3D ink-extrusion printing and sintering of Ti, Ti-TiB and Ti-TiC microlattices

[1]  S. Carmignato,et al.  The effect of strut size on microstructure and compressive strength of porous Ti6Al4V lattices printed via Direct Ink Writing , 2020, Materials Science and Engineering: A.

[2]  Xuan Zhang,et al.  Design, Fabrication, and Mechanics of 3D Micro-/Nanolattices. , 2020, Small.

[3]  H. Danninger,et al.  Ti–TiB2 composites consolidated by spark plasma sintering: Reaction mechanism, characteristics of in-situ formed phases and densification behavior , 2020 .

[4]  Seyed Ali Delbari,et al.  Characterization of triplet Ti–TiB–TiC composites: Comparison of in-situ formation and ex-situ addition of TiC , 2020, Ceramics International.

[5]  P. Qi,et al.  A three-dimensional (3D) printed biomimetic hierarchical scaffold with a covalent modular release system for osteogenesis. , 2019, Materials science & engineering. C, Materials for biological applications.

[6]  M. Chavali,et al.  Recent advances in biomaterials for 3D scaffolds: A review , 2019, Bioactive materials.

[7]  Jianhui Yang,et al.  Effect of reinforcements on β→α transformation and tensile properties of a near α titanium matrix composite , 2019, Materials Science and Engineering: A.

[8]  L. Biasetto,et al.  Direct ink writing of porous titanium (Ti6Al4V) lattice structures. , 2019, Materials science & engineering. C, Materials for biological applications.

[9]  Shaikh Asad Ali Dilawary,et al.  Effect of TiB2 addition on the elevated temperature tribological behavior of spark plasma sintered Ti matrix composite , 2019, Composites Part B: Engineering.

[10]  R. Shah,et al.  Effect of Polymer Binder on the Synthesis and Properties of 3D-Printable Particle-Based Liquid Materials and Resulting Structures , 2019, ACS omega.

[11]  S. Bouvier,et al.  Additive manufacturing process creates local surface roughness modifications leading to variation in cell adhesion on multifaceted TiAl6V4 samples , 2019 .

[12]  M. Hayat,et al.  Titanium metal matrix composites: An overview , 2019, Composites Part A: Applied Science and Manufacturing.

[13]  S. Basu,et al.  3D inkjet printing of biomaterials with strength reliability and cytocompatibility: Quantitative process strategy for Ti-6Al-4V. , 2019, Biomaterials.

[14]  A. Molinari,et al.  Study of the Compression Behaviour of Ti6Al4V Trabecular Structures Produced by Additive Laser Manufacturing , 2019, Materials.

[15]  Roger C. Reed,et al.  Design of metallic bone by additive manufacturing , 2019, Scripta Materialia.

[16]  Lai‐Chang Zhang,et al.  A Review on Biomedical Titanium Alloys: Recent Progress and Prospect , 2019, Advanced Engineering Materials.

[17]  Bin Wang,et al.  Ink-based 3D printing technologies for graphene-based materials: a review , 2019, Advanced Composites and Hybrid Materials.

[18]  Yunfei Ding,et al.  Novel β-Ti35Zr28Nb alloy scaffolds manufactured using selective laser melting for bone implant applications. , 2019, Acta biomaterialia.

[19]  C. Kenel,et al.  3D ink-extrusion additive manufacturing of CoCrFeNi high-entropy alloy micro-lattices , 2019, Nature Communications.

[20]  Amir A Zadpoor,et al.  Mechanical performance of additively manufactured meta-biomaterials. , 2019, Acta biomaterialia.

[21]  P. Olubambi,et al.  Titanium-based matrix composites reinforced with particulate, microstructure, and mechanical properties using spark plasma sintering technique: a review , 2019, The International Journal of Advanced Manufacturing Technology.

[22]  Minh-Son Pham,et al.  Damage-tolerant architected materials inspired by crystal microstructure , 2019, Nature.

