International Journal of Extreme Manufacturing, Volume. 7, Issue 2, 22002(2025)
Revolutionizing medical implant fabrication: advances in additive manufacturing of biomedical metals
[1] [1] Briggs A M, Cross M J, Hoy D G, Snchez-Riera L, Blyth F M, Woolf A D and March L 2016 Musculoskeletal health conditions represent a global threat to healthy aging: a report for the 2015 World Health Organization world report on ageing and healthGerontologist56S243–55
[2] [2] Sanz Met al2020 Periodontitis and cardiovascular diseases: consensus reportJ. Clin. Periodontol.47268–88
[3] [3] Roche E T 2019 Implant aids responsive bladder controlNature565298–300
[4] [4] Squair J Wet al2021 Neuroprosthetic baroreflex controls haemodynamics after spinal cord injuryNature590308–14
[5] [5] Zhang A Q, Mandeville E T, Xu L J, Stary C M, Lo E H and Lieber C M 2023 Ultraflexible endovascular probes for brain recording through micrometer-scale vasculatureScience381306–12
[6] [6] Ng W L, An J and Chua C K 2024 Process, material, and regulatory considerations for 3D printed medical devices and tissue constructsEngineering36146–66
[7] [7] Tang Wet al2023 Review: application of chitosan and its derivatives in medical materialsInt. J. Biol. Macromol.240124398
[8] [8] Barhoum A, Sadak O, Ramirez I A and Iverson N 2023 Stimuli-bioresponsive hydrogels as new generation materials for implantable, wearable, and disposable biosensors for medical diagnostics: principles, opportunities, and challengesAdv. Colloid Interface Sci.317102920
[9] [9] Chatterjee S, Saxena M, Padmanabhan D, Jayachandra M and Pandya H J 2019 Futuristic medical implants using bioresorbable materials and devicesBiosens. Bioelectron.142111489
[10] [10] Mishnaevsky Jr Let al2014 Nanostructured titanium-based materials for medical implants: modeling and developmentMater. Sci. Eng.R811–19
[11] [11] Rajendran A K, Anthraper M S J, Hwang N S and Rangasamy J 2024 Osteogenesis and angiogenesis promoting bioactive ceramicsMater. Sci. Eng.R159100801
[12] [12] Kaur G, Kumar V, Baino F, Mauro J C, Pickrell G, Evans I and Bretcanu O 2019 Mechanical properties of bioactive glasses, ceramics, glass-ceramics and composites: state-of-the-art review and future challengesMater. Sci. Eng.C104109895
[13] [13] Li S L, Kim J H, Kang S W, Kim J H, Nam T H and Yeom J T 2023 Superelastic metastable Ti-Mo-Sn alloys with high elastic admissible strain for potential bio-implant applicationsJ. Mater. Sci. Technol.16345–58
[14] [14] Chan Det al2022 Combinatorial polyacrylamide hydrogels for preventing biofouling on implantable biosensorsAdv. Mater.342109764
[15] [15] McVerry Bet al2022 A readily scalable, clinically demonstrated, antibiofouling zwitterionic surface treatment for implantable medical devicesAdv. Mater.342200254
[16] [16] Schreib C Cet al2023 Lipid deposition profiles influence foreign body responsesAdv. Mater.352205709
[17] [17] Simons P, Schenk S A, Gysel M A, Olbrich L F and Rupp J L M 2022 A ceramic-electrolyte glucose fuel cell for implantable electronicsAdv. Mater.342109075
[18] [18] Lackington W A, Wiestner R, Pradervand E, Schweizer P, Zuber F, Ren Q, Stoica M, Lffler J F and Rottmar M 2023 Surface chemistry dictates the osteogenic and antimicrobial properties of palladium-, platinum-, and titanium-based bulk metallic glassesAdv. Funct. Mater.332302069
[19] [19] Pan L, Nie X and Zhou R Q 2024 Biodegradable Zn-Mg-Ce alloys with good mechanical properties, degradability, and cytocompatibility matching for potential load-bearing bone-implant applicationsMater. Today Commun.40109519
[20] [20] Yao R H, Wang H, Shan R F, Liu L, Zhao Y Y, Sun Y H, Yao X H, Huang D and Hang R Q 2023 Biodegradable porous Zn-1Mg-3TCP scaffold for bone defect repair:in vitroandin vivoevaluationJ. Mater. Sci. Technol.162189–202
[21] [21] Zhao G B, Shao X X, Zhang Q X, Wu Y L, Wang Y N, Chen X, Tian H, Liu Y X, Liu Y P and Lu B H 2023 Porous bio-high entropy alloy scaffolds fabricated by direct ink writingJ. Mater. Sci. Technol.15721–29
[22] [22] Nouri A, Rohani Shirvan A, Li Y C and Wen C E 2021 Additive manufacturing of metallic and polymeric load-bearing biomaterials using laser powder bed fusion: a reviewJ. Mater. Sci. Technol.94196–215
[23] [23] Attarilar S, Ebrahimi M, Djavanroodi F, Fu Y F, Wang L Q and Yang J L 2021 3D printing technologies in metallic implants: a thematic review on the techniques and proceduresInt. J. Bioprint.7306
[24] [24] Calin M, Zhang L C and Eckert J 2007 Tailoring of microstructure and mechanical properties of a Ti-based bulk metallic glass-forming alloyScr. Mater.571101–4
[25] [25] Zhu H, Yao C, Wei B Y, Xu C Y, Huang X X, Liu Y, He J K, Zhang J N and Li D C 2023 3D printing of functional bioengineered constructs for neural regeneration: a reviewInt. J. Extrem. Manuf.5042004
[26] [26] Kim W, Lee S H, Ahn Y J, Lee S H, Ryu J, Choi S K and Choi S 2018 A label-free cellulose SERS biosensor chip with improvement of nanoparticle-enhanced LSPR effects for early diagnosis of subarachnoid hemorrhage-induced complicationsBiosens. Bioelectron.11159–65
[27] [27] Zhang Y, Robles-Linares J A, Chen L, Liao Z R, Shih A J and Wang C Y 2022 Advances in machining of hard tissues-from material removal mechanisms to tooling solutionsInt. J. Mach. Tools Manuf.172103838
[28] [28] Jia B Xet al2022 Comparison of drug-eluting stent with bare-metal stent in patients with symptomatic high-grade intracranial atherosclerotic stenosis: a randomized clinical trialJAMA Neurol.79176–84
[29] [29] Zhu Y Qet al2019 Endovascular metal devices for the treatment of cerebrovascular diseasesAdv. Mater.311805452
[30] [30] Chen W Z, Xie G L, Lu Y, Wang J Y, Feng B H, Wang Q, Xu K and Bao J Q 2022 An improved osseointegration of metal implants by pitavastatin loaded multilayer films with osteogenic and angiogenic propertiesBiomaterials280121260
[31] [31] Razzi F, Lovrak M, Gruzdyte D, Den Hartog Y, Duncker D J, van Esch J H, van Steijn V and van Beusekom H M M 2022 An implantable artificial atherosclerotic plaque as a novel approach for drug transport studies on drug-eluting stentsAdv. Healthcare Mater.112101570
[32] [32] Zhang H Jet al2022 A biodegradable metal-polymer composite stent safe and effective on physiological and serum-containing biomimetic conditionsAdv. Healthcare Mater.112201740
[33] [33] Ben D Det al2023 Fatigue crack growth behavior in additive manufactured Ti6Al4V alloy with intentionally embedded spherical defectMater. Sci. Eng.A885145612
[34] [34] Germaini M M, Belhabib S, Guessasma S, Deterre R, Corre P and Weiss P 2022 Additive manufacturing of biomaterials for bone tissue engineering—a critical review of the state of the art and new conceptsProg. Mater. Sci.130100963
[35] [35] Shuai C J, Li D S, Yao X, Li X and Gao C D 2023 Additive manufacturing of promising heterostructure for biomedical applicationsInt. J. Extrem. Manuf.5032012
[36] [36] Bakhtiari H, Nouri A, Khakbiz M and Tolouei-Rad M 2023 Fatigue behaviour of load-bearing polymeric bone scaffolds: a reviewActa Biomater.17216–37
[37] [37] Sui Set al2023 Additive manufacturing of magnesium and its alloys: process-formability-microstructure-performance relationship and underlying mechanismInt. J. Extrem. Manuf.5042009
[38] [38] Zhang L C and Wang J C 2024 Stabilizing 3D-printed metal alloys: a design strategy overcomes the strength-ductility trade-off in alloy manufacturingScience383586–7
[39] [39] Huang B, Guo S B, Zuo X Q, Yi J H, Zhou Y, Luo X X and Chen S 2024 Study on sound absorption valley and acoustic absorption performance of small-pore aluminum foam composited with 304 stainless steel fibersMater. Today Commun.39108903
[40] [40] Herzog D, Seyda V, Wycisk E and Emmelmann C 2016 Additive manufacturing of metalsActa Mater.117371–92
[41] [41] Kanishka K and Acherjee B 2023 Revolutionizing manufacturing: a comprehensive overview of additive manufacturing processes, materials, developments, and challengesJ. Manuf. Process.107574–619
[42] [42] Jardini A L, Larosa M A, de Carvalho Zavaglia C A, Bernardes L F, Lambert C S, Kharmandayan P, Calderoni D and Maciel Filho R 2014 Customised titanium implant fabricated in additive manufacturing for craniomaxillofacial surgeryVirtual Phys. Prototyp.9115–25
[43] [43] Mancuso E, Shah L, Jindal S, Serenelli C, Tsikriteas Z M, Khanbareh H and Tirella A 2021 Additively manufactured BaTiO3 composite scaffolds: a novel strategy for load bearing bone tissue engineering applicationsMater. Sci. Eng.C126112192
[44] [44] Bandyopadhyay A, Mitra I, Avila J D, Upadhyayula M and Bose S 2023 Porous metal implants: processing, properties, and challengesInt. J. Extrem. Manuf.5032014
[45] [45] Feng J Y, Wei D, Zhang P, Yu Z, Liu C, Lu W, Wang K, Yan H, Zhang L and Wang L 2023 Preparation of TiNbTaZrMo high-entropy alloy with tunable Young's modulus by selective laser meltingJ. Manuf. Process.85160–5
[46] [46] Ramaraju H, Landry A M, Sashidharan S, Shetty A, Crotts S J, Maher K O, Goudy S L and Hollister S J 2022 Clinical grade manufacture of 3D printed patient specific biodegradable devices for pediatric airway supportBiomaterials289121702
[47] [47] Garot C, Bettega G and Picart C 2021 Additive manufacturing of material scaffolds for bone regeneration: toward application in the clinicsAdv. Funct. Mater.312006967
[48] [48] Lowther M, Louth S, Davey A, Hussain A, Ginestra P, Carter L, Eisenstein N, Grover L and Cox S 2019 Clinical, industrial, and research perspectives on powder bed fusion additively manufactured metal implantsAddit. Manuf.28565–84
[49] [49] Pattinson S Wet al2019 Additive manufacturing of biomechanically tailored meshes for compliant wearable and implantable devicesAdv. Funct. Mater.291901815
[50] [50] Xu R, Chen C Q, Sun J P, He Y H, Li X, Lu M H and Chen Y F 2023 The design, manufacture and application of multistable mechanical metamaterials-a state-of-the-art reviewInt. J. Extrem. Manuf.5042013
[51] [51] Strydom A, Saragas N P and Ferrao P N F 2023 The use of a 3D printed titanium implant for arthrodesis in the management of large osseous defects in the ankleFoot Ankle Surg.29576–83
[52] [52] Luo X Wet al2024 Highly biologically functional magnesium silicate-coated 3D printed round pore-shaped titanium scaffold alters exosomal miRNA expression to promote osteogenic differentiation for bone defect repairChem. Eng. J.489151372
[53] [53] Jing Z Het al2024 Simvastatin/hydrogel-loaded 3D-printed titanium alloy scaffolds suppress osteosarcoma via TF/NOX2-associated ferroptosis while repairing bone defectsBioact. Mater.33223–41
