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AUDIT: Functional Qualification in Additive Manufacturing via Physical and Digital Twins 审计:通过物理和数字孪生在增材制造中的功能资格
3区 工程技术 Q1 Engineering Pub Date : 2023-10-04 DOI: 10.1115/1.4063655
Michael Biehler, Reinaldo Mock, Shriyanshu Kode, Maham Mehmood, Palin Bhardwaj, Jianjun Shi
Abstract Additive manufacturing (AM) has revolutionized the way we design, prototype, and produce complex parts with unprecedented geometries. However, the lack of understanding of the functional properties of 3D printed parts has hindered their adoption in critical applications where reliability and durability are paramount. This paper proposes a novel approach to the functional qualification of 3D-printed parts via physical and digital twins. Physical twins are parts that are printed under the same process conditions as the functional parts and undergo a wide range of (destructive) tests to determine their mechanical, thermal, and chemical properties. Digital twins are virtual replicas of the physical twins that are generated using finite element analysis (FEA) simulations based on the 3D shape of the part of interest. We propose a novel approach to transfer learning, specifically designed for the fusion of diverse, unstructured 3D shape data and process inputs from multiple sources. The proposed approach has demonstrated remarkable results in predicting the functional properties of 3D-printed lattice structures. From an engineering standpoint, this paper introduces a comprehensive and innovative methodology for the functional qualification of 3D-printed parts. By combining the strengths of physical and digital twins with transfer learning, our approach opens up possibilities for the widespread adoption of 3D printing in safety-critical applications. Methodologically, this work presents a significant advancement in transfer learning techniques, specifically addressing the challenges of multi-source (e.g., digital and physical twins) and multi-input (e.g., 3D shapes and process variables) transfer learning.
增材制造(AM)已经彻底改变了我们设计、原型和生产具有前所未有几何形状的复杂零件的方式。然而,缺乏对3D打印部件功能特性的了解阻碍了它们在可靠性和耐用性至关重要的关键应用中的应用。本文提出了一种通过物理和数字孪生对3d打印部件进行功能鉴定的新方法。物理双胞胎是在与功能部件相同的工艺条件下打印的部件,并经过广泛的(破坏性)测试以确定其机械,热和化学性能。数字双胞胎是物理双胞胎的虚拟复制品,使用基于感兴趣部分的3D形状的有限元分析(FEA)模拟生成。我们提出了一种新的迁移学习方法,专门用于融合来自多个来源的各种非结构化3D形状数据和过程输入。该方法在预测3d打印晶格结构的功能特性方面取得了显著的效果。从工程角度出发,本文介绍了一种全面创新的3d打印部件功能鉴定方法。通过将物理和数字双胞胎的优势与迁移学习相结合,我们的方法为在安全关键应用中广泛采用3D打印开辟了可能性。在方法上,这项工作提出了迁移学习技术的重大进步,特别是解决了多源(例如,数字和物理双胞胎)和多输入(例如,3D形状和过程变量)迁移学习的挑战。
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引用次数: 0
Effect of layer addition on residual stresses of wire arc additive manufactured stainless steel specimens 添加层对焊丝电弧添加剂制备不锈钢试样残余应力的影响
3区 工程技术 Q1 Engineering Pub Date : 2023-09-15 DOI: 10.1115/1.4063446
Sebastien Rouquette, Camille Cambon, Issam Bendaoud, Sandra Cabeza, Fabien Soulié
Abstract Residual stresses have been characterized in four Wire Arc Additive Manufacturing specimens with neutron diffraction technique. Firstly, two methods are investigated for obtaining the reference diffracted angle θ0 that is required for the computation of micro-strains and, thus, the stresses. θ0 was obtained using two approaches. The first one required a strain-free specimen in order to get directly the reference diffracted angles θ0 in three directions. The second one is based on the plane stress assumption to get θ0 indirectly by imposing that the normal stress was equal to zero. Both methods led to similar residual stress profiles for the 1-layer specimen what validated this approach for all specimens that did not have a strain-free specimen available. The second part of this work focused on the effect of addition of a new layer on residual stresses. The measurements showed that the longitudinal stress was tensile in the Heat Affected Zone (HAZ) and Fusion Zone (FZ) with a maximum value located at the parent material - layers interface where the thermal loadings were applied. A decrease of this maximum value from 257 MPa to 199 MPa appeared after deposition of a new layer which is due to some stress relaxation effect. Inside the parent material, a large zone presents compressive longitudinal stress up to -170 MPa. The bottom part of the parent material is under tensile stress likely due to its upward bending following the thermal contraction of the deposited layers during cooling to ambient temperature.
