This paper provides new insights into the fatigue properties of porous metallic biomaterials produced by additive manufacturing. Cylindrical porous samples with diamond unit cells were produced from Ti6Al4V powder using Selective Laser Melting (SLM). After measuring all morphological and quasi-static properties, compression-compression fatigue tests were performed to determine fatigue strength and to identify important fatigue influencing factors. In a next step, post-SLM treatments were used to improve the fatigue life of these biomaterials by changing the microstructure and by reducing stress concentrators and surface roughness. In particular, the influence of stress relieving, hot isostatic pressing and chemical etching was studied. Anal...
Porous biomaterials that simultaneously mimic the topological, mechanical, and mass transport proper...
Additive manufacturing (AM) techniques enable fabrication of bone-mimicking meta-biomaterials with u...
Additive manufacturing (AM) techniques enable fabrication of bone-mimicking meta-biomaterials with u...
The mechanical behavior of additively manufactured porous biomaterials has recently received increas...
Meta-materials are structures when their small-scale properties are considered, but behave as materi...
Meta-biomaterials are porous biomaterials created by additive manufacturing techniques such as Selec...
Selective laser melting (SLM) is a novel technique being increasingly used for the production of por...
Bio-functionalizing surface treatments are often applied for improving the bioactivity of biomateria...
Additively manufactured (AM) porous metallic biomaterials are considered promising candidates for bo...
Additive manufactured (AM) porous materials behave quantitatively and qualitatively differently in f...
Abstract3D printing is an advanced manufacturing technology for producing metal components, and tita...
Traditional implants made of bulk titanium are much stiffer than human bone and this mismatch can in...
This work is focused on the influence of porosity when dealing with the fatigue behaviour of the TA6...
Additive manufacturing (AM) is a state of the art technology enabling fabrication of complex geometr...
Total fatigue life performance of high strength titanium alloy Ti-6Al-4V manufactured by Additive Ma...
Porous biomaterials that simultaneously mimic the topological, mechanical, and mass transport proper...
Additive manufacturing (AM) techniques enable fabrication of bone-mimicking meta-biomaterials with u...
Additive manufacturing (AM) techniques enable fabrication of bone-mimicking meta-biomaterials with u...
The mechanical behavior of additively manufactured porous biomaterials has recently received increas...
Meta-materials are structures when their small-scale properties are considered, but behave as materi...
Meta-biomaterials are porous biomaterials created by additive manufacturing techniques such as Selec...
Selective laser melting (SLM) is a novel technique being increasingly used for the production of por...
Bio-functionalizing surface treatments are often applied for improving the bioactivity of biomateria...
Additively manufactured (AM) porous metallic biomaterials are considered promising candidates for bo...
Additive manufactured (AM) porous materials behave quantitatively and qualitatively differently in f...
Abstract3D printing is an advanced manufacturing technology for producing metal components, and tita...
Traditional implants made of bulk titanium are much stiffer than human bone and this mismatch can in...
This work is focused on the influence of porosity when dealing with the fatigue behaviour of the TA6...
Additive manufacturing (AM) is a state of the art technology enabling fabrication of complex geometr...
Total fatigue life performance of high strength titanium alloy Ti-6Al-4V manufactured by Additive Ma...
Porous biomaterials that simultaneously mimic the topological, mechanical, and mass transport proper...
Additive manufacturing (AM) techniques enable fabrication of bone-mimicking meta-biomaterials with u...
Additive manufacturing (AM) techniques enable fabrication of bone-mimicking meta-biomaterials with u...