[54] [54] Wei S S, Zhang J L, Zhang L, Zhang Y J, Song B, Wang X B, Fan J X, Liu Q and Shi Y S 2023 Laser powder bed fusion additive manufacturing of NiTi shape memory alloys: a reviewInt. J. Extrem. Manuf.5032001
[55] [55] Kuo C N, Wang Y P and Chua C K 2022 Effect of electropolishing on mechanical property enhancement of Ti6Al4V porous materials fabricated by selective laser meltingVirtual Phys. Prototyp.17919–31
[56] [56] Finazzi V, Demir A G, Biffi C A, Chiastra C, Migliavacca F, Petrini L and Previtali B 2019 Design rules for producing cardiovascular stents by selective laser melting: geometrical constraints and opportunitiesProc. Struc. Integr.1516–23
[57] [57] Maffia S, Finazzi V, Berti F, Migliavacca F, Petrini L, Previtali B and Demir A G 2021 Selective laser melting of NiTi stents with open-cell and variable diameterSmart Mater. Struct.30105010
[58] [58] Wang Y X, Pereira R F, Peach C, Huang B Y, Vyas C and Bartolo P 2023 Robotic in situ bioprinting for cartilage tissue engineeringInt. J. Extrem. Manuf.5032004
[59] [59] Chen A N, Su J, Li Y, Zhang H B, Shi Y S, Yan C Z and Lu J 2023 3D/4D printed bio-piezoelectric smart scaffolds for next-generation bone tissue engineeringInt. J. Extrem. Manuf.5032007
[60] [60] Song J Q, Lv B H, Chen W C, Ding P and He Y 2023 Advances in 3D printing scaffolds for peripheral nerve and spinal cord injury repairInt. J. Extrem. Manuf.5032008
[61] [61] Moszner F 2014Fe–Mn–Pd Maraging Steels for Biodegradable Implant Applications DissertationETH-Zrich, Zrich, Switzerland
[62] [62] Liang H Xet al2022 Trabecular-like Ti-6Al-4V scaffold for bone repair: a diversified mechanical stimulation environment for bone regenerationCompositesB241110057
[63] [63] Schouten C, Meijer G J, van den Beucken J J J P, Spauwen P H M and Jansen J A 2009 The quantitative assessment of peri-implant bone responses using histomorphometry and micro-computed tomographyBiomaterials304539–49
[64] [64] Mostafaei A, Stevens E L, Ference J J, Schmidt D E and Chmielus M 2018 Binder jetting of a complex-shaped metal partial denture frameworkAddit. Manuf.2163–68
[65] [65] Artzi Z 2023 Lateral augmentation of the jaw by the split expansion ridge technique. A critical reviewPeriodontology93205–20
[66] [66] Yu H, Wang T, Wang Y S and Zhu Y 2022 Ulnar shortening osteotomy vs. wafer resection for ulnar impaction syndrome: a systematic review and meta-analysisInt. J. Surg.104106725
[67] [67] Fang Y J, Attarilar S, Yang Z, Wei G J, Fu Y F and Wang L Q 2021 Toward bactericidal enhancement of additively manufactured titanium implantsCoatings11668
[68] [68] Pfau M R, Beltran F O, Woodard L N, Dobson L K, Gasson S B, Robbins A B, Lawson Z T, Brian Saunders W, Moreno M R and Grunlan M A 2021 Evaluation of a self-fitting, shape memory polymer scaffold in a rabbit calvarial defect modelActa Biomater.136233–42
[69] [69] Chen W, Gu D D, Yang J K, Yang Q, Chen J and Shen X F 2022 Compressive mechanical properties and shape memory effect of NiTi gradient lattice structures fabricated by laser powder bed fusionInt. J. Extrem. Manuf.4045002
[70] [70] Sui S, Chew Y X, Weng F, Tan C L, Du Z L and Bi G J 2022 Study of the intrinsic mechanisms of nickel additive for grain refinement and strength enhancement of laser aided additively manufactured Ti–6Al–4VInt. J. Extrem. Manuf.4035102
[71] [71] Feng J W, Fu J Z, Yao X H and He Y 2022 Triply periodic minimal surface (TPMS) porous structures: from multi-scale design, precise additive manufacturing to multidisciplinary applicationsInt. J. Extrem. Manuf.4022001
[72] [72] Lin C C, Wu C Z, Huang M S, Huang C F, Cheng H C and Wang D P 2020 Fully digital workflow for planning static guided implant surgery: a prospective accuracy studyJ. Clin. Med.9980
[73] [73] Yousefi S, Borna H, Rohani Shirvan A, Wen C E and Nouri A 2024 Surface modification of mechanical heart valves: a reviewEur. Polym. J.205112726
[74] [74] Kolken H M A, de Jonge C P, van der Sloten T, Garcia A F, Pouran B, Willemsen K, Weinans H and Zadpoor A A 2021 Additively manufactured space-filling meta-implantsActa Biomater.125345–57
[75] [75] Vashishtha Het al2024 Microscale stress-geometry interactions in an additively manufactured NiTi cardiovascular stent: a synchrotron dual imaging tomography and diffraction studyMater. Charact.213114016
[76] [76] Taghizadeh M and Zhu Z H 2024 A comprehensive review on metal laser additive manufacturing in space: modeling and perspectivesActa Astronaut.222403–21
[77] [77] Li C H, Wu C H and Lin C L 2020 Design of a patient-specific mandible reconstruction implant with dental prosthesis for metal 3D printing using integrated weighted topology optimization and finite element analysisJ. Mech. Behav. Biomed. Mater.105103700
[78] [78] Valente G, Benedetti M G, De Paolis M, Donati D M and Taddei F 2023 Differences in hip musculoskeletal loads between limbs during daily activities in patients with 3D-printed hemipelvic reconstructions following tumor surgeryGait Posture10256–63
[79] [79] Sidabutar R, Yudha T W, Sutiono A B, Huda F and Faried A 2023 Low-cost and open-source three-dimensional (3D) printing in neurosurgery: a pilot experiment using direct drive modification to produce multi-material neuroanatomical modelsClin. Neurol. Neurosurg.228107684
[80] [80] Xiao M, Chen Y M, Biao M N, Zhang X D and Yang B C 2017 Bio-functionalization of biomedical metalsMater. Sci. Eng.C701057–70
[81] [81] Chen L Y, Qin P, Zhang L N and Zhang L C 2024 An overview of additively manufactured metal matrix composites: preparation, performance, and challengeInt. J. Extrem. Manuf.6052006
[82] [82] Peng X, Kong L B, Fuh J Y and Wang H 2021 A review of post-processing technologies in additive manufacturingJ. Manuf. Mater. Process.538
[83] [83] Alipour S, Moridi A, Liou F and Emdadi A 2022 The trajectory of additively manufactured titanium alloys with superior mechanical properties and engineered microstructuresAddit. Manuf.60103245
[84] [84] Goel S, Sittiho A, Charit I, Klement U and Joshi S 2019 Effect of post-treatments under hot isostatic pressure on microstructural characteristics of EBM-built Alloy 718Addit. Manuf.28727–37
[85] [85] Kaushik V, Nithish Kumar B, Sakthi Kumar S and Vignesh M 2022 Magnesium role in additive manufacturing of biomedical implants—challenges and opportunitiesAddit. Manuf.55102802
[86] [86] Zhang L C and Attar H 2016 Selective laser melting of titanium alloys and titanium matrix composites for biomedical applications: a reviewAdv. Eng. Mater.18463–75
[87] [87] Zhang L C, Liu Y J, Li S J and Hao Y L 2018 Additive manufacturing of titanium alloys by electron beam melting: a reviewAdv. Eng. Mater.201700842
[88] [88] Tamayo J A, Riascos M, Vargas C A and Baena L M 2021 Additive manufacturing of Ti6Al4V alloy via electron beam melting for the development of implants for the biomedical industryHeliyon7e06892
[89] [89] Aufa A N, Hassan M Z and Ismail Z 2022 Recent advances in Ti-6Al-4V additively manufactured by selective laser melting for biomedical implants: prospect developmentJ. Alloys Compd.896163072
[90] [90] Muthaiah V M S, Indrakumar S, Suwas S and Chatterjee K 2022 Surface engineering of additively manufactured titanium alloys for enhanced clinical performance of biomedical implants: a review of recent developmentsBioprinting25e00180
[91] [91] Hemmasian E A, Guo S M and Raush J 2021 Corrosion performance of additively manufactured stainless steel parts: a reviewAddit. Manuf.37101689
[92] [92] Kong D C, Dong C F, Wei S L, Ni X Q, Zhang L, Li R X, Wang L, Man C and Li X G 2021 About metastable cellular structure in additively manufactured austenitic stainless steelsAddit. Manuf.38101804
[93] [93] Mahajan A, Singh G and Devgan S 2023 Additive manufacturing of metallic biomaterials: a concise reviewArch. Civ. Mech. Eng.23187
[94] [94] Murr L E 2020 Metallurgy principles applied to powder bed fusion 3D printing/additive manufacturing of personalized and optimized metal and alloy biomedical implants: an overviewJ. Mater. Res. Technol.91087–103
[95] [95] Badkoobeh F, Mostaan H, Rafiei M, Bakhsheshi-Rad H R, RamaKrishna S and Chen X B 2023 Additive manufacturing of biodegradable magnesium-based materials: design strategies, properties, and biomedical applicationsJ. Magnes. Alloys11801–39
[96] [96] Kabir H, Munir K, Wen C E and Li Y C 2021 Recent research and progress of biodegradable zinc alloys and composites for biomedical applications: biomechanical and biocorrosion perspectivesBioact. Mater.6836–79
[97] [97] Tibbits S 2014 4D printing: multi-material shape changeArchit. Des.84116–21
[98] [98] Chen J, Virrueta C, Zhang S M, Mao C B and Wang J L 2024 4D printing: the spotlight for 3D printed smart materialsMater Today7766–91
[99] [99] Hasanzadeh R, Mihankhah P, Azdast T, Rasouli A, Shamkhali M and Park C B 2023 Biocompatible tissue-engineered scaffold polymers for 3D printing and its application for 4D printingChem. Eng. J.476146616
[100] [100] Akbar I, El Hadrouz M, El Mansori M and Lagoudas D 2022 Toward enabling manufacturing paradigm of 4D printing of shape memory materials: open literature reviewEur. Polym. J.168111106
[101] [101] Gao S Bet al2023 Additive manufacturing of alloys with programmable microstructure and propertiesNat. Commun.146752
[102] [102] Lu Y H, Chen X, Han F, Zhao Q, Xie T, Wu J J and Zhang Y H 2023 3D printing of self-healing personalized liver models for surgical training and preoperative planningNat. Commun.148447
[103] [103] Lyu Q Q, Li M M, Zhang L B and Zhu J T 2024 Structurally-colored adhesives for sensitive, high-resolution, and non-invasive adhesion self-monitoringNat. Commun.158419
[104] [104] Wang R, Yuan C, Cheng J X, He X N, Ye H T, Jian B C, Li H G, Bai J M and Ge Q 2024 Direct 4D printing of ceramics driven by hydrogel dehydrationNat. Commun.15758
[105] [105] Jiang D Y, Xie L C and Wang L Q 2023 Current application status of multi-scale simulation and machine learning in research on high-entropy alloysJ. Mater. Res. Technol.261341–74
[106] [106] Guo X Let al2023 Interstitial elements created via metal 3D printingMater Today6692–104
[107] [107] Liu J, Yu M Y, Yu Z Z and Nicolosi V 2023 Design and advanced manufacturing of electromagnetic interference shielding materialsMater Today66245–72
[108] [108] Liang S X, Wang X Q, Zhang W C, Liu Y J, Wang W M and Zhang L C 2020 Selective laser melting manufactured porous Fe-based metallic glass matrix composite with remarkable catalytic activity and reusabilityAppl. Mater. Today19100543