摘要利用中子衍射技术对四线电弧增材制造试样的残余应力进行了表征。首先,研究了两种方法来获得计算微应变所需的参考衍射角θ0,从而得到应力。θ0采用两种方法求得。第一种方法需要一个无应变的试样,以便在三个方向上直接得到参考衍射角θ0。第二个是基于平面应力假设,通过施加法向应力等于零来间接得到θ0。两种方法都得到了类似的1层试样的残余应力分布,这证实了这种方法适用于所有没有无应变试样的试样。本工作的第二部分重点研究了添加新层对残余应力的影响。测量结果表明,纵向应力在热影响区(HAZ)和熔合区(FZ)是拉伸的,最大应力位于施加热载荷的母材层界面处。新层沉积后,由于应力松弛效应,该最大值从257 MPa下降到199 MPa。母材内部存在较大的纵向压应力区,最大可达-170 MPa。母材的底部承受着拉应力,这可能是由于在冷却到环境温度时沉积层的热收缩导致其向上弯曲。
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引用次数: 0
Design and Fabrication of In-house Nozzle System to Extrude Multi-Hydrogels for 3D Bioprinting Process 生物3D打印过程中多水凝胶挤出内部喷嘴系统的设计与制造
IF 4 3区 工程技术 Q1 Engineering Pub Date : 2023-09-07 DOI: 10.1115/1.4063357
Connor Quigley, Rokeya Sarah, Warren Hurd, Scott Clark, M. Habib
The field of 3D bio-printing is rapidly expanding as researchers strive to create functional tissues for medical and pharmaceutical purposes. The ability to print multiple materials, each containing various living cells, brings us closer to achieving tissue regeneration. In a previous study, we designed a Y-shaped nozzle connector system that allowed for continuous deposition of multiple materials. This system was made of plastic and had a fixed switching angle, rendering it suitable for a single use. In this paper, we present the updated version of our nozzle system, which includes a range of angles (30°, 45°, 60°, and 90° degrees) between the two materials. We used stainless steel as the fabrication material and recorded the overall material switching time, comparing the effects of the various angles. Our previously developed hybrid hydrogel, which comprised 4% Alginate and 4% Carboxymethyl Cellulose (CMC), was used as a test material to flow through the nozzle system. The in-house fabricated nozzle connectors are reusable, sterile, and easy to clean, ensuring a smooth material transition and flow.
