Flexible workshop scheduling optimization method and system considering crane transportation process
A technology for workshop scheduling and transportation process, applied in control/adjustment system, general control system, program control, etc., to achieve the effect of reducing the maximum completion time and total energy consumption, and improving the efficiency of processing and transportation
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[0052]Example one:
[0053]This embodiment provides a flexible workshop scheduling optimization method considering the crane transportation process, such asfigure 1 Shown, including:
[0054]Obtain the parameters of the flexible workshop, the parameters including the number of machines in the target factory, the number of workpieces, the processing procedures corresponding to each workpiece, the processing machines corresponding to each procedure, the processing time of the workpiece, and the position coordinates of the crane;
[0055]Based on the parameters of the flexible workshop, a flexible workshop scheduling model is constructed; the flexible workshop scheduling model aims to minimize the maximum completion time and total energy consumption;
[0056]Based on a hybrid algorithm of distribution estimation and variable neighborhood search, the flexible shop scheduling model is solved, and the flexible shop scheduling plan is output after the solution. Among the output solutions of the flexib...
Example Embodiment
[0194]Embodiment two:
[0195]In this embodiment, the hybrid algorithm described in the first embodiment is subjected to experimental analysis to evaluate its performance. The algorithm and other comparison algorithms are implemented in C++ and run on an Intel Core i7 2.6-GHz 8GB memory computer. Comparison algorithms include Girish and PSO algorithms, VNS algorithm, GA algorithm and IG algorithm.
[0196]In order to compare the performance of the algorithm with other algorithms, the following relative percentage increase (RPI) performance indicators are proposed:
[0197]
[0198]Where fcIs the average fitness value of a given algorithm, fbIs f in all comparison algorithmscThe optimal value.
[0199]This embodiment includes four types of calculation examples. The first type of calculation example is a small-scale calculation example, where the number of workpieces is I={7,9,10}, and the number of machines is M=6. The second type of calculation examples are medium-scale calculation examples, a tot...
Example Embodiment
[0231]Embodiment three:
[0232]This embodiment provides a flexible workshop scheduling optimization system considering the crane transportation process, including:
[0233]The parameter acquisition module is configured to acquire the parameters of the flexible workshop, the parameters including the number of machines in the target factory, the number of workpieces, the processing procedures corresponding to each workpiece, the processing machines corresponding to each procedure, the processing time of the workpiece, and the crane Location coordinates;
[0234]The flexible workshop scheduling model building module is configured to: build a flexible workshop scheduling model based on the parameters of the flexible workshop; the flexible workshop scheduling model aims at the maximum completion time and the minimization of total energy consumption;
[0235]The scheduling plan output module is configured to solve the flexible shop scheduling model based on a hybrid algorithm of distribution estimat...
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