The surface morphology of biomaterials is one of the most important biocompatibility factors. In this paper, the change in surface morphology of selective laser-melted titanium with process parameters was investigated to control the pore structure and mesh size. First, the process map which shows the relation between the morphology of laser-melted track and the process parameters such as laser power and scan speed was drawn by experiments. The laser-melted layer was fabricated on the basis of the process map. As a result, the surface morphology, especially pore structure and mesh size, of the layer is affected strongly by energy density as well as scan spacing.Mechanical Engineerin
The influence of laser processing parameters on mechanical properties and microstructure of pure ti...
Selective laser melting (SLM) has been shown to be an attractive manufacturing route for the product...
Generally, materials with high biocompatibility are more appropriate for bone and tissue trans-plant...
The surface morphology of biomaterials is one of the most important biocompatibility factors. In th...
The quality and mechanical properties of titanium alloy fabricated using selective laser melting (SL...
Sintering Laser Melting is recently used for manufacturing industry to produce biomedical parts. The...
Technological parameters included in energy density (ED) are the more powerful tools in selective la...
Laser Metal Deposition (LMD) is an additive manufacturing technique that produces parts layer by lay...
The surface properties of implant are responsible to provide mechanical stability by creating an int...
Laser processing technology can produce various types of surface textures on material. In order to i...
Three different microstructures with line pattern, grid pattern, and spot pattern were fabricated on...
AbstractSelective laser melting (SLM) is a promising technique for the production of biometallic sca...
Selective laser melting (SLM) is a promising technique capable of rapidly fabricating customized imp...
Titanium (Ti) based materials are deemed one type of the best metallic materials for biomedical appl...
Construction of metallic implants with a porous structure that mimics the biomechanical properties o...
The influence of laser processing parameters on mechanical properties and microstructure of pure ti...
Selective laser melting (SLM) has been shown to be an attractive manufacturing route for the product...
Generally, materials with high biocompatibility are more appropriate for bone and tissue trans-plant...
The surface morphology of biomaterials is one of the most important biocompatibility factors. In th...
The quality and mechanical properties of titanium alloy fabricated using selective laser melting (SL...
Sintering Laser Melting is recently used for manufacturing industry to produce biomedical parts. The...
Technological parameters included in energy density (ED) are the more powerful tools in selective la...
Laser Metal Deposition (LMD) is an additive manufacturing technique that produces parts layer by lay...
The surface properties of implant are responsible to provide mechanical stability by creating an int...
Laser processing technology can produce various types of surface textures on material. In order to i...
Three different microstructures with line pattern, grid pattern, and spot pattern were fabricated on...
AbstractSelective laser melting (SLM) is a promising technique for the production of biometallic sca...
Selective laser melting (SLM) is a promising technique capable of rapidly fabricating customized imp...
Titanium (Ti) based materials are deemed one type of the best metallic materials for biomedical appl...
Construction of metallic implants with a porous structure that mimics the biomechanical properties o...
The influence of laser processing parameters on mechanical properties and microstructure of pure ti...
Selective laser melting (SLM) has been shown to be an attractive manufacturing route for the product...
Generally, materials with high biocompatibility are more appropriate for bone and tissue trans-plant...