随着研究人员努力为医疗和制药目的创造功能组织,3D生物打印领域正在迅速扩大。打印多种材料的能力,每种材料都包含各种活细胞,使我们更接近实现组织再生。在之前的研究中,我们设计了一个y形喷嘴连接系统,可以连续沉积多种材料。该系统由塑料制成,具有固定的开关角度,适合一次性使用。在本文中,我们介绍了我们的喷嘴系统的更新版本,其中包括两种材料之间的角度范围(30°,45°,60°和90°)。我们使用不锈钢作为制造材料,记录整体材料切换时间,比较不同角度的效果。我们之前开发的混合水凝胶,由4%海藻酸盐和4%羧甲基纤维素(CMC)组成,用作流过喷嘴系统的测试材料。内部制造的喷嘴连接器可重复使用,无菌,易于清洁,确保顺利的材料过渡和流动。
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引用次数: 0
Enhancing Microstructural, Textural, and Mechanical Properties of Al-Ti Dissimilar Joints via Static Shoulder Friction Stir Welding 静肩搅拌摩擦焊提高Al-Ti异种接头的组织、组织和力学性能
IF 4 3区 工程技术 Q1 Engineering Pub Date : 2023-09-07 DOI: 10.1115/1.4063358
Saravana Sundar A, Krishna Kishore Mugada, Adepu Kumar
The present study explores the application of static shoulder friction stir welding (SSFSW) to address the challenges of poor mechanical properties in conventional Al-Ti dissimilar friction stir joints, which arise due to significant material mixing and the formation of thick intermetallic layers. The results show that SSFSW inhibited material mixing and the mutual diffusion of Al and Ti were suppressed due to lower heat input. Mutual interdiffusion of Al and Ti was directed by an exothermic chemical reaction, forming an Al5Ti2 – Al3Ti sequence due to sluggish diffusion of Al in Ti at a temperature of 512°C achieved in this study. The microstructure at stir zone (SZ) comprised equiaxed grains with Ti particles acting as dispersoids for nucleation, whereas the presence of large Ti blocks at SZ of Conventional FSW (CFSW) resisted plastic deformation, resulting in non-homogeneous concentration of dislocations near its interface. A significant decrease in grain size at all the critical zones of weldment was due to rearrangement of dislocations through slip-and-climb mechanism, as evidenced by the occurrence of dynamic recrystallization. Emergence of γ-fiber and basal fiber texture increased the tensile strength of SSFSW to 289 MPa, which is about 11.2% higher than CFSW, with joint efficiency of about 88%. The study also analysed the contribution of various strengthening mechanisms to the yield strength improvement of SSFSW weldments in detail of SSFSW weldments in detail, and the results showed that grain boundary strengthening contributed the most to strength improvement in SSFSW.
本研究探讨了静态肩部搅拌摩擦焊(SSFSW)的应用,以解决传统Al-Ti异种搅拌摩擦接头机械性能差的挑战,这些挑战是由于大量的材料混合和厚金属间层的形成而引起的。结果表明,SSFSW抑制了材料的混合,并且由于较低的热输入而抑制了Al和Ti的相互扩散。Al和Ti的相互扩散是由放热化学反应引导的,由于在512°C的温度下Al在Ti中缓慢扩散,形成了Al5Ti2–Al3Ti序列。搅拌区(SZ)的微观结构由等轴晶粒组成,Ti颗粒作为成核的分散体,而传统FSW(CFSW)的SZ处存在的大Ti块体阻止了塑性变形,导致界面附近位错的不均匀集中。焊件所有临界区的晶粒尺寸显著减小是由于位错通过滑移和爬升机制重新排列,动态再结晶的发生证明了这一点。γ纤维和基底纤维织构的出现使SSFSW的抗拉强度提高到289MPa,比CFSW高11.2%,接头效率约为88%。研究还详细分析了各种强化机制对SSFSW焊件屈服强度提高的贡献——详细分析了SSFSW焊接件的屈服强度提高,结果表明,晶界强化对提高SSFSW强度的贡献最大。
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引用次数: 0
Dual-Metric Neural Network with Attention Guidance for Surface Defect Few-Shot Detection in Smart Manufacturing 基于注意力引导的双度量神经网络智能制造表面缺陷少弹检测
IF 4 3区 工程技术 Q1 Engineering Pub Date : 2023-09-07 DOI: 10.1115/1.4063356
Pengjie Gao, Junliang Wang, Min Xia, Zijin Qin, Jie Zhang
As an important application of human-robot collaboration, intelligent detection of surface defects is crucial for production quality control, which also helps in relieving the workload of technical staff in human-centric smart manufacturing. To accurately detect defects with limited samples in industrial practice, a dual-metric neural network with attention guided is proposed. First, an attention-guided recognition network with channel attention and position attention module is designed to efficiently learn representative defect features with limited samples. Second, aiming to detect defects with confusing surface images, a dual-metric function is presented to learn the classification boundary by controlling the distance of samples in feature space from intra-class and inter-class. The experiment results on the fabric defect dataset demonstrate that the proposed approach outperforms state-of-the-art methods in accuracy, recall, precision, F1-score, and few-shot accuracy. Further comparative experiments reveal that the dual-metric function is superior in improving the few-shot detection accuracy for the defect patterns of fabric.