[23]  E. Maire,et al.  Effect of build orientation on the fatigue properties of as-built Electron Beam Melted Ti-6Al-4V alloy , 2019, International Journal of Fatigue.

[24]  Y. Jiao,et al.  Intergrowth microstructure and superior wear resistance of (TiB + TiC)/Ti64 hybrid coatings by gas tungsten arc cladding , 2019, Materials & Design.

[25]  Xingdong Zhang,et al.  Porous bioceramics produced by inkjet 3D printing: Effect of printing ink formulation on the ceramic macro and micro porous architectures control , 2018, Composites Part B: Engineering.

[26]  U. Lafont,et al.  Additive manufacturing — A review of 4D printing and future applications , 2018, Additive Manufacturing.

[27]  N. Dutta,et al.  Graphene inks for printed flexible electronics: Graphene dispersions, ink formulations, printing techniques and applications. , 2018, Advances in colloid and interface science.

[28]  Cuie Wen,et al.  Ultrahigh-strength titanium gyroid scaffolds manufactured by selective laser melting (SLM) for bone implant applications , 2018, Acta Materialia.

[29]  Lin Geng,et al.  Progress on discontinuously reinforced titanium matrix composites , 2018, Journal of Alloys and Compounds.

[30]  R. Spolenak,et al.  Microstructure and Processing of 3D Printed Tungsten Microlattices and Infiltrated W–Cu Composites , 2018, Advanced Engineering Materials.

[31]  Martin Leary,et al.  Selective electron beam manufactured Ti-6Al-4V lattice structures for orthopedic implant applications: Current status and outstanding challenges , 2018 .

[32]  N. Birbilis,et al.  Additive Manufacturing of Titanium Alloys for Orthopedic Applications: A Materials Science Viewpoint , 2018, Advanced Engineering Materials.

[33]  J. Rech,et al.  Topography of as built surfaces generated in metal additive manufacturing: A multi scale analysis from form to roughness , 2018 .

[34]  E. Toyserkani,et al.  A new approach for fabrication of titanium-titanium boride periodic composite via additive manufacturing and pressure-less sintering , 2018 .

[35]  Hui Wang,et al.  Laser deposition-additive manufacturing of TiB-Ti composites with novel three-dimensional quasi-continuous network microstructure: Effects on strengthening and toughening , 2018 .

[36]  R. Shah,et al.  Ni-Mn-Ga micro-trusses via sintering of 3D-printed inks containing elemental powders , 2018 .

[37]  Cuie Wen,et al.  Anisotropic Ti-6Al-4V gyroid scaffolds manufactured by electron beam melting (EBM) for bone implant applications , 2018 .

[38]  Zhengyi Jiang,et al.  Mechanical metamaterials associated with stiffness, rigidity and compressibility: a brief review , 2017 .

[39]  Chao Xu,et al.  Solvent-cast based metal 3D printing and secondary metallic infiltration , 2017 .

[40]  I. Ashcroft,et al.  Compressive failure modes and energy absorption in additively manufactured double gyroid lattices , 2017 .

[41]  Didier Chicot,et al.  Characterization of 100Cr6 lattice structures produced by robocasting , 2017 .

[42]  Lai‐Chang Zhang,et al.  Corrosion behaviour of selective laser melted Ti-TiB biocomposite in simulated body fluid , 2017 .

[43]  Xiaoyu Zheng,et al.  Multiscale metallic metamaterials. , 2016, Nature materials.

[44]  Chunming Wang,et al.  Deoxidization mechanism of hydrogen in TiH2 dehydrogenation process , 2016 .

[45]  Hyoun‐Ee Kim,et al.  Ti scaffolds with tailored porosities and mechanical properties using porous polymer templates , 2016 .

[46]  H. Liao,et al.  In-situ TiB/near α Ti matrix composites manufactured by selective laser melting , 2016 .

