Optimization of fuzzy two-level production inventory system with persuasive exertion-reliant demand

R Vithyadevi, K Annadurai


Dynamic manufacturing-inventory system’s intelligent production design develops a crucial problem in the business reactivity of indecisions.  This investigation examines a two-level production system under fuzzy parameters and decision variables by implementing a pentagonal fuzzy quantity.  As designed, the fuzzy system is defuzzified through the graded mean technique, and then the Kuhn-Tucker technique is utilised to obtain the optimum production size and shortage level.  The effectual algorithms are established to project an intellectual industrial approach such as optimal production quantity, shortage level, trade group’s exertions, and then minimum integrated expected total cost.  The evaluation of the proposed fuzzy system is primed to fit numerical examples compared to the crisp system.  This suggested fuzzy system is likewise compared with a particular case of the prior model.  Numerical illustrations and sensitiveness studies are delivered in the direction of exhibiting the applicability based on the offered procedure and the attained outcomes..


Optimal production; Shortage level; Trade group’s exertions demand; Pentagonal fuzzy quantity; Kuhn-Tucker method.

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DOI: http://dx.doi.org/10.23755/rm.v48i0.1152


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