... within this integration is the Automatic Feature Recognition (AFR) of CAD models, especially in the context of hybrid manufacturing that combines subtractive and additive manufacturing processes. Traditional AFR methods, focused mainly on the identification of subtractive (machined) features including...

... from the MSO method are compared to benchmark designs of equal-sized unit cells, it achieves an average heat transfer rate that is 16% higher while satisfying volume, stress, and deformation constraints. lattice support structure additive manufacturing design optimization geometric modeling...

... Abstract Additive manufacturing techniques, particularly Fused Deposition Modeling have been extensively used in various industries due to their advantages in part design and flexibility over the conventional subtractive manufacturing processes. The process parameters play a crucial role in FDM...

... Abstract Additive manufacturing (AM) has been evolving from rapid prototyping towards applications in high-volume production and mass manufacturing. However, achieving consistent quality and meeting industry standards remains a challenge that hinders AM industrialization. While most traditional...

... cooperatively and aims to tackle key challenges in the additive manufacturing industry, such as trade-offs among size, speed, quality, and cost. A fundamental challenge in C3DP is how to achieve collision-free, time-efficient printing when multiple printers operate in a shared workspace. This is a complex...

... Abstract This paper addresses the growing interest in design for sustainable manufacturing, focusing particularly on Additive Manufacturing (AM). While AM offers advantages like customized geometries and reduced material usage, there’s a need to address energy consumption in 3D printing beyond...

... Abstract Metal additive manufacturing machines are complex and inherently digital and often cyber-physical systems. As the adoption of this manufacturing technology increases and it becomes increasingly industrialized, concerns about security are evermore prevalent. Both cyber and non-cyber...

... Abstract Recent advances in Additive Manufacturing (AM), particularly in production scenarios, have been largely driven by insights achieved through data analytics. AM has greatly benefited from the increasingly large amounts of data generated during the design to product transformation...

... Abstract In Additive Manufacturing (AM), it is still a major challenge to manage part quality, which is heavily influenced by feedstock materials, process settings, and in-process control. Deviations in these factors can lead to defects in the final product, particularly in Laser-Powder Bed...

... Abstract Machine learning (ML)-based monitoring systems have been extensively developed to enhance the print quality of additive manufacturing (AM). In-situ and in-process data acquired using sensors can be used to train ML models that detect process anomalies, predict part quality, and adjust...

... Abstract Additive manufacturing (AM) process stability is critical for ensuring part quality. Model Predictive Control (MPC) has been widely recognized as a robust technology for controlling manufacturing processes across various industries. Despite its widespread use, there has been limited...

... Abstract Widespread adoption of additive manufacturing (AM) is hindered by challenges in achieving part quality using metrics such as geometry accuracy and porosity. These metrics are affected by the microstructure and mechanical properties of fabricated parts which can be controlled...

... Abstract Solving problems with additive manufacturing (AM) often means fabricating geometrically complex designs, layer-by-layer, along one or multiple directions. Designers navigate this 3D spatial complexity to determine the best design and manufacturing solutions to produce functional parts...

... Abstract Additive manufacturing (AM) is an emerging technology capable of producing intricate designs. Despite the advantages that AM affords, such as geometric complexity and material reduction, designers often leverage simple geometries and standard components instead. These design decisions...

... Abstract The introduction of additive manufacturing (AM) into modern production environments has provided new capabilities; however, these capabilities have disrupted manufacturing cells. The disruption of manufacturing through the addition of AM processes provides an opportunity to model...

... Abstract Additive manufacturing (AM) is a technology that has improved manufacturing capabilities in a huge variety of industries, as well as increasing rapid prototyping capabilities. Fused filament fabrication (FFF) is one of these technologies, that has seen use in both industry and lab...

... that sequence. Statistical results are presented to summarize the benefits of 3D printing en route across different scenarios. additive manufacturing unmanned aircraft systems 3D printing constrained optimization traveling salesman problem apollonius circles Proceedings of the ASME 2024...

... Abstract Sustainable manufacturing systems must have sufficient throughput to meet demand, be cost-effective, and have an acceptably low environmental impact. For additive manufacturing by laser powder bed fusion (LPBF), part designers and process engineers must understand the underlying...

... or through applying the framework presented here with their own 3D printer or material, designers can more effectively use 3D printing to design and rapidly prototype compliant mechanisms and origami-inspired mechanisms. 3D printing additive manufacturing compliant mechanisms origami Proceedings...

... Abstract Micro- to nano-scale additive manufacturing has enabled the realization of 3D microstructures at sub-micron resolution for complex miniaturized optical and mechanical systems. There is a growing demand for integrable technologies and miniaturization in applications from biomedical...