Fuzzy Multi-Objective Programming With Joint Probability Distribution

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Abstract

In this chapter, a fuzzy goal programming (FGP) model is employed for solving multi-objective linear programming (MOLP) problem under fuzzy stochastic uncertain environment in which the probabilistic constraints involves fuzzy random variables (FRVs) following joint probability distribution. In the preceding chapters, the authors explain about linear, fractional, quadratic programming models with multiple conflicting objectives under fuzzy stochastic environment. But the chance constraints in these chapters are considered independently. However, in practical situations, the decision makers (DMs) face various uncertainties where the chance constraints occur jointly. By considering the above fact, the authors presented a solution methodology for fuzzy stochastic MOLP (FSMOLP) with joint probabilistic constraint following some continuous probability distributions. Like the other chapters, chance constrained programming (CCP) methodology is adopted for handling probabilistic constraints. But the difference is that in the earlier chapters chance constraints are considered independently, whereas in this chapter all the chance constraints are taken jointly. Then the transformed problem involving possibilistic uncertainty is converted into a comparable deterministic problem by using the method of defuzzification of the fuzzy numbers (FNs). Objectives are now solved independently under the set of modified system constraints to obtain the best solution of each objective. Then the membership function for each objective is constructed, and finally, a fuzzy goal programming (FGP) model is developed for the achievement of the highest membership goals to the extent possible by minimizing group regrets in the decision-making context.
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联合概率分布的模糊多目标规划
本章采用模糊目标规划(FGP)模型求解模糊随机不确定环境下的多目标线性规划(MOLP)问题,其中概率约束涉及遵循联合概率分布的模糊随机变量(frv)。在前几章中,作者解释了模糊随机环境下具有多个冲突目标的线性规划、分数规划和二次规划模型。但这些章节中的机会约束是独立考虑的。然而,在实际情况中,决策者面临着机会约束共同发生的各种不确定性。在此基础上,提出了一类具有连续概率分布的联合概率约束的模糊随机MOLP (FSMOLP)的求解方法。与其他章节一样,机会约束规划(CCP)方法被用于处理概率约束。但不同之处在于,在前面的章节中,机会约束是单独考虑的,而在本章中,所有的机会约束是联合考虑的。然后,利用模糊数的去模糊化方法,将包含可能性不确定性的转换问题转化为具有可比性的确定性问题。目标在一组修改后的系统约束下独立求解,以获得每个目标的最优解。在此基础上,构造了各目标的隶属度函数,建立了模糊目标规划(FGP)模型,以在决策环境下最大限度地减少群体遗憾,实现最高的隶属度目标。
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