智能铸造技术研究进展

Research Progress on Intelligent Casting Technology

  • 摘要: 智能铸造是铸造行业在工业4.0背景下实现转型升级的核心路径,其本质是将数字化设计、工艺仿真、在线监测、人工智能与机器人等技术融入铸造生产全流程,构建数据驱动的闭环制造体系。本文围绕"设计—工艺—执行—检测"四环节闭环为分析框架,系统梳理了智能铸造各技术路线的研究进展。在数字化设计环节,以3D砂型打印为代表的增材制造技术已经突破传统模具对复杂几何形状的约束,实现了从三维模型到砂型成形的快速迭代;在工艺仿真环节,多物理场耦合建模与数字孪生技术正推动铸造过程从离线模拟向在线实时监控演进;在制造执行环节,机器学习驱动的熔炼控制与协作机器人应用正在填补铸造自动化关键空白;在质量检测与反馈环节,深度学习方法在铸件缺陷检测中已接近人工检测水平,但数据稀缺性仍制约其规模化应用。在此基础上,本文总结了智能铸造在数据、模型、系统集成和产业推广四个维度面临的核心挑战,并对大模型辅助工艺设计、物理-数据融合建模等未来研究方向进行了展望。

     

    Abstract: Intelligent casting represents the core pathway for the transformation and upgrading of the casting industry under the background of Industry 4.0. Its essence lies in integrating technologies such as digital design, process simulation, online monitoring, artificial intelligence, and robotics into the entire casting production process to construct a data-driven closed-loop manufacturing system. Using a four-stage closed-loop framework of "design–process–execution–inspection" as the analytical structure, this paper systematically reviews the research progress of various technical routes in intelligent casting. In the digital design stage, additive manufacturing technologies represented by 3D sand printing have broken through the constraints of traditional molds on complex geometries, enabling rapid iteration from 3D models to sand mold forming. In the process simulation stage, multi-physics coupling modeling and digital twin technologies are driving the evolution of casting processes from offline simulation to online real-time monitoring. In the manufacturing execution stage, machine learning-driven melting control and collaborative robot applications are filling critical gaps in casting automation. In the quality inspection stage, deep learning methods have approached human-level performance in casting defect detection, yet data scarcity still restricts their large-scale application. On this basis, this paper summarizes the core challenges faced by intelligent casting across four dimensions: data, models, system integration, and industrial promotion, and provides an outlook on future research directions such as large-model-assisted process design and physics-data fusion modeling.

     

/

返回文章
返回