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U-PolyConformer: Spatiotemporal machine learning for microstructure engineering
DOI:10.1016/j.ijplas.2025.104597.png)
摘要
En 中文
• 提出了一种新颖的时空CNN-Transformer机器学习框架。
• 首次提出能够捕捉任意加载条件下全场应力与应变演化的框架。
• 具有强大的泛化能力;能够准确捕捉训练分布外的加载条件、微观结构和硬化行为。
• 采用了一种新颖的微观结构优化框架,通过延缓局部化来提升成形性。
Keyword:
Crystal plasticity finite element method
machine learning
Localized Deformation
Formability
Microstructure Engineering
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期刊
IF:
12.8
论文数:
4.1K
被引数:
2.5W
机构
引用论文
Field fluctuations elasto-plastic self-consistent crystal plasticity: Applications to predict texture evolution during rolling, recrystallization, and drawing processes场波动弹塑性自洽晶体塑性:应用于预测轧制、再结晶和拉伸过程中织构演化的应用
Machine learning based surrogate modeling approach for mapping crystal deformation in three dimensions
SCRIPTA MATERIALIA
IF5.6
Effect of extension {1012} twins on texture evolution at elevated temperature deformation accompanied by dynamic recrystallization
MATERIALS & DESIGN
IF7.9
From deterministic physics-based to probabilistic data-driven modeling: Diffusion-based prediction of strain fields in deep drawing processes从确定性的物理基础建模到基于概率的数据驱动建模:基于扩散的拉深过程中应变场预测
Physics-informed neural networks: A deep learning framework for solving forward and inverse problems involving nonlinear partial differential equations物理信息神经网络: 一种用于解决涉及非线性偏微分方程的正反问题的深度学习框架