[109] [109] Carolo L C B and Cooper R E 2022 A review on the influence of process variables on the surface roughness of Ti-6Al-4V by electron beam powder bed fusionAddit. Manuf.59103103
[110] [110] Wen P, Qin Y, Chen Y Z, Voshage M, Jauer L, Poprawe R and Schleifenbaum J H 2019 Laser additive manufacturing of Zn porous scaffolds: shielding gas flow, surface quality and densificationJ. Mater. Sci. Technol.35368–76
[111] [111] Dan C Yet al2023 Achieving ultrahigh fatigue resistance in AlSi10Mg alloy by additive manufacturingNat. Mater.221182–8
[112] [112] Jia Z J, Xu X X, Zhu D H and Zheng Y F 2023 Design, printing, and engineering of regenerative biomaterials for personalized bone healthcareProg. Mater. Sci.134101072
[113] [113] Hafeez N, Wei D X, Xie L C, Tang Y J, Liu J, Kato H, Lu W J, Zhang L C and Wang L Q 2021 Evolution of microstructural complex transitions in low-modulus -type Ti-35Nb-2Ta-3Zr alloy manufactured by laser powder bed fusionAddit. Manuf.48102376
[114] [114] Chen Het al2022 Additive manufactured high-strength tungsten composite with high deformability by using a novel CoCrNi medium-entropy binderCompositesB246110256
[115] [115] Laleh Met al2023 Heat treatment for metal additive manufacturingProg. Mater. Sci.133101051
[116] [116] Zhang L C, Klemm D, Eckert J, Hao Y L and Sercombe T B 2011 Manufacture by selective laser melting and mechanical behavior of a biomedical Ti–24Nb–4Zr–8Sn alloyScr. Mater.6521–24
[117] [117] Dai N W, Zhang L C, Zhang J X, Chen Q M and Wu M L 2016 Corrosion behavior of selective laser melted Ti-6Al-4V alloy in NaCl solutionCorros. Sci.102484–9
[118] [118] Liu Y J, Li X P, Zhang L C and Sercombe T B 2015 Processing and properties of topologically optimised biomedical Ti–24Nb–4Zr–8Sn scaffolds manufactured by selective laser meltingMater. Sci. Eng.A642268–78
[119] [119] Han C J, Fang Q H, Shi Y S, Tor S B, Chua C K and Zhou K 2020 Recent advances on high-entropy alloys for 3D printingAdv. Mater.321903855
[120] [120] Liu L F, Ding Q Q, Zhong Y, Zou J, Wu J, Chiu Y L, Li J X, Zhang Z, Yu Q and Shen Z J 2018 Dislocation network in additive manufactured steel breaks strength-ductility trade-offMater Today21354–61
[121] [121] Liu X C, Liu Z, Liu Y, Zafar Z, Lu Y, Wu X, Jiang Y, Xu Z, Guo Z and Li S 2022 Achieving high strength and toughness by engineering 3D artificial nacre-like structures inTi6Al4V-Ti metallic compositeCompositesB230109552
[122] [122] Zhang J Q, Chen C, Wang G H, Geng Z W, Li D, Wu Y P and Zhou K C 2024 Mechanical behaviors of tantalum scaffolds with node optimization fabricated by laser powder bed fusionInt. J. Refract. Met. Hard Mater.124106837
[123] [123] Wang J C, Zhu R, Liu Y J and Zhang L C 2023 Understanding melt pool characteristics in laser powder bed fusion: an overview of single-and multi-track melt pools for process optimizationAdv. Powder Mater.2100137
[124] [124] Sing S L, Huang S, Goh G D, Goh G L, Tey C F, Tan J H K and Yeong W Y 2021 Emerging metallic systems for additive manufacturing:in-situalloying and multi-metal processing in laser powder bed fusionProg. Mater. Sci.119100795
[125] [125] Yu W H, Sing S L, Chua C K, Kuo C N and Tian X L 2019 Particle-reinforced metal matrix nanocomposites fabricated by selective laser melting: a state of the art reviewProg. Mater. Sci.104330–79
[126] [126] Gu D D, Meiners W, Wissenbach K and Poprawe R 2012 Laser additive manufacturing of metallic components: materials, processes and mechanismsInt. Mater. Rev.57133–64
[127] [127] Aufa A N, Hassan M Z, Ismail Z, Ramlie F, Jamaludin K R, Daud M Y and Ren J 2024 Current trends in additive manufacturing of selective laser melting for biomedical implant applicationsJ. Mater. Res. Technol.31213–43
[128] [128] Yang Y Qet al2024 Frontiers in laser additive manufacturing technologyAddit. Manuf. Front.3200160
[129] [129] Aliyu A A A, Panwisawas C, Shinjo J, Puncreobutr C, Reed R C, Poungsiri K and Lohwongwatana B 2023 Laser-based additive manufacturing of bulk metallic glasses: recent advances and future perspectives for biomedical applicationsJ. Mater. Res. Technol.232956–90
[130] [130] Liu S F, Han S, Zhang L, Chen L-Y, Wang L, Zhang L, Tang Y, Liu J, Tang H and Zhang L-C 2020 Strengthening mechanism and micropillar analysis of high-strength NiTi–Nb eutectic-type alloy prepared by laser powder bed fusionCompositesB200108358
[131] [131] Liu S F, Liu J B, Wang L Q, Ma R L W, Zhong Y S, Lu W J and Zhang L C 2020 Superelastic behavior of in-situ eutectic-reaction manufactured high strength 3D porous NiTi-Nb scaffoldScr. Mater.181121–6
[132] [132] Qin P, Chen Y, Liu Y J, Zhang J X, Chen L Y, Li Y H, Zhang X H, Cao C D, Sun H Q and Zhang L C 2019 Resemblance in corrosion behavior of selective laser melted and traditional monolithic Ti-24Nb-4Zr-8Sn alloyACS Biomater. Sci. Eng.51141–9
[133] [133] Zhang L C, Chen L Y, Zhou S F and Luo Z 2023 Powder bed fusion manufacturing of beta-type titanium alloys for biomedical implant applications: a reviewJ. Alloys Compd.936168099
[134] [134] Attar H, Calin M, Zhang L C, Scudino S and Eckert J 2014 Manufacture by selective laser melting and mechanical behavior of commercially pure titaniumMater. Sci. Eng.A593170–7
[135] [135] Zhao B J, Wang H, Qiao N, Wang C and Hu M 2017 Corrosion resistance characteristics of a Ti-6Al-4V alloy scaffold that is fabricated by electron beam melting and selective laser melting for implantation in vivoMater. Sci. Eng.C70832–41
[136] [136] Dai N W, Zhang L C, Zhang J X, Zhang X, Ni Q Z, Chen Y, Wu M L and Yang C 2016 Distinction in corrosion resistance of selective laser melted Ti-6Al-4V alloy on different planesCorros. Sci.111703–10
[137] [137] Demir A G, Monguzzi L and Previtali B 2017 Selective laser melting of pure Zn with high density for biodegradable implant manufacturingAddit. Manuf.1520–28
[138] [138] Cui Y W, Chen L Y, Qin P, Li R F, Zang Q H, Peng J H, Zhang L N, Lu S, Wang L Q and Zhang L C 2022 Metastable pitting corrosion behavior of laser powder bed fusion produced Ti-6Al-4V in Hank's solutionCorros. Sci.203110333
[139] [139] Liu Y J, Li S J, Wang H L, Hou W T, Hao Y L, Yang R, Sercombe T B and Zhang L C 2016 Microstructure, defects and mechanical behavior of beta-type titanium porous structures manufactured by electron beam melting and selective laser meltingActa Mater.11356–67
[140] [140] Liu Y J, Wang H L, Li S J, Wang S G, Wang W J, Hou W T, Hao Y L, Yang R and Zhang L C 2017 Compressive and fatigue behavior of beta-type titanium porous structures fabricated by electron beam meltingActa Mater.12658–66
[141] [141] Fu Z W, Ye J H, Franke M and Krner C 2022 A novel approach for powder bed-based additive manufacturing of compositionally graded compositesAddit. Manuf.56102916
[142] [142] Xiao B, Jia W P, Tang H P, Wang J and Zhou L 2022 Microstructure and mechanical properties of WMoTaNbTi refractory high-entropy alloys fabricated by selective electron beam meltingJ. Mater. Sci. Technol.10854–63
[143] [143] Zhang C H, Li Z, Zhang J K, Tang H B and Wang H M 2023 Additive manufacturing of magnesium matrix composites: comprehensive review of recent progress and research perspectivesJ. Magnes. Alloys11425–61
[144] [144] Krner C 2016 Additive manufacturing of metallic components by selective electron beam melting—a reviewInt. Mater. Rev.61361–77
[145] [145] Kok Y H, Tan X P, Loh N H, Tor S B and Chua C K 2016 Geometry dependence of microstructure and microhardness for selective electron beam-melted Ti-6Al-4V partsVirtual Phys. Prototyp.11183–91
[146] [146] Murr L E, Gaytan S M, Ramirez D A, Martinez E, Hernandez J, Amato K N, Shindo P W, Medina F R and Wicker R B 2012 Metal fabrication by additive manufacturing using laser and electron beam melting technologiesJ. Mater. Sci. Technol.281–14
[147] [147] Park J U, Jun S Y, Lee B H, Jang J H, Lee B S, Lee H J, Lee J H and Hong H U 2022 Alloy design of Ni-based superalloy with high 'volume fraction suitable for additive manufacturing and its deformation behaviorAddit. Manuf.52102680
[148] [148] Seleznev M, Wagner R, Weidner A, Wendler M, Volkova O and Biermann H 2021 Direct tuning of the microstructural and mechanical properties of high-alloy austenitic steel by electron beam meltingAddit. Manuf.47102253
[149] [149] Yang J X, Chen Y Q, Huang Y J, Ning Z L, Liu B K, Guo C and Sun J F 2020 Hierarchical microstructure of a titanium alloy fabricated by electron beam selective meltingJ. Mater. Sci. Technol.421–9
[150] [150] Harrysson O L A, Cansizoglu O, Marcellin-Little D J, Cormier D R and West I I H A 2008 Direct metal fabrication of titanium implants with tailored materials and mechanical properties using electron beam melting technologyMater. Sci. Eng.C28366–73
[151] [151] Bai Y, Gai X, Li S J, Zhang L C, Liu Y J, Hao Y L, Zhang X, Yang R and Gao Y B 2017 Improved corrosion behaviour of electron beam melted Ti-6Al–4V alloy in phosphate buffered salineCorros. Sci.123289–96
[152] [152] Rnnar L E, Koptyug A, Olsn J, Saeidi K and Shen Z J 2017 Hierarchical structures of stainless steel 316 L manufactured by electron beam meltingAddit. Manuf.17106–12
[153] [153] Hara Det al2016 Bone bonding strength of diamond-structured porous titanium-alloy implants manufactured using the electron beam-melting techniqueMater. Sci. Eng.C591047–52
[154] [154] Yan R Z, Luo D M, Huang H T, Li R X, Yu N, Liu C K, Hu M and Rong Q G 2018 Electron beam melting in the fabrication of three-dimensional mesh titanium mandibular prosthesis scaffoldSci. Rep.8750
[155] [155] Zheng C C, Attarilar S, Li K, Wang C, Liu J, Wang L Q, Yang J L and Tang Y J 2021 3D-printed HA15-loaded -tricalcium phosphate/poly (lactic-co-glycolic acid) bone tissue scaffold promotes bone regeneration in rabbit radial defectsInt. J. Bioprint.7317
[156] [156] Pandav G, Karanwad T and Banerjee S 2024 Sketching feasibility of additively manufactured different size gradient conventional hollow capsular shells (HCSs) by selective laser sintering (SLS): from design to applicationsJ. Mech. Behav. Biomed. Mater.151106393
[157] [157] Olakanmi E O, Cochrane R F and Dalgarno K W 2015 A review on selective laser sintering/melting (SLS/SLM) of aluminium alloy powders: processing, microstructure, and propertiesProg. Mater. Sci.74401–77
[158] [158] Xiong B W, Yu H, Xu Z F, Yan Q S, Zheng Y H, Zhu P L and Chen S N 2013 Study on dual binders for fabricating SiC particulate preforms using selective laser sinteringCompositesB48129–33
