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Solving a New 3D Bin Packing Problem with Deep Reinforcement Learning Method
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Solving a New 3D Bin Packing Problem with Deep Reinforcement Learning Method
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In this paper, a new type of 3D bin packing problem (BPP) is proposed, in which a number of cuboid-shaped items must be put into a bin one by one orthogonally. The objective is to find a way to place these items that can minimize the surface area of the bin. This problem is based on the fact that there is no fixed-sized bin in many real business scenarios and the cost of a bin is proportional to its surface area. Our research shows that this problem is NP-hard. Based on previous research on 3D BPP, the surface area is determined by the sequence, spatial locations and orientations of items. Among these factors, the sequence of items plays a key role in minimizing the surface area. Inspired by recent achievements of deep reinforcement learning (DRL) techniques, especially Pointer Network, on combinatorial optimization problems such as TSP, a DRL-based method is applied to optimize the sequence of items to be packed into the bin. Numerical results show that the method proposed in this paper achieve about 5% improvement than heuristic method.
Forward citations
Cited by 2 Pith papers
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Differentiable Packing of Irregular 3D Objects with Adaptive Container Estimation
A differentiable optimization framework jointly tunes 6N object poses and three container dimensions via six mesh-based losses and adaptive squeezing, producing 11-32% smaller containers than baselines for N=100.
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Operationally Guided Placement-Aware Learning for Industrial Online 3D Bin Packing
Operationally guided multi-anchor EMS candidates plus a 15-feature xLSTM ranker raise online industrial 3D packing density to 0.49, with 15.1% from exposure and 6.3% from learned ranking.
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