[47]  Hyoun‐Ee Kim,et al.  Rapid direct deposition of TiH2 paste for porous Ti scaffolds with tailored porous structures and mechanical properties , 2016 .

[48]  Lai‐Chang Zhang,et al.  Selective Laser Melting of Titanium Alloys and Titanium Matrix Composites for Biomedical Applications: A Review   , 2016 .

[49]  Ramille N. Shah,et al.  3D Printing for Liver Tissue Engineering: Current Approaches and Future Challenges , 2016, Current Transplantation Reports.

[50]  Kemin Zhang,et al.  Microstructure and corrosion resistance of TC2 Ti alloy by laser cladding with Ti/TiC/TiB2 powders , 2015 .

[51]  Lai‐Chang Zhang,et al.  Effect of Powder Particle Shape on the Properties of In Situ Ti–TiB Composite Materials Produced by Selective Laser Melting , 2015 .

[52]  Y. Otsuka,et al.  Surface Modifications and Their Effects on Titanium Dental Implants , 2015, BioMed research international.

[53]  Jinshan Li,et al.  Fabrication, pore structure and compressive behavior of anisotropic porous titanium for human trabecular bone implant applications. , 2015, Journal of the mechanical behavior of biomedical materials.

[54]  A. K. Jha,et al.  The effect of the particle shape and strain rate on microstructure and compressive deformation response of pure Ti-foam made using acrowax as space holder , 2015 .

[55]  Konda Gokuldoss Prashanth,et al.  Mechanical Behavior of Porous Commercially Pure Ti And Ti–TiB Composite Materials Manufactured By Selective Laser Melting , 2015 .

[56]  C. Desrayaud,et al.  Effect of TiH2 in the preparation of MMC Ti based with TiC reinforcement , 2015 .

[57]  A. K. Jha,et al.  Titanium foam with coarser cell size and wide range of porosity using different types of evaporative space holders through powder metallurgy route , 2014 .

[58]  Mariana Calin,et al.  Selective laser melting of in situ titanium–titanium boride composites: Processing, microstructure and mechanical properties , 2014 .

[59]  Anthony Atala,et al.  3D bioprinting of tissues and organs , 2014, Nature Biotechnology.

[60]  M. Ramulu,et al.  Fatigue performance evaluation of selective laser melted Ti–6Al–4V , 2014 .

[61]  T. Giese,et al.  On the inflammatory response in metal-on-metal implants , 2014, Journal of Translational Medicine.

[62]  K. May-Newman,et al.  Viability of Titanium-Titanium Boride Composite as a Biomaterial , 2013 .

[63]  A. Lanzutti,et al.  Characterization of grade 2 commercially pure Trabecular Titanium structures. , 2013, Materials science & engineering. C, Materials for biological applications.

[64]  Wang Jingyu,et al.  Experimental study on the osseointegration of foam TiC/Ti composites , 2013, Biomedical materials.

[65]  D. Yoo.  New paradigms in hierarchical porous scaffold design for tissue engineering. , 2013, Materials science & engineering. C, Materials for biological applications.

[66]  Chunhai Jiang,et al.  Novel TiC/Ti Open Cellular Foams Prepared by a Modified Sponge-coating Method Using High Frequency Induction Heating Process , 2013 .

[67]  Wang Xiang,et al.  Effect of boron addition on microstructure and mechanical properties of TiC/Ti6Al4V composites , 2012 .

[68]  Di Zhang,et al.  Effects of degree of deformation on the microstructure, mechanical properties and texture of hybrid-reinforced titanium matrix composites , 2012 .

[69]  I. Sigalas,et al.  In Situ Synthesis of Titanium Matrix Composite (Ti-TiB-TiC) through Sintering of TiH 2 -B 4 C , 2012 .

[70]  J. Lewis,et al.  Microstructure and Mechanical Properties of Reticulated Titanium Scrolls , 2011 .