[159] [159] Chi C Y, Chen C Y, Huang J Y, Kuan C Y, Lin Y Y, Li C H, Yang C C and Lin F H 2021 Preparation and in-vitro evaluation of Fe2O3-doped DP-bioglass in combination with 3D-printing and selective laser sintering process (3DP-SLS) for alveolar bone augmentationCeram. Int.4712725–34
[160] [160] Han W, Kong L B and Xu M 2022 Advances in selective laser sintering of polymersInt. J. Extrem. Manuf.4042002
[161] [161] Hejmady P, van Breemen L C A, Hermida-Merino D, Anderson P D and Cardinaels R 2022 Laser sintering of PA12 particles studied by in-situ optical, thermal and x-ray characterizationAddit. Manuf.52102624
[162] [162] de Castro Giro D, Bre M, Jardini A L, Filho R M, Silva C C, de Siervo A, de Abreu Gomes H F and Arajo W S 2020 An assessment of biomedical CoCrMo alloy fabricated by direct metal laser sintering technique for implant applicationsMater. Sci. Eng.C107110305
[163] [163] Xie F X, He X B, Lu X, Cao S L and Qu X H 2013 Preparation and properties of porous Ti–10Mo alloy by selective laser sinteringMater. Sci. Eng.C331085–90
[164] [164] Hayashi T, Maekawa K, Tamura M and Hanyu K 2005 Selective laser sintering method using titanium powder sheet toward fabrication of porous bone substitutesJSME Int. J. A48369–75
[165] [165] Chen Z, Fan W, Gao S B, Qi Y, Kandukuri S Y and Zhou K 2023 Effect of grain structure on the mechanical properties of a Monel alloy fabricated by laser-based directed energy depositionJ. Mater. Sci. Technol.164129–39
[166] [166] Fan W, Peng Y J, Qi Y, Tan H, Feng Z, Wang Y X, Zhang F Y and Lin X 2023 Partially melted powder in laser based directed energy deposition: formation mechanism and its influence on microstructureInt. J. Mach. Tools Manuf.192104072
[167] [167] Kindermann R M, Roy M J, Morana R, Francis J A and Prangnell P B 2023 Wire-arc directed energy deposition of Inconel 718: effects of heat input and build interruptions on mechanical performanceAddit. Manuf.76103765
[168] [168] Ma H Y, Wang J C, Qin P, Liu Y J, Chen L Y, Wang L Q and Zhang L C 2024 Advances in additively manufactured titanium alloys by powder bed fusion and directed energy deposition: microstructure, defects, and mechanical behaviorJ. Mater. Sci. Technol.18332–62
[169] [169] Sartika V D, Choi W S, Choi G, Han J, Chang S J, Ko W S, Grabowski B and Choi P P 2022 Joining dissimilar metal of Ti and CoCrMo using directed energy depositionJ. Mater. Sci. Technol.11199–110
[170] [170] Xi N Y, Tang K X, Fang X W, Li Y, Duan Y S and Huang K 2023 Enhanced comprehensive properties of directed energy deposited Inconel 718 by a novel integrated deposition strategyJ. Mater. Sci. Technol.14142–55
[171] [171] Cao Q H, Zeng C Y, Cai X Y, Zhang R Z, Wang F D, Wang H B, Zhang Y, Qi B J and Cong B Q 2023 High-strength Mg-10Gd-3Y-1Zn-0.5Zr alloy fabricated by wire-arc directed energy deposition: phase transformation behavior and mechanical propertiesAddit. Manuf.76103789
[172] [172] Luo M J, Li R D, Zheng D, Kang J T, Wu H T, Deng S H and Niu P D 2023 Formation mechanism of inherent spatial heterogeneity of microstructure and mechanical properties of NiTi SMA prepared by laser directed energy depositionInt. J. Extrem. Manuf.5035005
[173] [173] Pu Z, Du D, Zhang D Q, Xi R, Wang X B and Chang B H 2023 Study on the role of carbon in modifying second phase and improving tensile properties of NiTi shape memory alloys fabricated by electron beam directed energy depositionAddit. Manuf.75103733
[174] [174] Li X P, Wang X J, Saunders M, Suvorova A, Zhang L C, Liu Y J, Fang M H, Huang Z H and Sercombe T B 2015 A selective laser melting and solution heat treatment refined Al–12Si alloy with a controllable ultrafine eutectic microstructure and 25% tensile ductilityActa Mater.9574–82
[175] [175] Munir K, Lin J X, Li Y C, Wright P and Wen C E 2023 Novel carbon nanotubes reinforced Ti28Nb35.4Zr matrix composites fabricated via direct metal deposition for bone implant applicationsMaterialia29101786
[176] [176] Marattukalam J J, Singh A K, Datta S, Das M, Balla V K, Bontha S and Kalpathy S K 2015 Microstructure and corrosion behavior of laser processed NiTi alloyMater. Sci. Eng.C57309–13
[177] [177] Mitun A R, Balla D V K, Dwaipayan S, Devika D and Manivasagam G 2019 Surface properties and cytocompatibility of Ti-6Al-4V fabricated using laser engineered net shapingMater. Sci. Eng.C100104–16
[178] [178] Nguyen H D, Pramanik A, Basak A K, Dong Y, Prakash C, Debnath S, Shankar S, Jawahir I S, Dixit S and Buddhi D 2022 A critical review on additive manufacturing of Ti-6Al-4V alloy: microstructure and mechanical propertiesJ. Mater. Res. Technol.184641–61
[179] [179] Frazier W E 2014 Metal additive manufacturing: a reviewJ. Mater. Eng. Perform231917–28
[180] [180] Mobarak H, Islam A, Hossain N, Al Mahmud Z, Rayhan T, Nishi N J and Chowdhury M A 2023 Recent advances of additive manufacturing in implant fabrication—a reviewAppl. Surf. Sci. Adv.18100462
[181] [181] Rana M, Gellrich M M and Gellrich N C 2015 Customised reconstruction of the orbital wall and engineering of selective laser melting (SLM) core implantsBr. J. Oral Maxillofac. Surg.53208–9
[182] [182] Iezzi G, Zavan B, Petrini M, Ferroni L, Pierfelice T V, D'Amora U, Ronca A, D'Amico E and Mangano C 2024 3D printed dental implants with a porous structure: the in vitro response of osteoblasts, fibroblasts, mesenchymal stem cells, and monocytesJ. Dent.140104778
[183] [183] Sharma M and Soni M 2021 Direct metal laser sintering of TI6Al4V alloy for patient-specific temporo mandibular joint prosthesis and implantMater. Today: Proc.38333–9
[184] [184] Bertol L S, Jnior W K, da Silva F P and Aumund-Kopp C 2010 Medical design: direct metal laser sintering of Ti–6Al–4VMater. Des.313982–8
[185] [185] Palmquist A, Jolic M, Hryha E and Shah F A 2023 Complex geometry and integrated macro-porosity: clinical applications of electron beam melting to fabricate bespoke bone-anchored implantsActa Biomater.156125–45
[186] [186] Challis V J, Xu X X, Zhang L C, Roberts A P, Grotowski J F and Sercombe T B 2014 High specific strength and stiffness structures produced using selective laser meltingMater. Des.63783–8
[187] [187] Kouhi-Lakeh K, Teimouri M and Asgari M 2024 Bio-inspired topology optimization driven design for 3D printed radially graded meta-structures; design, modeling and mechanical characteristicsCompos. Struct.346118435
[188] [188] Panesar A, Ashcroft I, Brackett D, Wildman R and Hague R 2017 Design framework for multifunctional additive manufacturing: coupled optimization strategy for structures with embedded functional systemsAddit. Manuf.1698–106
[189] [189] Chen L Y, Liang S X, Liu Y J and Zhang L C 2021 Additive manufacturing of metallic lattice structures: unconstrained design, accurate fabrication, fascinated performances, and challengesMater. Sci. Eng.R146100648
[190] [190] Liu Y J, Ren D C, Li S J, Wang H, Zhang L C and Sercombe T B 2020 Enhanced fatigue characteristics of a topology-optimized porous titanium structure produced by selective laser meltingAddit. Manuf.32101060
[191] [191] Gao H, Li X, Wang C J, Ji P and Wang C 2019 Mechanobiologically optimization of a 3D titanium-mesh implant for mandibular large defect: a simulated studyMater. Sci. Eng.C104109934
[192] [192] Liu Y J, Li S J, Hou W T, Wang S G, Hao Y L, Yang R, Sercombe T B and Zhang L C 2016 Electron beam melted beta-type Ti–24Nb–4Zr–8Sn porous structures with high strength-to-modulus ratioJ. Mater. Sci. Technol.32505–8
[193] [193] Babazadeh-Naseri A, Li G, Shourijeh M S, Akin J E, Higgs III C F, Fregly B J and Dunbar N J 2023 Stress-shielding resistant design of custom pelvic prostheses using lattice-based topology optimizationMed. Eng. Phys.121104012
[194] [194] Peto M, Ramrez-Cedillo E, Hernndez A and Siller H R 2019 Structural design optimization of knee replacement implants for additive manufacturingProc. Manuf.34574–83
[195] [195] Zhao S, Li S J, Wang S G, Hou W T, Li Y, Zhang L C, Hao Y L, Yang R, Misra R D K and Murr L E 2018 Compressive and fatigue behavior of functionally graded Ti-6Al-4V meshes fabricated by electron beam meltingActa Mater.1501–15
[196] [196] Zhong S P, Shi Q M, Van Dessel J, Gu Y F, Sun Y, Yang S and Politis C 2022 Biomechanical validation of structural optimized patient-specific mandibular reconstruction plate orienting additive manufacturingComput. Methods Programs Biomed.224107023
[197] [197] Hijazi K M, Dixon S J, Armstrong J E and Rizkalla A S 2024 Titanium alloy implants with lattice structures for mandibular reconstructionMaterials17140
[198] [198] Wei C, Zhang Z Z, Cheng D X, Sun Z, Zhu M H and Li L 2021 An overview of laser-based multiple metallic material additive manufacturing: from macro-to micro-scalesInt. J. Extrem. Manuf.3012003
[199] [199] Xue W C, Krishna B V, Bandyopadhyay A and Bose S 2007 Processing and biocompatibility evaluation of laser processed porous titaniumActa Biomater.31007–18
[200] [200] Rumpler M, Woesz A, Dunlop J W C, van Dongen J T and Fratzl P 2008 The effect of geometry on three-dimensional tissue growthJ. Roy. Soc. Interface51173–80
[201] [201] Obaton A F, Fain J, Djema M, Meinel D, Lonard F, Mah E, Lcuelle B, Fouchet J J and Bruno G 2017In vivoXCT bone characterization of lattice structured implants fabricated by additive manufacturingHeliyon3e00374
[202] [202] Xiao J, Zhu T Q, Li L L, Shen L L, Ren Z Y and Xu J 2023 Design and biomechanical properties of symmetrical lumbar fusion cage based on lightweight titanium alloy flexible microporous metal rubberSymmetry151938
[203] [203] Sheng X, Liu H, Xu Y, Wang Z H, Zhang W M, Li C and Wang J C 2024 Functionalized biomimetic mineralized collagen promotes osseointegration of 3D-printed titanium alloy microporous interfaceMater. Today Bio24100896
[204] [204] Vlad M D, Fernndez Aguado E, Gmez Gonzlez S, Ivanov I C, indilar E V, Poeat I, Iencean A , Butnaru M, Avdnei E R and Lpez Lpez J 2020 Novel titanium-apatite hybrid scaffolds with spongy bone-like micro architecture intended for spinal application: in vitro and in vivo studyMater. Sci. Eng.C110110658
[205] [205] Vzquez-Guardado A, Yang Y Y, Bandodkar A J and Rogers J A 2020 Recent advances in neurotechnologies with broad potential for neuroscience researchNat. Neurosci.231522–36
[206] [206] Silver Det al2016 Mastering the game of Go with deep neural networks and tree searchNature529484–9
