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Hauptverfasser: Chen, Yongxue, Liu, Tao, Huang, Yuming, Wang, Weiming, Zhang, Tianyu, Qian, Kun, Shi, Zikang, Wang, Charlie C. L.
Format: Preprint
Veröffentlicht: 2025
Schlagworte:
Online-Zugang:https://arxiv.org/abs/2509.10599
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author Chen, Yongxue
Liu, Tao
Huang, Yuming
Wang, Weiming
Zhang, Tianyu
Qian, Kun
Shi, Zikang
Wang, Charlie C. L.
author_facet Chen, Yongxue
Liu, Tao
Huang, Yuming
Wang, Weiming
Zhang, Tianyu
Qian, Kun
Shi, Zikang
Wang, Charlie C. L.
contents This paper presents a method for computing interleaved additive and subtractive manufacturing operations to fabricate models of arbitrary shapes. We solve the manufacturing planning problem by searching a sequence of inverse operations that progressively transform a target model into a null shape. Each inverse operation corresponds to either an additive or a subtractive step, ensuring both manufacturability and structural stability of intermediate shapes throughout the process. We theoretically prove that any model can be fabricated exactly using a sequence generated by our approach. To demonstrate the effectiveness of this method, we adopt a voxel-based implementation and develop a scalable algorithm that works on models represented by a large number of voxels. Our approach has been tested across a range of digital models and further validated through physical fabrication on a hybrid manufacturing system with automatic tool switching.
format Preprint
id arxiv_https___arxiv_org_abs_2509_10599
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Can any model be fabricated? Inverse operation based planning for hybrid additive-subtractive manufacturing
Chen, Yongxue
Liu, Tao
Huang, Yuming
Wang, Weiming
Zhang, Tianyu
Qian, Kun
Shi, Zikang
Wang, Charlie C. L.
Graphics
This paper presents a method for computing interleaved additive and subtractive manufacturing operations to fabricate models of arbitrary shapes. We solve the manufacturing planning problem by searching a sequence of inverse operations that progressively transform a target model into a null shape. Each inverse operation corresponds to either an additive or a subtractive step, ensuring both manufacturability and structural stability of intermediate shapes throughout the process. We theoretically prove that any model can be fabricated exactly using a sequence generated by our approach. To demonstrate the effectiveness of this method, we adopt a voxel-based implementation and develop a scalable algorithm that works on models represented by a large number of voxels. Our approach has been tested across a range of digital models and further validated through physical fabrication on a hybrid manufacturing system with automatic tool switching.
title Can any model be fabricated? Inverse operation based planning for hybrid additive-subtractive manufacturing
topic Graphics
url https://arxiv.org/abs/2509.10599