Self-evolving experimental platform for 3D sand printing

Abstract 3D sand printing revolutionizes casting mold fabrication while confronting nonlinear high-dimensional optimization challenges stemming from variable combinations and objective conflicts. Here, we develop Ex3DSP, a self-evolving experimental platform combining robotic ‘can-do’ capabilities with artificial intelligence ‘can-think’ cognition to establish a ‘do-while-thinking’ self-evolving experimentation paradigm. Addressing a 3-objective, 3-variable high-dimensional optimization problem, our Ex3DSP discovers the Pareto front with a 1148-fold reduction in experimental workload. The platform provides two solution types (objective-optimal and balanced) with interpretability and reveals underlying mechanisms (variable-objective interaction and sand mold fracture behavior). Moreover, these solutions are applied to guide real-world casting parameter selection, yielding castings with up to 385% improved physicochemical and mechanical performances. This work demonstrates a self-evolving experimentation paradigm for 3D sand printing, offering both an intelligent additive manufacturing roadmap and pre-industrial screening potential.

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Publication Details

Journal
National Science Review
Published
2026-06-09
DOI
https://doi.org/10.1093/nsr/nwag352
Primary Topic
Additive Manufacturing and 3D Printing Technologies
Type
article
Field-Weighted Citation Impact
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article

Self-evolving experimental platform for 3D sand printing

Kaiming Tang, Xiantong Zhang, Wenhui Lu, Zhike Peng et al.
National Science Review
Additive Manufacturing and 3D Printing Technologies
article

Self-evolving experimental platform for 3D sand printing

Kaiming Tang, Xiantong Zhang, Wenhui Lu, Zhike Peng, Songtao Hu, Zi Wang, Yinjun Deng, Xi Shi, Xiaobao Cao, Haoran Li, Bo Zhang
article en

Abstract

Abstract 3D sand printing revolutionizes casting mold fabrication while confronting nonlinear high-dimensional optimization challenges stemming from variable combinations and objective conflicts. Here, we develop Ex3DSP, a self-evolving experimental platform combining robotic ‘can-do’ capabilities with artificial intelligence ‘can-think’ cognition to establish a ‘do-while-thinking’ self-evolving experimentation paradigm. Addressing a 3-objective, 3-variable high-dimensional optimization problem, our Ex3DSP discovers the Pareto front with a 1148-fold reduction in experimental workload. The platform provides two solution types (objective-optimal and balanced) with interpretability and reveals underlying mechanisms (variable-objective interaction and sand mold fracture behavior). Moreover, these solutions are applied to guide real-world casting parameter selection, yielding castings with up to 385% improved physicochemical and mechanical performances. This work demonstrates a self-evolving experimentation paradigm for 3D sand printing, offering both an intelligent additive manufacturing roadmap and pre-industrial screening potential.

National Science Review
Shanghai Jiao Tong University (CN), Ningxia University (CN), Guangzhou Experimental Station (CN)
Openalex Percentile: Top 10%
Additive Manufacturing and 3D Printing Technologies
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Self-evolving experimental platform for 3D sand printing — Kaiming Tang, Xiantong Zhang, et al. · National Science Review (2026) | TGRS Research Map | TGRS