[207] [207] Peng B, Wei Y, Qin Y, Dai J B, Li Y, Liu A B, Tian Y, Han L L, Zheng Y F and Wen P 2023 Machine learning-enabled constrained multi-objective design of architected materialsNat. Commun.146630
[208] [208] Kim Jet al2021 A soft and transparent contact lens for the wireless quantitative monitoring of intraocular pressureNat. Biomed. Eng.5772–82
[209] [209] Zhang M L, Tang Z J, Liu X L and Van der Spiegel J 2020 Electronic neural interfacesNat. Electron.3191–200
[210] [210] Bastek J H, Kumar S, Telgen B, Glaesener R N and Kochmann D M 2022 Inverting the structure–property map of truss metamaterials by deep learningProc. Natl Acad. Sci. USA119e2111505119
[211] [211] Chen Y C, Wang K H and Lin C L 2024 Personalized prosthesis design in all-on-4® treatment through deep learning-accelerated structural optimizationJ. Dent. Sci.192140–9
[212] [212] Guo A X Y, Cheng L J, Zhan S, Zhang S Y, Xiong W, Wang Z H, Wang G and Cao S C 2022 Biomedical applications of the powder-based 3D printed titanium alloys: a reviewJ. Mater. Sci. Technol.125252–64
[213] [213] Guo Q L, Qu M L, Chuang C A, Xiong L H, Nabaa A, Young Z A, Ren Y, Kenesei P, Zhang F and Chen L Y 2022 Phase transformation dynamics guided alloy development for additive manufacturingAddit. Manuf.59103068
[214] [214] Zhang L C, Chen L Y and Wang L Q 2020 Surface modification of titanium and titanium alloys: technologies, developments, and future interestsAdv. Eng. Mater.221901258
[215] [215] Zhang H, Zhao J Y, Liu J, Qin H F, Ren Z C, Doll G L, Dong Y L and Ye C 2018 The effects of electrically-assisted ultrasonic nanocrystal surface modification on 3D-printed Ti-6Al-4V alloyAddit. Manuf.2260–68
[216] [216] Stepputat V N, Zeidler H, Safranchik D, Strokin E and Bttger-Hiller F 2021 Investigation of post-processing of additively manufactured nitinol smart springs with plasma-electrolytic polishingMaterials144093
[217] [217] Bernhardt A, Schneider J, Schroeder A, Papadopoulous K, Lopez E, Brckner F and Botzenhart U 2021 Surface conditioning of additively manufactured titanium implants and its influence on materials properties and in vitro biocompatibilityMater. Sci. Eng.C119111631
[218] [218] Li J L, Qin L, Yang K, Ma Z J, Wang Y X, Cheng L L and Zhao D W 2020 Materials evolution of bone plates for internal fixation of bone fractures: a reviewJ. Mater. Sci. Technol.36190–208
[219] [219] Sui B Y, Lu H, Liu X and Sun J 2023 High-purity Mg and Mg-1Ca alloys: comparative assessment of the merits regarding degradation, osteogenesis, and biosafety for orthopedic applicationsJ. Mater. Sci. Technol.14058–66
[220] [220] Wang S Zet al2023 Transcatheter closure of perimembranous ventricular septal defect using a novel fully bioabsorbable occluder: multicenter randomized controlled trialSci. Bull.681051–9
[221] [221] Xu N, Fu J J, Zhao L Z, Chu P K and Huo K F 2020 Biofunctional elements incorporated nano/microstructured coatings on titanium implants with enhanced osteogenic and antibacterial performanceAdv. Healthcare Mater.92000681
[222] [222] Rahman Z U, Shabib I and Haider W 2016 Surface characterization and cytotoxicity analysis of plasma sprayed coatings on titanium alloysMater. Sci. Eng.C67675–83
[223] [223] Liang R Y, Xu Y L, Zhao M, Han G Y, Li J D, Wu W H, Dong M L, Yang J S and Liu Y F 2020 Properties of silver contained coatings on CoCr alloys prepared by vacuum plasma sprayingMater. Sci. Eng.C106110156
[224] [224] Liu Z X, Jiang X Y, Li Z Y, Zheng Y F, Nie J J, Cui Z D, Liang Y Q, Zhu S L, Chen D F and Wu S L 2022 Recent progress of photo-excited antibacterial materials via chemical vapor depositionChem. Eng. J.437135401
[225] [225] Sarraf M, Razak B A, Nasiri-Tabrizi B, Dabbagh A, Kasim N H A, Basirun W J and Bin Sulaiman E 2017 Nanomechanical properties, wear resistance andin-vitrocharacterization of Ta2O5 nanotubes coating on biomedical grade Ti–6Al–4VJ. Mech. Behav. Biomed. Mater.66159–71
[226] [226] Youn Y Het al2019 Simple and facile preparation of recombinant human bone morphogenetic protein-2 immobilized titanium implant via initiated chemical vapor deposition technique to promote osteogenesis for bone tissue engineering applicationMater. Sci. Eng.C100949–58
[227] [227] Yu W Q, Wang X N, Guo Y, Yang S H, Zhou Z, Sun X L, Zhang R W, Guo T Q, Zhou Y M and Zhao J H 2020 The osteogenesis performance of titanium modified via plasma-enhanced chemical vapor deposition:in vitroandin vivostudiesBiomed Mater.15055012
[228] [228] Bose S, Vahabzadeh S and Bandyopadhyay A 2013 Bone tissue engineering using 3D printingMater Today16496–504
[229] [229] Zhang Y F, Li J Z, Che S H and Tian Y W 2020 Electrochemical polishing of additively manufactured Ti–6Al–4V alloyMet. Mater. Int.26783–92
[230] [230] Tang J C, Wu Z Z, Yao X Y, Zhou Y H, Xiong Y, Li Y L, Xu J Y, Dargusch M S and Yan M 2022 From bio-inertness to osseointegration and antibacterial activity: a one-step micro-arc oxidation approach for multifunctional Ti implants fabricated by additive manufacturingMater. Des.221110962
[231] [231] Boyce B F, Xing L P and Schwarz E M 2011 The role of the immune system and bone cells in acute and chronic osteomyelitisOsteoimmunologyed J Lorenzo, Y Choi, M Horowitz and H Takayanagi (Academic) pp 369–90
[232] [232] Zhao L Z, Mei S L, Chu P K, Zhang Y M and Wu Z F 2010 The influence of hierarchical hybrid micro/nano-textured titanium surface with titania nanotubes on osteoblast functionsBiomaterials315072–82
[233] [233] Urlea V and Brailovski V 2017 Electropolishing and electropolishing-related allowances for powder bed selectively laser-melted Ti-6Al-4V alloy componentsJ. Mater. Process. Technol.2421–11
[234] [234] Pyka G, Burakowski A, Kerckhofs G, Moesen M, Van Bael S, Schrooten J and Wevers M 2012 Surface modification of Ti6Al4V open porous structures produced by additive manufacturingAdv. Eng. Mater.14363–70
[235] [235] Vrancken B, Thijs L, Kruth J P and Van Humbeeck J 2012 Heat treatment of Ti6Al4V produced by selective laser melting: microstructure and mechanical propertiesJ. Alloys Compd.541177–85
[236] [236] Wang M K, Wu Y W, Lu S H, Chen T, Zhao Y J, Chen H and Tang Z H 2016 Fabrication and characterization of selective laser melting printed Ti–6Al–4V alloys subjected to heat treatment for customized implants designProg. Nat. Sci.26671–7
[237] [237] Torres Y, Sarria P, Gotor F J, Gutirrez E, Peon E, Beltrn A M and Gonzlez J E 2018 Surface modification of Ti-6Al-4V alloys manufactured by selective laser melting: microstructural and tribo-mechanical characterizationSurf. Coat. Technol.34831–40
[238] [238] Hayat M D, Wen G A, Li T and Cao P 2015 Compatibility improvement of Ti-MIM feedstock using liquid surfactantJ. Mater. Process. Technol.22433–39
[239] [239] Li H Q, Wang M, Lou D J, Xia W L and Fang X Y 2020 Microstructural features of biomedical cobalt-chromium-molybdenum (CoCrMo) alloy from powder bed fusion to aging heat treatmentJ. Mater. Sci. Technol.45146–56
[240] [240] Rodriguez-Contreras A, Punset M, Calero J A, Gil F J, Ruperez E and Manero J M 2021 Powder metallurgy with space holder for porous titanium implants: a reviewJ. Mater. Sci. Technol.76129–49
[241] [241] Sarkar S, Kumar C S and Nath A K 2019 Investigation on the mode of failures and fatigue life of laser-based powder bed fusion produced stainless steel parts under variable amplitude loading conditionsAddit. Manuf.2571–83
[242] [242] Lv Y T, Wang B H, Liu G H, Tang Y J, Lu E Y, Xie K G, Lan C G, Liu J, Qin Z B and Wang L Q 2021 Metal material, properties and design methods of porous biomedical scaffolds for additive manufacturing: a reviewFront. Bioeng. Biotechnol.9641130
[243] [243] Zhang Y X, Zhang H Q, Xue J L, Jia Q, Wu Y, Li F and Guo W 2023 Microstructure transformed by heat treatment to improve fatigue property of laser solid formed Ti6Al4V titanium alloyMater. Sci. Eng.A865144363
[244] [244] Gupta S K, Shahidsha N, Bahl S, Kedaria D, Singamneni S, Yarlagadda P K D V, Suwas S and Chatterjee K 2021 Enhanced biomechanical performance of additively manufactured Ti–6Al–4V bone platesJ. Mech. Behav. Biomed. Mater.119104552
[245] [245] Qin P, Liu Y J, Sercombe T B, Li Y H, Zhang C W, Cao C D, Sun H Q and Zhang L C 2018 Improved corrosion resistance on selective laser melting produced Ti-5Cu alloy after heat treatmentACS Biomater. Sci. Eng.42633–42
[246] [246] Du Z X, Guo H, Liu J W, Cheng J, Zhao X P, Wang X P, Liu F and Cui X M 2020 Microstructure evolution during aging heat treatment and its effects on tensile properties and dynamic Young's modulus of a biomedical titanium alloyMater. Sci. Eng.A791139677
[247] [247] Wang K, Tan Q B, Wang J, Liu Y S, Zhai Z Y, Yao S and Peng Y 2024 A low-cost granular-medium hot quasi-isostatic pressing method for enhancing compressive properties of 3D printed structuresJ. Manuf. Process.115441–51
[248] [248] Bai L, Yan T Q, Xie Y X, Chang N, Li L, Liao L Q, Wu Y, Chen B Q and Zhuo L C 2024 Effects of heat treatment and hot isostatic pressing on microstructure and fatigue improvements in Ti-6Al-4V alloy fabricated by selective laser meltingMater. Lett.367136641
[249] [249] Yan D Qet al2022 Laser powder bed fusion and post processing of alloy 22Addit. Manuf.50102490
[250] [250] Ren D C, Zhang L M, Liu Y J, Ji H B, Li S J, Jin W and Lei J F 2023 Effect of hot isostatic pressing on the mechanical and corrosive properties of Ti–Ni alloy fabricated by selective laser meltingJ. Mater. Res. Technol.264595–605
[251] [251] Zhang M L, Ng C H, Dehghan-Manshadi A, Hall C, Bermingham M J and Dargusch M S 2023 Towards isotropic behaviour in Ti–6Al–4V fabricated with laser powder bed fusion and super transus hot isostatic pressingMater. Sci. Eng.A874145094
[252] [252] Cui Y W, Chen L Y, Chu Y H, Zhang L N, Li R F, Lu S, Wang L Q and Zhang L C 2023 Metastable pitting corrosion behavior and characteristics of passive film of laser powder bed fusion produced Ti–6Al–4V in NaCl solutions with different concentrationsCorros. Sci.215111017
[253] [253] Cui Y W, Wang L Q and Zhang L C 2024 Towards load-bearing biomedical titanium-based alloys: from essential requirements to future developmentsProg. Mater Sci.144101277
[254] [254] Tong Xet al2023 Mechanical properties, corrosion and degradation behaviors, andin vitrocytocompatibility of a biodegradable Zn–5La alloy for bone-implant applicationsActa Biomater.169641–60
[255] [255] Wang S Y, Zhao X, Hsu Y, He Y J, Wang F L, Yang F, Yan F Y, Xia D D and Liu Y S 2023 Surface modification of titanium implants with Mg-containing coatings to promote osseointegrationActa Biomater.16919–44
