Prediction of Stochastic Transportation Problem with Fixed Charge in Multi-Objective Rough Interval Environment

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DOI: https://doi.org/10.28924/2291-8639-22-2024-117
Published: Jul 19, 2024
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P. Indira, M. Jayalakshmi, Prediction of Stochastic Transportation Problem with Fixed Charge in Multi-Objective Rough Interval Environment, Int. J. Anal. Appl., 22 (2024), 117.

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P. Indira, M. Jayalakshmi

Abstract

Many problems appear to be arising in the present as a result of variations in transportation networks. The stochastic fixed-charge transportation problem (SFCTP) is one such problem. The SFCTP is transformed into a chance-constrained programming (CCP) problem where supply and demand are stochastic and objective functions are in a rough interval. In this model, to analyze the multi-objective rough interval stochastic fixed-charge transportation problem (MORISFCTP), where the objective function coefficients are represented by rough intervals and the supply and destination factors are probabilistic constraints. This model operates an expected value operator to deal with uncertainty, in which the coefficient of the objective functions in the fuzzy is changed to a crisp form, and the probabilistic constraints are converted to a deterministic form by the Weibull distribution. To produce the optimal compromise solutions of the proposed model, three distinct methods are used: the fuzzy programming approach, the method of a linear weighted sum, and the €-constraint method. Lastly, the paper delivers a practical illustration of a MORISFCTP to demonstrate the usefulness and feasibility of the suggested methodology.

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