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No part of this publication may be reproduced or transmitted in any form or by any means, electronic or mechanical, including photocopying, recording, or any information storage and retrieval system, without permission in writing from the publisher. Keck Center for 3D Innovation, University of Texas at El Paso, El Paso, TX, United StatesĮlsevier Radarweg 29, PO Box 211, 1000 AE Amsterdam, Netherlands The Boulevard, Langford Lane, Kidlington, Oxford OX5 1GB, United Kingdom 50 Hampshire Street, 5th Floor, Cambridge, MA 02139, United States Copyright © 2021 Elsevier Inc. Ina Yadroitsava Department of Mechanical and Mechatronic Engineering, Central University of Technology, Bloemfontein, Free State, South AfricaĪnton Du Plessis Department of Mechanical Engineering, Nelson Mandela University, Port Elizabeth, Eastern Cape, South Africa Research Group 3D Innovation, Stellenbosch University, Stellenbosch, Western Cape, South AfricaĮric MacDonald W. Igor Yadroitsev Department of Mechanical and Mechatronic Engineering, Central University of Technology, Bloemfontein, Free State, South Africa

Multiscale Modeling of Additively Manufactured Metals, Zhang, Jung and Zhang, 9780128196007Īdditive Manufacturing Materials and Technologiesįundamentals of Laser Powder Bed Fusion of Metals Edited by.

Design for Additive Manufacturing, Martin Leary, 9780128167212.

Science, Technology and Applications of Metals in Additive Manufacturing, Datta, Babu & Jared, 9780128166345.

Current state and future trends in laser powder bed fusion technologyĪdditive Manufacturing Materials and Technologies Series Edited by Ma Qian

Economic feasibility and cost-benefit analysisĢ3. Recent progress on global standarizationĢ2. Powder characterization-methods, standards, and state of the artġ8.5 Thermal, mechanical, and humidity propertiesġ8.5.2 Application of thermal, mechanical, and humidity measurements in additive manufacturingĢ0. Lattice structures made by laser powder bed fusionġ7.2.1 Simulation-driven biomimetic designġ8. Structural integrity III: energy-based fatigue prediction for complex partsġ5.3 Theoretical framework for strain energy density approachġ5.4 Energy-based fatigue prediction of complex AM componentsġ6. Structural integrity II: fatigue propertiesġ5. Structural integrity I: static mechanical propertiesġ3.3 Mechanical properties of key L-PBF materials in as-built conditionġ3.3.2 Mechanical properties of titanium-based alloysġ4. Process monitoring of laser powder bed fusionġ1.2 Machine and chamber condition monitoringġ3. Non-destructive testing of parts produced by laser powder bed fusionġ0.2.10 Process compensated resonance testing (PCRT)ġ1. Residual stress in laser powder bed fusionĩ.4 Modeling of L-PBF process and residual stress evolutionĩ.6.3 Scanning strategy and in situ residual stress controlġ0. A step-by-step guide to the L-PBF processģ.2.1 Melt-pool dynamics and track formationĥ.7.2 Resolution restriction-how much data is enough?ĥ.11 Uncertainty quantification for L-PBF designĥ.11.3 Uncertainty quantification methodsĥ.12 Emerging opportunities for L-PBF design outcomesĦ.4 Pore formation mechanisms and porosity typesħ.2 The underlying reasons for L-PBF surface roughnessħ.2.1 Surface morphology-stair-step phenomenaħ.2.4 Surface morphology-influence of recoil pressureħ.2.5 Surface morphology- influence of surface orientation on residual attached particlesħ.2.6 Surface morphology-variation in roughness with solidified tracks and track overlapħ.5 Surface roughness and texture parametersĨ.3 Microstructure of L-PBF materials that do not have solid-state transformation upon coolingĨ.5 Thermal cycling in L-PBF materials during manufacturingĨ.7 Effect of post heat treatment on microstructure of key L-PBF materialsĩ.

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