, H.-C., Guu, S.-M., , Fuzzy Optimization and Decision Making 2 (3) (2002), 31-39. DOI
  14. Li, S.-Ch., Fang, P., , Fuzzy Optim. Decision Making 8 (2009), 2, 179-229. MR2511474DOI
  15. Liu, Ch.-Ch., Lur, Y.-Y., Wu, Y.-K., , Inform. Sci. 360 (2016), 149-162. DOI
  16. Matusiewicz, Z., Drewniak, J., , Fuzzy Sets Systems 231 (2013), 120-133. MR3118539DOI
  17. Molai, A. A., , Math. Comput. Modell. 51 (2010), 9-10, 1240-1250. MR2608910DOI
  18. Peeva, K., Kyosev, Y., , Advanced Fuzzy Systems - Applications and Theory, World Scientific, Singapore 2004. Zbl1083.03048MR2379415DOI
  19. Qin, Z., Liu, X., Cao, B.-Y., , In: International Workshop on Mathematics and Decision Science 2018. DOI
  20. Qu, X., Wang, X.-P., , Inform. Sci. 178 (2008), 17, 3482-3490. MR2436417DOI
  21. Sanchez, E., , Inform. Control 30 (1976), 38-48. MR0437410DOI
  22. Shieh, B.-S., , Inform. Sci. 161 (2011), 285-297. MR2566245DOI
  23. Xiao, G., Zhu, T.-X., Chen, Y., Yang, X., , In: IEEE Access 7 (2019), 65019-65028. DOI
  24. Yang, X.-P., Zhou, X.-G., Cao, B.-Y., , Inform. Sci. 358(C) (2016), 44-55. DOI
  25. Zadeh, L. A., , Inform. Sci. 3 (1971), 177-200. MR0297650DOI
  26. Zhou, X.-G., Yang, X.-P., Cao, B.-Y., , Inform. Sci. 328 (2016), 15-25. DOI

NotesEmbed ?

top

You must be logged in to post comments.

To embed these notes on your page include the following JavaScript code on your page where you want the notes to appear.

Only the controls for the widget will be shown in your chosen language. Notes will be shown in their authored language.

Tells the widget how many notes to show per page. You can cycle through additional notes using the next and previous controls.

    
                

Note: Best practice suggests putting the JavaScript code just before the closing </body> tag.