People | Locations | Statistics |
---|---|---|
Naji, M. |
| |
Motta, Antonella |
| |
Aletan, Dirar |
| |
Mohamed, Tarek |
| |
Ertürk, Emre |
| |
Taccardi, Nicola |
| |
Kononenko, Denys |
| |
Petrov, R. H. | Madrid |
|
Alshaaer, Mazen | Brussels |
|
Bih, L. |
| |
Casati, R. |
| |
Muller, Hermance |
| |
Kočí, Jan | Prague |
|
Šuljagić, Marija |
| |
Kalteremidou, Kalliopi-Artemi | Brussels |
|
Azam, Siraj |
| |
Ospanova, Alyiya |
| |
Blanpain, Bart |
| |
Ali, M. A. |
| |
Popa, V. |
| |
Rančić, M. |
| |
Ollier, Nadège |
| |
Azevedo, Nuno Monteiro |
| |
Landes, Michael |
| |
Rignanese, Gian-Marco |
|
Duarte, Valdemar R.
Universidade Nova de Lisboa
in Cooperation with on an Cooperation-Score of 37%
Topics
Publications (24/24 displayed)
- 2024High-performance Ni-based superalloy 718 fabricated via arc plasma directed energy deposition ; effect of post-deposition heat treatments on microstructure and mechanical propertiescitations
- 2024High-strength low-alloy steel fabricated by in situ interlayer hot forging arc-based directed energy deposition assisted with direct cooling ; Microstructural and mechanical properties evaluationcitations
- 2024High-performance Ni-based superalloy 718 fabricated via arc plasma directed energy depositioncitations
- 2024Enhancing manufacturing and post-processing properties of WAAM ER110 HSLA steel ; in situ hot forging + post-deposited heat treatment effects on surface quality and specific cutting energycitations
- 2023In situ interlayer hot forging arc-based directed energy deposition of Inconel® 625citations
- 2023In situ interlayer hot forging arc plasma directed energy deposition of Inconel® 625citations
- 2023In situ interlayer hot forging arc-based directed energy deposition of Inconel® 625 ; process development and microstructure effectscitations
- 2023In situ interlayer hot forging arc-based directed energy deposition of Inconel® 625: process development and microstructure effectscitations
- 2023In situ interlayer hot forging arc plasma directed energy deposition of Inconel® 625: microstructure evolution during heat treatmentscitations
- 2023In situ interlayer hot forging arc plasma directed energy deposition of Inconel® 625 ; microstructure evolution during heat treatmentscitations
- 2022In-situ hot forging direct energy deposition-arc of CuAl8 alloycitations
- 2022In-situ hot forging directed energy deposition-arc of CuAl8 alloycitations
- 2021Wire and Arc Additive Manufacturing of High-Strength Low-Alloy Steelcitations
- 2021Benchmarking of Nondestructive Testing for Additive Manufacturingcitations
- 2021Effect of heat treatments on 316 stainless steel parts fabricated by wire and arc additive manufacturing : Microstructure and synchrotron X-ray diffraction analysiscitations
- 2021Wire and Arc Additive Manufacturing of High‐Strength Low‐Alloy Steel: Microstructure and Mechanical Propertiescitations
- 2021Effect of heat treatments on 316 stainless steel parts fabricated by wire and arc additive manufacturing: Microstructure and synchrotron X-ray diffraction analysiscitations
- 2020In-situ strengthening of a high strength low alloy steel during Wire and Arc Additive Manufacturing (WAAM)citations
- 2020Influence of processing parameters on the density of 316L stainless steel parts manufactured through laser powder bed fusioncitations
- 2020Hot forging wire and arc additive manufacturing (HF-WAAM)citations
- 2020Effect of milling parameters on HSLA steel parts produced by Wire and Arc Additive Manufacturing (WAAM)citations
- 2019Wire and arc additive manufacturing of HSLA steel: Effect of thermal cycles on microstructure and mechanical propertiescitations
- 2019Large-dimension metal parts produced through laser powder bed fusion
- 2019Current Status and Perspectives on Wire and Arc Additive Manufacturing (WAAM)citations
Places of action
Organizations | Location | People |
---|
article
Wire and Arc Additive Manufacturing of High-Strength Low-Alloy Steel
Abstract
<p>Wire and arc additive manufacturing of high-strength low-alloy steel is performed. The microstructures and mechanical properties of the samples are investigated and correlated with the process heat input. Continuous and pulsed wave welding modes are studied and added material efficiencies are determined. The microstructural characterization and microhardness test reveal that the heat input effect is more impactful when parts are produced with pulsed wave mode. Microstrain evolution and phase fraction are evaluated via synchrotron X-ray diffraction. A higher percentage of austenite in the samples built with higher heat input is determined. Uniaxial tensile testing results show that it is possible to improve ductility and mechanical strength by varying the process parameters.</p>