2021
DOI: 10.1049/cim2.12016
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Scheduling multi–mode resource–constrained tasks of automated guided vehicles with an improved particle swarm optimization algorithm

Abstract: A modified particle swarm optimization (PSO) approach is presented for the multi-mode resource-constrained scheduling problem of automated guided vehicle (AGV) tasks. Various constraints in the scheduling process of the AGV system are analysed, and the types and quantities of AGVs as allocable resources are considered. The multiple-AGV combined distribution mode and its impact on distribution tasks is also considered. Finally, a multi-mode resource-constrained task scheduling model is established for which the… Show more

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Cited by 11 publications
(11 citation statements)
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“…Many researchers have recently expressed interest in an IPSO, Qi et al [134] utilized the IPSO to improve the slow convergence speed, poor optimization result and incomplete search during mobile robot path planning by using classical navigation method which is Ant Colony Algorithm (ACO). While Xiao et al [135] presented by simulating an IPSO for the multi-mode resourceconstrained scheduling problem of AGV task. Qiuyun et al [136] used IPSO too in their study to improve the efficiency of AGV in material transfer and to determine the extent of effectiveness related to mechanism development.…”
Section: Particle Swarm Optimizationmentioning
confidence: 99%
See 1 more Smart Citation
“…Many researchers have recently expressed interest in an IPSO, Qi et al [134] utilized the IPSO to improve the slow convergence speed, poor optimization result and incomplete search during mobile robot path planning by using classical navigation method which is Ant Colony Algorithm (ACO). While Xiao et al [135] presented by simulating an IPSO for the multi-mode resourceconstrained scheduling problem of AGV task. Qiuyun et al [136] used IPSO too in their study to improve the efficiency of AGV in material transfer and to determine the extent of effectiveness related to mechanism development.…”
Section: Particle Swarm Optimizationmentioning
confidence: 99%
“…Able to effectively plan a route in both simple and complicated outdoor environment conditions Yu & Yan [132] PSO To address the obstacle avoidance and AGV path planning issues in intelligent warehouses Success in enhancing the function's convergence and preventing the issue of the algorithm running into the local optimal solution Cao & Zhu [133] IPSO To resolve multi-AGV path limitations and conflicts in the environment Congestion-caused path conflict can be successfully reduced, and the multi-AGV system efficiency can be increased Qi et al [134] IPSO To address the issue of path planning Success in resolving the path planning issue with standard PSO and ACO serves as references for future study on mobile robot path planning control Xiao et al [135] IPSO To schedule AGV task with Multi-mode resource-constrained Success to demonstrate the algorithm's effectiveness in tackling challenges involving the scheduling of many modes of resourceconstrained tasks Qiuyun et al [136] IPSO To find the best path in the one-line manufacturing AGV path planning problem…”
Section: Mmpsomentioning
confidence: 99%
“…Based on the discussions in literature [6,7], here α = β = 0.5. The f represents fitness value which is designed to evaluate the qualities of particles [28]. In particular, when the task allocation scheme dissatisfies with constraints, the value of f is set to infinity.…”
Section: Objective Functionmentioning
confidence: 99%
“…The Stackelberg Game problem can be described by the bilevel programming model [33]; so this paper establishes a real‐time charging price model based on the bilevel programming theory and solves the model through the multi‐objective particle swarm algorithm [34]. The lower layer is the follower strategy space S2, the upper layer is the leader strategy space S1, and the optimal strategy space combination calculated in each iteration is the initial strategy set of the next iteration.…”
Section: Charging Price Setting Based On Stackelberg Gamementioning
confidence: 99%