[71]  J. Banhart,et al.  Decomposition of TiH2 studied in situ by synchrotron X-ray and neutron diffraction , 2011 .

[72]  Daisuke Shoji,et al.  Printed Origami Structures , 2010, Advanced materials.

[73]  Nikolay I Zheludev,et al.  The Road Ahead for Metamaterials , 2010, Science.

[74]  G. Schaffer,et al.  Comparison of sintering of titanium and titanium hydride powders , 2010 .

[75]  P. Layrolle,et al.  Histomorphometric analysis of the osseointegration of four different implant surfaces in the femoral epiphyses of rabbits. , 2008, Clinical oral implants research.

[76]  L. Geng,et al.  Hybrid effect of TiBw and TiCp on tensile properties of in situ titanium matrix composites , 2008 .

[77]  M. Nygren,et al.  Spark plasma sintering and deformation of Ti–TiB2 composites , 2008 .

[78]  Richard Weinkamer,et al.  Nature’s hierarchical materials , 2007 .

[79]  H. Yi,et al.  The Application of Self-Propagating High-Temperature Synthesis of Engineered Porous Composite Biomedical Materials , 2007 .

[80]  J. A. Lewis.  Direct Ink Writing of 3D Functional Materials , 2006 .

[81]  M. Ashby.  The properties of foams and lattices , 2006, Philosophical Transactions of the Royal Society A: Mathematical, Physical and Engineering Sciences.

[82]  L. Gibson.  Biomechanics of cellular solids. , 2005, Journal of biomechanics.

[83]  C. Leyens,et al.  Titanium and titanium alloys : fundamentals and applications , 2005 .

[84]  T. Saito.  The automotive application of discontinuously reinforced TiB-Ti composites , 2004 .

[85]  E. Baburaj,et al.  Dehydrogenation of TiH2 , 2003 .

[86]  Vladimir Mironov,et al.  Printing technology to produce living tissue , 2003, Expert opinion on biological therapy.

[87]  L. Rong,et al.  The influence of addition of TiH2 in elemental powder sintering porous Ni–Ti alloys , 2000 .

[88]  E. Collings,et al.  Materials Properties Handbook: Titanium Alloys , 1994 .

[89]  N. Provatas,et al.  Solidification microstructure simulation of Ti-6Al-4V in metal additive manufacturing: A review , 2020 .

[90]  Niklas Sandler,et al.  Vascularized 3D printed scaffolds for promoting bone regeneration. , 2019, Biomaterials.

[91]  S. Fujibayashi,et al.  Titanium foam for bone tissue engineering , 2017 .

[92]  Cuie Wen,et al.  Metallic scaffolds manufactured by selective laser melting for biomedical applications , 2017 .

[93]  Q. Peng,et al.  Porous Titanium Parts Fabricated by Sintering of TiH2 and Ti Powder Mixtures , 2017, Journal of Materials Engineering and Performance.

[94]  Jin-Xu Liu,et al.  Rapid preparation of TiC reinforced Ti6Al4V based composites by carburizing method through spark plasma sintering technique , 2015 .

[95]  T. Sano,et al.  Hybrid and Hierarchical Composite Materials , 2015 .

[96]  K. Kondoh.  Titanium metal matrix composites by powder metallurgy (PM) routes , 2015 .

[97]  M. Dargusch,et al.  In Situ Synchrotron Radiation Study of TiH2-6Al-4V and Ti-6Al-4V: Accelerated Alloying and Phase Transformation, and Formation of an Oxygen-Enriched Ti4Fe2O Phase in TiH2-6Al-4V , 2014, Metallurgical and Materials Transactions A.

[98]  Paulo Jorge Da Silva bartolo,et al.  Characterisation of PCL and PCL/PLA Scaffolds for Tissue Engineering☆ , 2013 .

[99]  Zhengxiao Guo,et al.  The kinetics and mechanism of interfacial reaction in sigma fibre-reinforced Ti MMCs , 1997 .