[256] [256] Dong J Y, Chen F M, Yao Y Y, Wu C C, Ye S L, Ma Z W, Yuan H P, Shao D, Wang L and Wang Y J 2024 Bioactive mesoporous silica nanoparticle-functionalized titanium implants with controllable antimicrobial peptide release potentiate the regulation of inflammation and osseointegrationBiomaterials305122465
[257] [257] Lin X, Yang S F, Lai K, Yang H L, Webster T J and Yang L 2017 Orthopedic implant biomaterials with both osteogenic and anti-infection capacities and associatedin vivoevaluation methodsNanomed. Nanotechnol. Biol. Med.13123–42
[258] [258] Su B Y, Xu Y, Yang Q M, Wu J Y, Zhao B S, Guo Z H, Xu C, Ren H H, Xu J Z and Li Z M 2024 Biodegradable magnesium and zinc composite microspheres with synergistic osteogenic effect for enhanced bone regenerationBiomater. Adv.164213977
[259] [259] Di Martino A, Salerno M, Galassi E, Grillini L, Dotti A, De Luca C and Filardo G 2025 Osteochondral regeneration with a tri-layered biomimetic resorbable scaffold: in vivo study in a sheep model up to 12 months of follow-upBiomaterials314122821
[260] [260] Zhang T, Wei D X, Lu E Y, Wang W, Wang K S, Li X Q, Zhang L C, Kato H, Lu W J and Wang L Q 2022 Microstructure evolution and deformation mechanism of + dual-phase Ti-xNb-yTa-2Zr alloys with high performanceJ. Mater. Sci. Technol.13168–81
[261] [261] Lu H Z, Yang C, Luo X, Ma H W, Song B, Li Y Y and Zhang L C 2019 Ultrahigh-performance TiNi shape memory alloy by 4D printingMater. Sci. Eng.A763138166
[262] [262] Zhang L C, Attar H, Calin M and Eckert J 2016 Review on manufacture by selective laser melting and properties of titanium based materials for biomedical applicationsMater. Technol.3166–76
[263] [263] Wang L Q, Xie L C, Zhang L C, Chen L Y, Ding Z H, Lv Y T, Zhang W, Lu W J and Zhang D 2018 Microstructure evolution and superelasticity of layer-like NiTiNb porous metal prepared by eutectic reactionActa Mater.143214–26
[264] [264] Zhang X Z, Leary M, Tang H P, Song T and Qian M 2018 Selective electron beam manufactured Ti-6Al-4V lattice structures for orthopedic implant applications: current status and outstanding challenges.Curr. Opin. Solid State Mater Sci.2275–99
[265] [265] Su J Let al2024 Recent innovations in laser additive manufacturing of titanium alloysInt. J. Extrem. Manuf.6032001
[266] [266] Wang Q G, Zhou P, Liu S F, Attarilar S, Ma R L W, Zhong Y S and Wang L Q 2020 Multi-scale surface treatments of titanium implants for rapid osseointegration: a reviewNanomaterials101244
[267] [267] Liu Y J, Zhang J S, Liu X C, Wu X, Wang J C, Zhang Y S, Wang L Q and Zhang L C 2021 Non-layer-wise fracture and deformation mechanism in beta titanium cubic lattice structure manufactured by selective laser meltingMater. Sci. Eng.A822141696
[268] [268] Hafeez N, Liu S F, Lu E Y, Wang L Q, Liu R, Lu W J and Zhang L C 2019 Mechanical behavior and phase transformation of -type Ti-35Nb-2Ta-3Zr alloy fabricated by 3D-printingJ. Alloys Compd.790117–26
[269] [269] Lu H Zet al2022 Simultaneous enhancement of mechanical and shape memory properties by heat-treatment homogenization of Ti2Ni precipitates in TiNi shape memory alloy fabricated by selective laser meltingJ. Mater. Sci. Technol.101205–16
[270] [270] Wang J C, Liu Y J, Rabadia C D, Liang S X, Sercombe T B and Zhang L C 2021 Microstructural homogeneity and mechanical behavior of a selective laser melted Ti-35Nb alloy produced from an elemental powder mixtureJ. Mater. Sci. Technol.61221–33
[271] [271] Dong Y P, Tang J C, Wang D W, Wang N, He Z D, Li J, Zhao D P and Yan M 2020 Additive manufacturing of pure Ti with superior mechanical performance, low cost, and biocompatibility for potential replacement of Ti-6Al-4VMater. Des.196109142
[272] [272] Dong Y Pet al2023 Strong and ductile titanium via additive manufacturing under a reactive atmosphereMater. Today Adv.17100347
[273] [273] Schaal H, Castany P, Laheurte P and Gloriant T 2023 Design of a low Young's modulus Ti-Zr-Nb-Sn biocompatible alloy by in situ laser powder bed fusion additive manufacturing processJ. Alloys Compd.966171539
[274] [274] Zhou M M, Wang P, Xu L, Deng L, Qi J F and Zhang L C 2023 Biomedical Mo particles reinforced titanium alloy fabricated by laser additive manufacturingJ. Alloys Compd.960170512
[275] [275] Lv Y T, Liu G H, Wang B H, Tang Y J, Lin Zjliu J, Wei G J and Wang L Q 2022 Pore strategy design of a novel NiTi-Nb biomedical porous scaffold based on a triply periodic minimal surfaceFront. Bioeng. Biotechnol.10910475
[276] [276] Wagner M A, Ocana-Pujol J L, Hadian A, Clemens F and Spolenak R 2023 Filament extrusion-based additive manufacturing of NiTi shape memory alloysMater. Des.225111418
[277] [277] Lu H Z, Ma H W, Yang Y, Cai W S, Luo X, Yan A, Kang L M, Yin S and Yang C 2023 Tailoring phase transformation behavior, microstructure, and superelasticity of NiTi shape memory alloys by specific change of laser power in selective laser meltingMater. Sci. Eng.A864144576
[278] [278] Xiong Z W, Li Z H, Sun Z, Hao S J, Yang Y, Li M, Song C H, Qiu P and Cui L S 2019 Selective laser melting of NiTi alloy with superior tensile property and shape memory effectJ. Mater. Sci. Technol.352238–42
[279] [279] Li J, Yuan H, Chandrakar A, Moroni L and Habibovic P 2021 3D porous Ti6Al4V-beta-tricalcium phosphate scaffolds directly fabricated by additive manufacturingActa Biomater.126496–510
[280] [280] Yang H W and Han Y 2025 Enhanced corrosion fatigue strength of additively manufactured graded porous scaffold-coated Ti-6Al-7Nb alloyJ. Mater. Sci. Technol.212192–206
[281] [281] Li K M, Yang J J, Yi Y L, Liu X C, Liu Y J, Zhang L C, Zhang W C, Li W, Chen D C and Zhou S F 2023 Enhanced strength-ductility synergy and mechanisms of heterostructured Ti6Al4V-Cu alloys produced by laser powder bed fusionActa Mater.256119112
[282] [282] Liu Y J, Zhang Y S and Zhang L C 2019 Transformation-induced plasticity and high strength in beta titanium alloy manufactured by selective laser meltingMaterialia6100299
[283] [283] Song Tet al2023 Strong and ductile titanium–oxygen–iron alloys by additive manufacturingNature61863–68
[284] [284] Li G, Liu W T, Liang L X, Liu T, Tian Y T and Wu H 2022 Preparing Sr-containing nano-structures on micro-structured titanium alloy surface fabricated by additively manufacturing to enhance the anti-inflammation and osteogenesisColloids Surf.B218112762
[285] [285] Xu W, Yu A, Lu X, Tamaddon M, Wang M, Zhang J, Zhang J, Qu X, Liu C and Su B 2021 Design and performance evaluation of additively manufactured composite lattice structures of commercially pure Ti (CP–Ti)Bioact. Mater.61215–22
[286] [286] Attar H, Lber L, Funk A, Calin M, Zhang L C, Prashanth K G, Scudino S, Zhang Y S and Eckert J 2015 Mechanical behavior of porous commercially pure Ti and Ti–TiB composite materials manufactured by selective laser meltingMater. Sci. Eng.A625350–6
[287] [287] Sallica-Leva E, Jardini A L and Fogagnolo J B 2013 Microstructure and mechanical behavior of porous Ti–6Al–4V parts obtained by selective laser meltingJ. Mech. Behav. Biomed. Mater.2698–108
[288] [288] Ning C Q and Zhou Y 2008 Correlations between the in vitro and in vivo bioactivity of the Ti/HA composites fabricated by a powder metallurgy methodActa Biomater.41944–52
[289] [289] Traini T, Mangano C, Sammons R L, Mangano F, Macchi A and Piattelli A 2008 Direct laser metal sintering as a new approach to fabrication of an isoelastic functionally graded material for manufacture of porous titanium dental implantsDent. Mater.241525–33
[290] [290] Parthasarathy J, Starly B, Raman S and Christensen A 2010 Mechanical evaluation of porous titanium (Ti6Al4V) structures with electron beam melting (EBM)J. Mech. Behav. Biomed. Mater.3249–59
[291] [291] Wieding J, Jonitz A and Bader R 2012 The effect of structural design on mechanical properties and cellular response of additive manufactured titanium scaffoldsMaterials51336–47
[292] [292] Schulze C, Weinmann M, Schweigel C, Keler O and Bader R 2018 Mechanical properties of a newly additive manufactured implant material based on Ti-42NbMaterials11124
[293] [293] Sing S L, Yeong W Y and Wiria F E 2016 Selective laser melting of titanium alloy with 50 wt% tantalum: microstructure and mechanical propertiesJ. Alloys Compd.660461–70
[294] [294] Chen W, Chen C, Zi X H, Cheng X F, Zhang X Y, Lin Y C and Zhou K C 2018 Controlling the microstructure and mechanical properties of a metastable titanium alloy by selective laser meltingMater. Sci. Eng.A726240–50
[295] [295] Luo J P, Sun J F, Huang Y J, Zhang J H, Zhang Y D, Zhao D P and Yan M 2019 Low-modulus biomedical Ti–30Nb–5Ta–3Zr additively manufactured by selective laser melting and its biocompatibilityMater. Sci. Eng.C97275–84
[296] [296] Luo X, Liu L H, Yang C, Lu H Z, Ma H W, Wang Z, Li D D, Zhang L C and Li Y Y 2021 Overcoming the strength–ductility trade-off by tailoring grain-boundary metastable Si-containing phase in -type titanium alloyJ. Mater. Sci. Technol.68112–23
[297] [297] Wang J C, Liu Y J, Liang S X, Zhang Y S, Wang L Q, Sercombe T B and Zhang L C 2022 Comparison of microstructure and mechanical behavior of Ti-35Nb manufactured by laser powder bed fusion from elemental powder mixture and prealloyed powderJ. Mater. Sci. Technol.1051–16
[298] [298] Xu Y H, Li Y H, Chen T Y, Dong C Y, Zhang K and Bao X F 2024 A short review of medical-grade stainless steel: corrosion resistance and novel techniquesJ. Mater. Res. Technol.292788–98
[299] [299] Li C, Chen Y L, Zhang X Y, Liu T T, Peng Y and Wang K H 2023 Effect of heat treatment on microstructure and mechanical properties of 17-4PH stainless steel manufactured by laser-powder bed fusionJ. Mater. Res. Technol.265707–15
[300] [300] Hamada A, Jaskari M, Gundgire T and Jrvenp A 2023 Enhancement and underlying fatigue mechanisms of laser powder bed fusion additive-manufactured 316 L stainless steelMater. Sci. Eng.A873145021
[301] [301] Wang Q, Ren L, Li X P, Zhang S Y, Sercombe T B and Yang K 2016 Antimicrobial Cu-bearing stainless steel scaffoldsMater. Sci. Eng.C68519–22
[302] [302] Lodhi M J K, Deen K M, Greenlee-Wacker M C and Haider W 2019 Additively manufactured 316 L stainless steel with improved corrosion resistance and biological response for biomedical applicationsAddit. Manuf.278–19
[303] [303] Kim J M, Jin H H, Kwon J, Kang S H and Lee B S 2022 Effects of cellular segregation for high strength and ductility of additively manufactured 304 L stainless steelMater. Charact.194112364