作为人机协同的重要应用,表面缺陷的智能检测对生产质量控制至关重要,这也有助于减轻以人为中心的智能制造中技术人员的工作量。为了在工业实践中用有限的样本准确地检测缺陷,提出了一种注意力引导的双度量神经网络。首先,设计了一个具有通道注意力和位置注意力模块的注意力引导识别网络,以有效地学习有限样本的代表性缺陷特征。其次,为了检测具有混淆表面图像的缺陷,提出了一种对偶度量函数,通过控制特征空间中样本从类内和类间的距离来学习分类边界。在织物缺陷数据集上的实验结果表明,所提出的方法在准确性、召回率、精度、F1分数和少镜头精度方面优于最先进的方法。进一步的对比实验表明,对偶度量函数在提高织物缺陷图案的少镜头检测精度方面具有优越性。
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引用次数: 0
Virtual Dynamics Model for 5-axis Machining of Thin-Walled Blades 薄壁叶片五轴加工的虚拟动力学模型
IF 4 3区 工程技术 Q1 Engineering Pub Date : 2023-08-30 DOI: 10.1115/1.4063286
B. Karimi, Y. Altintas
The five-axis ball-end milling dynamics of thin-walled blades is presented. The cutting forces are predicted from the ball end mill–blade geometry engagement maps along the tool path. The Frequency Response Function (FRF) of the thin-walled blade is predicted using Finite Element shell elements, and it is updated along the toolpath as the metal is removed. The predicted cutting forces are applied on both the workpiece and tool FRFs to predict the forced vibrations and chatter stability at each tool location. A simplified method to update the cutter–workpiece engagement (CWE) is used to obtain the three-dimensional stability lobe diagram at each desired point on the blade. The integrated model is used to simulate the 5-axis machining of thin-walled blades in the digital environment. The proposed digital model is experimentally validated by machining a series of thin-walled rectangular plates and a twisted fan blade.
介绍了薄壁叶片的五轴球头铣削动力学。切削力是根据沿刀具路径的球头立铣刀-刀片几何啮合图预测的。薄壁叶片的频率响应函数(FRF)使用有限元壳体单元进行预测,并随着金属的去除而沿着刀具路径进行更新。预测的切削力施加在工件和刀具FRF上,以预测每个刀具位置的强迫振动和颤振稳定性。使用一种更新刀具-工件接合(CWE)的简化方法来获得叶片上每个所需点的三维稳定凸角图。该集成模型用于在数字环境中模拟薄壁叶片的五轴加工。通过加工一系列薄壁矩形板和一个扭曲的风扇叶片,对所提出的数字模型进行了实验验证。
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引用次数: 0
A Novel Diagnostic Tool for Human-Centric Quality Monitoring in Human-Robot Collaboration Manufacturing 人机协作制造中以人为中心的质量监测诊断工具
IF 4 3区 工程技术 Q1 Engineering Pub Date : 2023-08-29 DOI: 10.1115/1.4063284
E. Verna, Stefano Puttero, G. Genta, M. Galetto
The manufacturing industry is currently facing an increasing demand for customized products, leading to a shift from mass production to mass customization. As a result, operators are required to produce multiple product variants with varying complexity levels while maintaining high-quality standards. Further, in line with the human-centered paradigm of Industry 5.0, ensuring the well-being of workers is equally important as production quality. This paper proposes a novel tool, the “Human-Robot Collaboration Quality and Well-Being Assessment Tool” (HRC-QWAT), which combines the analysis of overall defects generated during product variant manufacturing with the evaluation of human well-being in terms of stress response. The HRC-QWAT enables the evaluation and monitoring of human-robot collaboration systems during product variant production from a broader standpoint. A case study of collaborative human-robot assembly is used to demonstrate the applicability of the proposed approach. The results suggest that the HRC-QWAT can evaluate both production quality and human well-being, providing a useful tool for companies to monitor and improve their manufacturing processes. Overall, this paper contributes to developing a human-centric approach to quality monitoring in the context of human-robot collaborative manufacturing.
