Results 11 to 20 of about 4,370,373 (150)

High-strength light-weight aramid fibre/polyamide 12 composites printed by Multi Jet Fusion

Virtual and Physical Prototyping, 2022
Multi Jet Fusion (MJF) is a fast-growing powder bed fusion(PBF) additive manufacturing technique which features low production costs and high production speeds.
Jiayao Chen, Pengfei Tan, Xiaojiang Liu, Wei Shian Tey, Adrian Ong, Lihua Zhao, Kun Zhou   +6 more
doaj   +2 more sources

A detailed evaluation of surface, thermal, and flammable properties of polyamide 12/glass beads composites fabricated by multi jet fusion

Virtual and Physical Prototyping, 2021
Multi jet fusion (MJF) is an emerging powder three-dimensional (3D) printing technology with an ultrafast printing speed, in which polyamide 12 (PA12) is the main material currently utilised.
Binbin Guo, Zhiyao Xu, Xue Luo, Jiaming Bai   +3 more
doaj   +2 more sources

Method to Balance Thermals for Multi-functional 3D MJF Printing [PDF]

, 2023
HP’s Multi Jet Fusion (MJF) is a powder-based additive manufacturing technology that selectively melts polymer powder, in a layer-by-layer fashion to create 3D parts.
Hartman, Aja, Zhao, Lihua
core   +1 more source

Multi Jet Fusion of surface-modified ZnO nanorod–reinforced PA12 nanocomposites

Virtual and Physical Prototyping, 2023
Metal oxide nanorods exhibit promising potential as reinforcement fillers in various polymer matrices, but their application in the Multi Jet Fusion (MJF) technique is rarely reported.
Ran An, Yanbei Hou, Pengfei Tan, Mei Chen, Lihua Zhao, Kun Zhou   +5 more
doaj   +1 more source

Influence of Antibacterial Coating and Mechanical and Chemical Treatment on the Surface Properties of PA12 Parts Manufactured with SLS and MJF Techniques in the Context of Medical Applications [PDF]

Materials, 2023
Anna Bazán, Paweł Turek, Andrzej Zakręcki   +2 more
exaly   +2 more sources

Preparation of iron oxide–coated aramid fibres for improving the mechanical performance and flame retardancy of multi jet fusion–printed polyamide 12 composites

Virtual and Physical Prototyping, 2023
Multi jet fusion (MJF), a powder-based additive manufacturing technology, is suitable for fabricating fibre-reinforced polymer composites. However, the types of reinforcement fibres applied in MJF are limited due to the incompatibility between the fibres
Yanbei Hou, Ming Gao, Jiayao Chen, Wei Shian Tey, Mei Chen, Han Zheng, Boyuan Li, Lihua Zhao, Kun Zhou   +8 more
doaj   +1 more source

Experimental Characterisation and Finite Element Modelling of Polyamide-12 Fabricated via Multi Jet Fusion. [PDF]

Polymers (Basel), 2022
The HP Multi Jet Fusion (MJF) technology is a relatively recent addition to powder bed fusion additive manufacturing (AM) techniques. It differentiates itself from selective laser sintering (SLS) technology through the use of fusing and detailing agents ...
Lee KPM, Kajtaz M.
europepmc   +2 more sources

Effect of the fibre length on the mechanical anisotropy of glass fibre–reinforced polymer composites printed by Multi Jet Fusion

Virtual and Physical Prototyping, 2022
Mechanical anisotropy greatly influences the applications of materials printed by additive manufacturing techniques such as Multi Jet Fusion (MJF) and selective laser sintering.
Xiaojiang Liu, Wei Shian Tey, Pengfei Tan, Kah Kit Leong, Jiayao Chen, Yujia Tian, Adrian Ong, Lihua Zhao, Kun Zhou   +8 more
doaj   +1 more source

Predictive multi-channel flux-driven modelling to optimise ICRH tungsten control and fusion performance in JET [PDF]

, 2020
The evolution of the JET high performance hybrid scenario, including central accumulation of the tungsten (W) impurity, is reproduced with predictive multi-channel integrated modelling over multiple confinement times using first-principle based core ...
Ficker, O., Graves, J. P., Koechl, F.,, Valisa, M.,, Graves, J. P.,, Casson, F. J., Mylnar, J.,, Garzotti, L.,, Challis, C. D.,, Jonsson, Thomas,, Bilato, R.,, JET Contributors, Kirov, K.,, Graves, J.P., Casson, F., Knight, P.J., Knight, P.,, Jet, Contributors, Angioni, C.,, Knight, P., Corrigan, G., Sertoli, M.,, Mylnar, J., Patten, H., Johnson, T., Baranov, Y., Challis, C., Angioni, C., Czarnecka, A.,, Angioni, C. ; https://orcid.org/, Garzotti, L., Challis, C.D., Kirov, K., Lerche, E., Challis, C. D., Casson, F. J.,, Czarnecka, A., Frassinetti, L., Patten, H.,, Koechl, F., Graves, J., Bourdelle, C., Casson, F.J., Mantsinen, M.,, Goniche, M., Contributors, JET, Belli, E., Lerche, E.,, Belli, E. A., Breton, S.,, Citrin, J., Frassinetti, Lorenzo,, Citrin, J.,, Corrigan, G.,, Sertoli, M., Breton, S., Knight, P. J., Belli, E. A.,, Ficker, O.,, Bilato, R., Bourdelle, C.,, Goniche, M.,, Mantsinen, M., Valisa, M., Baranov, Y.,   +64 more
core   +1 more source

Computational modelling of the HyperVapotron cooling technique for nuclear fusion applications [PDF]

, 2010
Efficient heat transfer technologies are essential for magnetically confined fusion reactors; this applies to both the current generation of experimental reactors as well as future power plants.
Milnes, Joseph
core   +7 more sources