[304] [304] Qing Y, Li K S, Li D D and Qin Y G 2020 Antibacterial effects of silver incorporated zeolite coatings on 3D printed porous stainless steelsMater. Sci. Eng.C108110430
[305] [305] Wang X P, Chai J, Zhao J L, Yang Z G and Chen H 2024 Additively manufactured ultrastrong Al-containing austenitic stainless steels via engineering cellular structure with multi-nanoprecipitatesAddit. Manuf.85104184
[306] [306] Bertsch K M, Meric de Bellefon G, Kuehl B and Thoma D J 2020 Origin of dislocation structures in an additively manufactured austenitic stainless steel 316 LActa Mater.19919–33
[307] [307] Zou Y M, Tan C L, Qiu Z G, Ma W Y, Kuang M and Zeng D C 2021 Additively manufactured SiC-reinforced stainless steel with excellent strength and wear resistanceAddit. Manuf.41101971
[308] [308] Langi E, Zhao L G, Jamshidi P, Attallah M M, Silberschmidt V V, Willcock H and Vogt F 2021 Microstructural and mechanical characterization of thin-walled tube manufactured with selective laser melting for stent applicationJ. Mater. Eng. Perform30696–710
[309] [309] Jeon J M, Park J M, Yu J H, Kim J G, Seong Y, Park S H and Kim H S 2019 Effects of microstructure and internal defects on mechanical anisotropy and asymmetry of selective laser-melted 316 L austenitic stainless steelMater. Sci. Eng.A763138152
[310] [310] Han Y D, Zhang Y K, Jing H Y, Lin D Y, Zhao L, Xu L Y and Xin P 2020 Selective laser melting of low-content graphene nanoplatelets reinforced 316 L austenitic stainless steel matrix: strength enhancement without affecting ductilityAddit. Manuf.34101381
[311] [311] Crociata D D, Maskery I, Hague R and Simonelli M 2023 On the development of twinning-induced plasticity in additively manufactured 316 L stainless steelAddit. Manuf. Lett.7100176
[312] [312] Ghayoor M, Lee K, He Y J, Chang C H, Paul B K and Pasebani S 2020 Selective laser melting of austenitic oxide dispersion strengthened steel: processing, microstructural evolution and strengthening mechanismsMater. Sci. Eng.A788139532
[313] [313] Cho Y H, Park S Y, Kim J Y and Lee K A 2023 17-4PH stainless steel with excellent strength–elongation combination developed via material extrusion additive manufacturingJ. Mater. Res. Technol.243284–99
[314] [314] Wang Z D, Yang K, Chen M Z, Lu Y, Wang S B, Wu E K, Bi K D, Ni Z H and Sun G F 2022 High-quality remanufacturing of HSLA-100 steel through the underwater laser directed energy deposition in an underwater hyperbaric environmentSurf. Coat. Technol.437128370
[315] [315] Dryepondt S, Nandwana P, Unocic K A, Kannan R, Fernandez Zelaia P and List III F A 2022 High temperature high strength austenitic steel fabricated by laser powder-bed fusionActa Mater.231117876
[316] [316] Sun G F, Yao S, Wang Z D, Shen X T, Yan Y, Zhou R and Ni Z H 2018 Microstructure and mechanical properties of HSLA-100 steel repaired by laser metal depositionSurf. Coat. Technol.351198–211
[317] [317] Gnen A, Grol U, Koak M and am G 2023 A new approach to improve some properties of wire arc additively manufactured stainless steel components: simultaneous homogenization and boridingSurf. Coat. Technol.460129395
[318] [318] Qin P, Chen L Y, Liu Y J, Zhao C H, Lu Y J, Sun H and Zhang L C 2023 Corrosion behavior and mechanism of laser powder bed fusion produced CoCrW in an acidic NaCl solutionCorros. Sci.213110999
[319] [319] Nyakundi A M, Maina M R, Prasad R V S, Olakanmi E O and Pityana S 2024 Optimization of functional performance of additively manufactured cobalt–chromium–molybdenum alloy for dental implant applicationsJ. Manuf. Process.1201087–103
[320] [320] Brogini S, Sartori M, Giavaresi G, Cremascoli P, Alemani F, Bellini D, Martini L, Maglio M, Pagani S and Fini M 2021 Osseointegration of additive manufacturing Ti–6Al–4V and Co–Cr–Mo alloys, with and without surface functionalization with hydroxyapatite and type I collagenJ. Mech. Behav. Biomed. Mater.115104262
[321] [321] Wang Zet al2021 Additive manufacturing of a martensitic Co–Cr–Mo alloy: towards circumventing the strength–ductility trade-offAddit. Manuf.37101725
[322] [322] Jiang W T, An X L, Ni S, Wang L, He J Y, Chen Z B, Huang Y and Song M 2023 Achieving excellent strength-ductility combination through the control of intricate substructures in an additively manufactured Co–Cr–Mo alloyMater. Sci. Eng.A886145687
[323] [323] Pasco J, Tian Y, Chadha K, Jiang L, Dorin T and Aranas Jr C Jr 2023 Unusual interface phase transformation during continuous additive manufacturing of maraging steel and Co–30Cr–7Mo alloyMater. Sci. Eng.A881145336
[324] [324] Iatecola Aet al2021 Osseointegration improvement of Co-Cr-Mo alloy produced by additive manufacturingPharmaceutics13724
[325] [325] Smith T M, Kantzos C A, Zarkevich N A, Harder B J, Heczko M, Gradl P R, Thompson A C, Mills M J, Gabb T P and Lawson J W 2023 A 3D printable alloy designed for extreme environmentsNature617513–8
[326] [326] Liverani E and Fortunato A 2021 Stiffness prediction and deformation analysis of cobalt-chromium lattice structures: from periodic to functionally graded structures produced by additive manufacturingJ. Manuf. Process.68104–14
[327] [327] Wanniarachchi C T, Arjunan A, Baroutaji A and Singh M 2022 Mechanical performance of additively manufactured cobalt-chromium-molybdenum auxetic meta-biomaterial bone scaffoldsJ. Mech. Behav. Biomed. Mater.134105409
[328] [328] Cornacchia G, Cecchel S, Battini D, Petrogalli C and Avanzini A 2022 Microstructural, mechanical, and tribological characterization of selective laser melted CoCrMo alloy under different heat treatment conditions and hot isostatic pressingAdv. Eng. Mater.242100928
[329] [329] Kassapidou M, Stenport V F, Johansson C B, Syverud M, Hammarstrm Johansson P, Brjesson J and Hjalmarsson L 2023 Cobalt chromium alloys in fixed prosthodontics: investigations of mechanical properties and microstructureJ. Prosthet. Dent.130255.e1–10
[330] [330] Cosma C, Moldovan M, Simion M and Balc N 2022 Impact of laser parameters on additively manufactured cobalt-chromium restorationsJ. Prosthet. Dent.128421–9
[331] [331] Aarts J M, Choi J J E, Metcalfe S and Bennani V 2021 Influence of build angulation on the mechanical properties of a direct-metal laser-sintered cobalt-chromium used for removable partial denture frameworksJ. Prosthet. Dent.126224–30
[332] [332] Rendenbach Cet al2021 Improved in vivo osseointegration and degradation behavior of PEO surface-modified WE43 magnesium plates and screws after 6 and 12 monthsMater. Sci. Eng.C129112380
[333] [333] Xia F, Gevers M, Fognini A, Mok A T, Li B, Akabri N, Esmaeil Zadeh I, Qin-Dregely J and Xu C 2022 Deep confocal fluorescence microscopy with single-photon superconducting nanowire detectorProc. SPIE120891208905
[334] [334] Zhang Y Fet al2016 Implant-derived magnesium induces local neuronal production of CGRP to improve bone-fracture healing in ratsNat. Med.221160–9
[335] [335] Li M Z, Benn F, Derra T, Krger N, Zinser M, Smeets R, Molina-Aldareguia J M, Kopp A and Llorca J 2021 Microstructure, mechanical properties, corrosion resistance and cytocompatibility of WE43 Mg alloy scaffolds fabricated by laser powder bed fusion for biomedical applicationsMater. Sci. Eng.C119111623
[336] [336] Wang Xet al2024 Additively manufactured Zn-2Mg alloy porous scaffolds with customizable biodegradable performance and enhanced osteogenic abilityAdv. Sci.112307329
[337] [337] Jin Xet al2024In vitroandin vivostudies on biodegradable Zn porous scaffolds with a drug-loaded coating for the treatment of infected bone defectMater. Today Bio24100885
[338] [338] Zhang Z Bet al2023 A drug-loaded composite coating to improve osteogenic and antibacterial properties of Zn–1Mg porous scaffolds as biodegradable bone implantsBioact. Mater.27488–504
[339] [339] Liu J Get al2022 Biodegradable magnesium alloy WE43 porous scaffolds fabricated by laser powder bed fusion for orthopedic applications: process optimization,in vitroandin vivoinvestigationBioact. Mater.16301–19
[340] [340] Peng B, Xu H J, Song F, Wen P, Tian Y and Zheng Y F 2024 Additive manufacturing of porous magnesium alloys for biodegradable orthopedic implants: process, design, and modificationJ. Mater. Sci. Technol.18279–110
[341] [341] Attarzadeh F and Asadi E 2022 Analysis of element loss, densification, and defects in laser-based powder-bed fusion of magnesium alloy WE43J. Magnes. Alloys102118–36
[342] [342] Radha R and Sreekanth D 2017 Insight of magnesium alloys and composites for orthopedic implant applications—a reviewJ. Magnes. Alloys5286–312
[343] [343] Liu B C, Liu J G, Wang C X, Wang Z G, Min S Y, Wang C M, Zheng Y F, Wen P and Tian Y 2024 High temperature oxidation treated 3D printed anatomical WE43 alloy scaffolds for repairing periarticular bone defects:in vitroandin vivostudiesBioact. Mater.32177–89
[344] [344] Li Y, Jahr H, Zhang X Y, Leeflang M A, Li W, Pouran B, Tichelaar F D, Weinans H, Zhou J and Zadpoor A A 2019 Biodegradation-affected fatigue behavior of additively manufactured porous magnesiumAddit. Manuf.28299–311
[345] [345] Wang C Xet al2023 The effect of pore size on the mechanical properties, biodegradation and osteogenic effects of additively manufactured magnesium scaffolds after high temperature oxidation: anin vitroandin vivostudyBioact. Mater.28537–48
[346] [346] Ling C R, Li Q, Zhang Z, Yang Y W, Zhou W H, Chen W L, Dong Z, Pan C R and Shuai C J 2024 Influence of heat treatment on microstructure, mechanical and corrosion behavior of WE43 alloy fabricated by laser-beam powder bed fusionInt. J. Extrem. Manuf.6015001
[347] [347] Xia D D, Qin Y, Guo H, Wen P, Lin H, Voshage M, Schleifenbaum J H, Cheng Y and Zheng Y F 2023 Additively manufactured pure zinc porous scaffolds for critical-sized bone defects of rabbit femurBioact. Mater.1912–23
[348] [348] Putra N E, Leeflang M A, Minneboo M, Taheri P, Fratila-Apachitei L E, Mol J M C, Zhou J and Zadpoor A A 2021 Extrusion-based 3D printed biodegradable porous ironActa Biomater.121741–56
[349] [349] Gao C D, Wang L Y, Deng Y W, Peng S P and Shuai C J 2025 Multifactorial impacts of B-doping on Fe81Ga19 alloys prepared by laser-beam powder bed fusion: microstructure, magnetostriction, and osteogenesisJ. Mater. Sci. Technol.20514–26
[350] [350] Kim B H, Lim S S, Daud W R W, Gadd G M and Chang I S 2015 The biocathode of microbial electrochemical systems and microbially-influenced corrosionBioresour. Technol.190395–401