制造业目前面临着对定制产品日益增长的需求,导致从大规模生产转向大规模定制。因此,运营商需要生产多种复杂程度不同的产品变体,同时保持高质量的标准。此外,根据以人为中心的Industry 5.0范式,确保工人的福祉与生产质量同等重要。本文提出了一种新的工具,即“人机协作质量和幸福感评估工具”(HRC-QWAT),该工具将对产品变体制造过程中产生的整体缺陷的分析与对人类幸福感的压力反应评估相结合。HRC-QWAT能够从更广泛的角度评估和监控产品变体生产过程中的人机协作系统。以人机协同装配为例,验证了该方法的适用性。研究结果表明,HRC-QWAT可以评估生产质量和人类福祉,为企业监控和改进生产流程提供了有用的工具。总之,本文有助于在人机协同制造的背景下开发一种以人为中心的质量监控方法。
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引用次数: 0
PHYSICS-GUIDED LONG SHORT-TERM MEMORY NETWORKS FOR EMISSION PREDICTION IN LASER POWDER BED FUSION 用于激光粉末床聚变发射预测的物理引导长短期记忆网络
IF 4 3区 工程技术 Q1 Engineering Pub Date : 2023-08-29 DOI: 10.1115/1.4063270
Rong Lei, Y.B. Guo, W. Guo
Powder Bed Fusion (PBF) is an additive manufacturing process in which laser heat liquefies blown powder particles on top of a powder bed, and cooling solidifies the melted powder particles. During this process, the laser beam heat interacts with the powder causing thermal emission and affecting the melt pool. This paper aims to predict heat emission in PBF by harnessing the strengths of recurrent neural networks. Long Short-Term Memory (LSTM) networks are developed to learn from sequential data (emission readings), while the learning is guided by process physics including laser power, laser speed, layer number, and scanning patterns. To reduce the computational efforts on model training, the LSTM models are integrated with a new approach for down-sampling the pyrometry raw data and extracting useful statistical features from raw data. The structure and hyperparameters of the LSTM model reflect several iterations of tuning based on the training on the pyrometer readings data. Results reveal useful knowledge on how raw pyrometer data should be processed to work the best with LSTM, how physics features are informative in predicting overheating, and the effectiveness of physics-guided LSTM in emission prediction.
粉末床融合(PBF)是一种增材制造工艺,在该工艺中,激光加热使粉末床顶部吹出的粉末颗粒液化,冷却使熔化的粉末颗粒固化。在此过程中,激光束热量与粉末相互作用,导致热发射并影响熔池。本文旨在利用递归神经网络的优势来预测PBF中的热排放。长短期记忆(LSTM)网络是为了从顺序数据(发射读数)中学习而开发的,而学习是由过程物理指导的,包括激光功率、激光速度、层数和扫描模式。为了减少模型训练的计算工作量,LSTM模型与一种新方法集成,用于对高温计原始数据进行下采样,并从原始数据中提取有用的统计特征。LSTM模型的结构和超参数反映了基于高温计读数数据训练的几次调整迭代。结果揭示了关于如何处理原始高温计数据以使LSTM最佳工作的有用知识,物理特征如何在预测过热时提供信息,以及物理引导的LSTM在排放预测中的有效性。
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引用次数: 1
Strategic Production Process Design with Additive Manufacturing in a Make-to-stock Environment 库存环境下的增材制造战略生产工艺设计
IF 4 3区 工程技术 Q1 Engineering Pub Date : 2023-08-29 DOI: 10.1115/1.4063285
P. C. Chua, S. K. Moon, Y. Ng, Manel Lopez
With the development and gradual maturity of additive manufacturing (AM) over the years, AM has reached a stage where implementation into a conventional production system becomes possible. With AM suitable for small volume of highly customized production, there are various ways of implementing AM in a conventional production line. The aim of this paper is to present a strategic design approach of implementing AM with conventional manufacturing in a complementary manner for parallel processing of production orders of large quantities in a make-to-stock environment. By assuming that a single machine in conventional manufacturing can be operated using AM, splitting of production orders is allowed. Therefore production can be conducted by both conventional and AM processes simultaneously, with the latter being able to produce various make-to-stock parts in a single build. A generic algorithm with a scheduling and rule-based heuristic for part allocation on build plate of AM process is used to solve a multi-objective implementation problem of AM with conventional manufacturing, with cost, scheduling and sustainability being the considered performance measures. By obtaining a knee-point solution using varying numbers of population size and generation number, an experiment involving an industry case study of implementing fused deposition modelling (FDM) process with injection moulding process shows the greatest impact, i.e., increase, in cost. Except for material efficiency, improvements are shown in scheduling and carbon footprint objectives.
