Excellent Compression Strength and Energy Absorption of Additively Manufactured Porous Titanium with Trapezo-Rhombic Dodecahedron Cell

[1]  A. Karmakar,et al.  Biomedical Porous Scaffold Fabrication Using Additive Manufacturing Technique: Porosity, Surface Roughness and Process Parameters Optimization , 2022, International Journal of Lightweight Materials and Manufacture.

[2]  C. Bellini,et al.  Titanium lattice structures manufactured by EBM process: effect of skin material on bending characteristics , 2021, Engineering Fracture Mechanics.

[3]  Shiyue Guo,et al.  Anisotropic Compression Behavior of Additively Manufactured Porous Titanium with Ordered Open-Cell Structures at Different Temperatures , 2021, MATERIALS TRANSACTIONS.

[4]  Tatsuya Matsumi,et al.  Fabrication of Ti-Alloy Powder/Solid Composite with Uniaxial Anisotropy by Introducing Unidirectional Honeycomb Structure via Electron Beam Powder Bed Fusion , 2021, Crystals.

[5]  J. Pagkalos,et al.  Additive manufacturing of porous titanium metaphyseal components: Early osseointegration and implant stability in revision knee arthroplasty. , 2020, Journal of clinical orthopaedics and trauma.

[6]  N. Takata,et al.  Compressive Properties of Al-Si Alloy Lattice Structures with Three Different Unit Cells Fabricated via Laser Powder Bed Fusion , 2020, Materials.

[7]  Yanpeng Wei,et al.  Damping behaviors of steel-based Kelvin lattice structures fabricated by indirect additive manufacture combining investment casting , 2020, Smart Materials and Structures.

[8]  Ajeet Kumar,et al.  A state-of-the-art review on types, design, optimization, and additive manufacturing of cellular structures , 2019, The International Journal of Advanced Manufacturing Technology.

[9]  H. Fukazawa,et al.  Effect of Post Heat Treatment on the Mechanical Properties of Porous Ti–6Al–4V Alloys Manufactured through Powder Bed Fusion Process , 2019, MATERIALS TRANSACTIONS.

[10]  Jun Liang,et al.  Mechanical properties of an improved 3D-printed rhombic dodecahedron stainless steel lattice structure of variable cross section , 2018, International Journal of Mechanical Sciences.

[11]  Lai‐Chang Zhang,et al.  Early plastic deformation behaviour and energy absorption in porous β-type biomedical titanium produced by selective laser melting , 2018, Scripta Materialia.

[12]  Weidong Song,et al.  Additively-manufactured functionally graded Ti-6Al-4V lattice structures with high strength under static and dynamic loading: Experiments , 2018 .

[13]  A. Yánez,et al.  Influence of load orientation and of types of loads on the mechanical properties of porous Ti6Al4V biomaterials , 2017 .

[14]  K. Kitazono,et al.  Compressive Behavior of Open-Cell Titanium Foams with Different Unit Cell Geometries , 2017 .

[15]  Wei Wang,et al.  Compressive and fatigue behavior of beta-type titanium porous structures fabricated by electron beam melting , 2017 .

[16]  Xin-hua Liu,et al.  Energy Absorption and Deformation Mechanism of Lotus-type Porous Coppers in Perpendicular Direction , 2017 .

[17]  R. Bader,et al.  Specific Yielding of Selective Laser-Melted Ti6Al4V Open-Porous Scaffolds as a Function of Unit Cell Design and Dimensions , 2016 .

[18]  Feng Xiao,et al.  Geometry models of porous media based on Voronoi tessellations and their porosity-permeability relations , 2016, Comput. Math. Appl..

[19]  R. Misra,et al.  The influence of cell morphology on the compressive fatigue behavior of Ti-6Al-4V meshes fabricated by electron beam melting. , 2016, Journal of the mechanical behavior of biomedical materials.

[20]  J Kadkhodapour,et al.  Numerical simulation of the fatigue behavior of additive manufactured titanium porous lattice structures. , 2016, Materials science & engineering. C, Materials for biological applications.

[21]  A. Chiba,et al.  Preparation of weak-textured commercially pure titanium by electron beam melting , 2015 .

[22]  Hui-ping Tang,et al.  Mechanical behavior of open-cell rhombic dodecahedron Ti–6Al–4V lattice structure , 2015 .

[23]  Suchao Xie,et al.  Analysis and optimisation of parameters influencing the out-of-plane energy absorption of an aluminium honeycomb , 2015 .

[24]  L. Murr,et al.  Influence of cell shape on mechanical properties of Ti-6Al-4V meshes fabricated by electron beam melting method. , 2014, Acta biomaterialia.

[25]  Radovan Kovacevic,et al.  The bio-compatible dental implant designed by using non-stochastic porosity produced by Electron Beam Melting® (EBM) , 2014 .

[26]  Hui Zhang,et al.  Experimental and numerical studies on the crush resistance of aluminum honeycombs with various cell configurations , 2014 .

[27]  Ming-Chuan Leu,et al.  Additive manufacturing: technology, applications and research needs , 2013, Frontiers of Mechanical Engineering.

[28]  Ruben Gatt,et al.  Three-dimensional cellular structures with negative Poisson's ratio and negative compressibility properties , 2012, Proceedings of the Royal Society A: Mathematical, Physical and Engineering Sciences.

[29]  R. V. Galiulin.  To the 150th anniversary of the birth of Evgraf Stepanovich Fedorov (1853–1919) Irregularities in the fate of the theory of regularity , 2003 .

[30]  J. Banhart.  Manufacture, characterisation and application of cellular metals and metal foams , 2001 .

[31]  Jeom Kee Paik,et al.  The strength characteristics of aluminum honeycomb sandwich panels , 1999 .

[32]  Michael F. Ashby,et al.  Multifunctionality of cellular metal systems , 1998 .

[33]  John Banhart,et al.  Aluminium foams for transport industry , 1997 .

[34]  Michael F. Ashby,et al.  The mechanical properties of cellular solids , 1983 .

[35]  M. Ashby,et al.  The mechanics of two-dimensional cellular materials , 1982, Proceedings of the Royal Society of London. A. Mathematical and Physical Sciences.

[36]  S. Andersson,et al.  The elongated rhombic dodecahedron in alloy structures , 1979 .