随着多年来增材制造(AM)的发展和逐渐成熟,AM已经到了可以在传统生产系统中实施的阶段。AM适用于小批量、高度定制的生产,在传统生产线中有多种实现AM的方法。本文的目的是提出一种战略设计方法,以互补的方式将AM与传统制造业结合起来,在按库存生产的环境中并行处理大量生产订单。通过假设传统制造中的一台机器可以使用AM进行操作,可以拆分生产订单。因此,生产可以同时通过传统工艺和AM工艺进行,后者能够在一个构建中生产各种按库存生产的零件。将一种具有调度和基于规则的启发式算法用于AM工艺构建板上的零件分配,以解决传统制造中AM的多目标实现问题,并将成本、调度和可持续性作为性能指标。通过使用不同数量的群体规模和世代数量获得拐点解,一项涉及用注塑工艺实施熔融沉积建模(FDM)工艺的行业案例研究的实验显示出成本的最大影响,即增加。除了材料效率外,进度安排和碳足迹目标也有所改善。
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引用次数: 0
Data Augmentation-based Manufacturing Quality Prediction Approach in Human Cyber-Physical Systems 基于数据增强的人类网络物理系统制造质量预测方法
IF 4 3区 工程技术 Q1 Engineering Pub Date : 2023-08-29 DOI: 10.1115/1.4063269
Tianyue Wang, Bingtao Hu, Yixiong Feng, Xiaoxie Gao, Chen Yang, Jianrong Tan
The vigorous development of the human cyber-physical system (HCPS) and the next generation of artificial intelligence provide new ideas for smart manufacturing, where manufacturing quality prediction is an important issue in the manufacturing system. However, the small-scale data from humans in emerging HCPS-enabled manufacturing restricts the development of traditional quality prediction methods. To address this question, a data augmentation-based manufacturing quality prediction approach in human cyber-physical systems is proposed in this paper. Specifically, a Data Augmentation-Gradient Boosting Decision Tree (DA-GBDT) model is developed for quality prediction under the HCPS context. In addition, an adaptive selection algorithm of data augmentation rate is designed to balance the trade-off between the training time of the prediction model and the prediction accuracy. Finally, the experimental results of automobile covering products demonstrate that the proposed method can improve the average prediction error of the model compared with the prevailing quality prediction methods. Moreover, the predicted quality information can provide guidance for product optimization decisions in smart manufacturing systems.
人类信息物理系统(HCPS)和下一代人工智能的蓬勃发展为智能制造提供了新的思路,其中制造质量预测是制造系统中的一个重要问题。然而,在新兴的hcps制造中,来自人类的小规模数据限制了传统质量预测方法的发展。为了解决这一问题,本文提出了一种基于数据增强的人类信息物理系统制造质量预测方法。针对HCPS环境下的质量预测,提出了一种数据增强-梯度增强决策树(DA-GBDT)模型。此外,设计了一种数据增强率的自适应选择算法,以平衡预测模型的训练时间和预测精度之间的权衡。最后,对汽车覆盖件产品的实验结果表明,与现有的质量预测方法相比,该方法可以提高模型的平均预测误差。此外,预测的质量信息可以为智能制造系统中的产品优化决策提供指导。
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引用次数: 0
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Journal of Manufacturing Science and Engineering-transactions of The Asme
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