[351] [351] Shuai C J, Zhong S W, Shuai Y, Yang W J, Peng S P and He C X 2023 Accelerated anode and cathode reaction due to direct electron uptake and consumption by manganese dioxide and titanium dioxide composite cathode in degradation of iron compositeJ. Colloid Interface Sci.63295–107
[352] [352] Qin Y, Liu A B, Guo H, Shen Y N, Wen P, Lin H, Xia D D, Voshage M, Tian Y and Zheng Y F 2022 Additive manufacturing of Zn-Mg alloy porous scaffolds with enhanced osseointegration:in vitroandin vivostudiesActa Biomater.145403–15
[353] [353] Waqas M, He D Y, Wu X, Tan Z, Shao W and Guo X Y 2023 Investigation on the preparation, microstructure, mechanical and degradation properties of laser additive manufactured Zn–Li–Mg alloy for bioresorbable applicationJ. Mater. Res. Technol.268509–26
[354] [354] Yang Y W, Ling C R, Li Y G, Peng S P, Xie D Q, Shen L D, Tian Z J and Shuai C J 2023 Microstructure development and biodegradation behavior of additively manufactured Mg-Zn-Gd alloy with LPSO structureJ. Mater. Sci. Technol.1441–14
[355] [355] Deng Q Cet al2024 Laser powder bed fusion of Mg-6Gd-3Y-0.2Zr alloy: excellent printability, heterogeneous microstructure and dedicated direct aging heat treatmentJ. Magnes. Alloysaccepted (https://doi.org/10.1016/j.jma.2024.07.005)
[356] [356] Yang W Z, Yang H O, Yang K T, Wang Z H, Wang X H, Hu C H and Lin X 2024 Wire-arc additive manufacturing of Mg-Gd-Y-Zn-Zr alloy fabricated by cold metal transfer heat source: processing, microstructure, and mechanical propertiesJ. Mater. Res. Technol.295551–61
[357] [357] Yi H, Jia L, Ding J L and Li H J 2024 Achieving material diversity in wire arc additive manufacturing: leaping from alloys to composites via wire innovationInt. J. Mach. Tools Manuf.194104103
[358] [358] Pesode P and Barve S 2023 Additive manufacturing of magnesium alloys and its biocompatibilityBioprinting36e00318
[359] [359] Zeng Z R, Salehi M, Kopp A, Xu S W, Esmaily M and Birbilis N 2022 Recent progress and perspectives in additive manufacturing of magnesium alloysJ. Magnes. Alloys101511–41
[360] [360] Qin Y, Wen P, Xia D D, Guo H, Voshage M, Jauer L, Zheng Y F, Schleifenbaum J H and Tian Y 2020 Effect of grain structure on the mechanical properties and in vitro corrosion behavior of additively manufactured pure ZnAddit. Manuf.33101134
[361] [361] Carluccio D, Bermingham M, Kent D, Demir A G, Previtali B and Dargusch M S 2019 Comparative study of pure iron manufactured by selective laser melting, laser metal deposition, and casting processesAdv. Eng. Mater.211900049
[362] [362] Carluccio D, Xu C, Venezuela J, Cao Y X, Kent D, Bermingham M, Demir A G, Previtali B, Ye Q S and Dargusch M 2020 Additively manufactured iron-manganese for biodegradable porous load-bearing bone scaffold applicationsActa Biomater.103346–60
[363] [363] Deng Y W, Yang Y W, Gao C D, Feng P, Guo W, He C X, Chen J and Shuai C J 2018 Mechanism for corrosion protection of -TCP reinforced ZK60 via laser rapid solidificationInt. J. Bioprint.4124
[364] [364] Li Yet al2020 Additively manufactured biodegradable porous zincActa Biomater.101609–23
[365] [365] Chen C, Ling C R, Shao Y J, Yang Y W, Wang D S and Shuai C J 2023 Quasicrystal-strengthened biomedical magnesium alloy fabricated by laser additive manufacturingJ. Alloys Compd.947169555
[366] [366] Kuang X, Roach D J, Wu J T, Hamel C M, Ding Z, Wang T J, Dunn M L and Qi H J 2019 Advances in 4D printing: materials and applicationsAdv. Funct. Mater.291805290
[367] [367] Zhan Z, Chen L, Duan H, Chen Y, He M and Wang Z 2022 3D printed ultra-fast photothermal responsive shape memory hydrogel for microrobotsInt. J. Extrem. Manuf.4015302
[368] [368] Zhang L W, Huang X M, Cole T, Lu H D, Hang J Y, Li W H, Tang S Y, Boyer C, Davis T P and Qiao R R 2023 3D-printed liquid metal polymer composites as NIR-responsive 4D printing soft robotNat. Commun.147815
[369] [369] Jun J Jet al2017 Fully integrated silicon probes for high-density recording of neural activityNature551232–6
[370] [370] Salatino J W, Ludwig K A, Kozai T D Y and Purcell E K 2017 Glial responses to implanted electrodes in the brainNat. Biomed. Eng.1862–77
[371] [371] Park Y Get al2024 In-vivo integration of soft neural probes through high-resolution printing of liquid electronics on the craniumNat. Commun.151772
[372] [372] Su Let al2023 Modularized microrobot with lock-and-detachable modules for targeted cell delivery in bile ductSci. Adv.9eadj0883
[373] [373] Pathan M, Devaramani R and Adinarayanappa S M 2023 Modelling, simulation, and experiments of 4D printed twisting actuatorMater. Today: Proc.accepted (https://doi.org/10.1016/j.matpr.2023.03.004)
[374] [374] Weber R, Kuhlow M, Spierings A B and Wegener K 2023 4D printed assembly of sensors and actuators in complex formed metallic lightweight structuresJ. Manuf. Process.90406–17
[375] [375] Chekotu J C, Degli-Alessandrini G, Mughal M Z, Chatterjee S, Goodall R, Kinahan D and Brabazon D 2023 Control of mechanical and shape memory characteristics in martensitic NiTi by setting L-PBF parameters and build orientationJ. Mater. Res. Technol.256407–31
[376] [376] Wen S F, Liu Y, Zhou Y, Zhao A G, Yan C Z and Shi Y S 2021 Effect of Ni content on the transformation behavior and mechanical property of NiTi shape memory alloys fabricated by laser powder bed fusionOpt. Laser Technol.134106653
[377] [377] Wang J, Pan Z X, Carpenter K, Han J, Wang Z Y and Li H J 2021 Comparative study on crystallographic orientation, precipitation, phase transformation and mechanical response of Ni-rich NiTi alloy fabricated by WAAM at elevated substrate heating temperaturesMater. Sci. Eng.A800140307
[378] [378] Li B Qet al2021 Solidification characterization and its correlation with the mechanical properties and functional response of NiTi shape memory alloy manufactured by electron beam freeform fabricationAddit. Manuf.48102468
[379] [379] Ge F G, Peng B, Ke W C, Ao S S, Cong B Q, Qi Z W and Zeng Z 2020 Forming properties of wire arc additive manufactured NiTi shape memory alloyJ. Manuf. Eng.5699–106
[380] [380] Fu J, Hu Z H, Song X, Zhai W, Long Y, Li H and Fu M W 2020 Micro selective laser melting of NiTi shape memory alloy: defects, microstructures and thermal/mechanical propertiesOpt. Laser Technol.131106374
[381] [381] Hamilton R F, Bimber B A, Taheri Andani M and Elahinia M 2017 Multi-scale shape memory effect recovery in NiTi alloys additive manufactured by selective laser melting and laser directed energy depositionJ. Mater. Process. Technol.25055–64
[382] [382] Shiva S, Palani I A, Mishra S K, Paul C P and Kukreja L M 2015 Investigations on the influence of composition in the development of Ni–Ti shape memory alloy using laser based additive manufacturingOpt. Laser Technol.6944–51
[383] [383] Shayesteh Moghaddam N, Saghaian S E, Amerinatanzi A, Ibrahim H, Li P Z, Toker G P, Karaca H E and Elahinia M 2018 Anisotropic tensile and actuation properties of NiTi fabricated with selective laser meltingMater. Sci. Eng.A724220–30
[384] [384] Wang J, Pan Z X, Yang G S, Han J, Chen X Z and Li H J 2019 Corrigendum to “Location dependence of microstructure, phase transformation temperature and mechanical properties on Ni-rich NiTi alloy fabricated by wire arc additive manufacturing”. [Mater. Sci. Eng. A 749 (2019) 218–222]Mater. Sci. Eng.A756129
[385] [385] Wang J, Pan Z X, Wang Y F, Wang L, Su L H, Cuiuri D, Zhao Y H and Li H J 2020 Evolution of crystallographic orientation, precipitation, phase transformation and mechanical properties realized by enhancing deposition current for dual-wire arc additive manufactured Ni-rich NiTi alloyAddit. Manuf.34101240
[386] [386] Elahinia M, Shayesteh Moghaddam N, Taheri Andani M, Amerinatanzi A, Bimber B A and Hamilton R F 2016 Fabrication of NiTi through additive manufacturing: a reviewProg. Mater. Sci.83630–63
[387] [387] Zheng D, Li R D, Yuan T C, Xiong Y, Song B, Wang J X and Su Y D 2021 Microstructure and mechanical property of additively manufactured NiTi alloys: a comparison between selective laser melting and directed energy depositionJ. Cent. South Univ.281028–42
[388] [388] Kim S Het al2018 Precisely printable and biocompatible silk fibroin bioink for digital light processing 3D printingNat. Commun.91620
[389] [389] Cho S Y, Ho D H, Choi Y Y, Lim S, Lee S, Suk J W, Jo S B and Cho J H 2022 A general fruit acid chelation route for eco-friendly and ambient 3D printing of metalsNat. Commun.13104
[390] [390] Hafeez N, Liu J, Wang L Q, Wei D X, Tang Y J, Lu W J and Zhang L C 2020 Superelastic response of low-modulus porous beta-type Ti-35Nb-2Ta-3Zr alloy fabricated by laser powder bed fusionAddit. Manuf.34101264
[391] [391] Qin P, Chen L Y, Liu Y J, Jia Z, Liang S X, Zhao C H, Sun H and Zhang L C 2021 Corrosion and passivation behavior of laser powder bed fusion produced Ti-6Al-4V in static/dynamic NaCl solutions with different concentrationsCorros. Sci.191109728
[392] [392] Taniguchi N, Fujibayashi S, Takemoto M, Sasaki K, Otsuki B, Nakamura T, Matsushita T, Kokubo T and Matsuda S 2016 Effect of pore size on bone ingrowth into porous titanium implants fabricated by additive manufacturing: anin vivoexperimentMater. Sci. Eng.C59690–701
[393] [393] Tsai P Iet al2019 Multi-scale mapping for collagen-regulated mineralization in bone remodeling of additive manufacturing porous implantsMater. Chem. Phys.23083–92
[394] [394] Shum J Met al2023 Enhanced bone formation in locally-optimised, low-stiffness additive manufactured titanium implants: an in silico andin vivotibial advancement studyActa Biomater.156202–13
[395] [395] Bregoli C, Stacchiotti F, Fiocchi J, Ferrari R, Biffi C A, Morellato K, Gruppioni E and Tuissi A 2023 A biomechanical study of osseointegrated patient-matched additively manufactured implant for treatment of thumb amputeesMed. Eng. Phys.118104019
[396] [396] Ishimoto Tet al2022Outstanding in vivomechanical integrity of additively manufactured spinal cages with a novel “honeycomb tree structure” design via guiding bone matrix orientationSpine J.221742–57
[397] [397] Cheng J G, Gao Y, Long Z Y, Pei G X, Li Z Y and Meng G L 2022 Repair of distal fibular and lateral malleolus defects with individualized 3D-printed titanium alloy prosthesis: the first case report from ChinaInt. J. Surg. Case Rep.94107057
[398] [398] Xu L, Qin H, Tan J, Cheng Z L, Luo X, Tan H T and Huang W H 2021 Clinical study of 3D printed personalized prosthesis in the treatment of bone defect after pelvic tumor resectionJ. Orthop. Transl.29163–9
[399] [399] Li L, Shi J P, Zhang K J, Yang L F, Yu F, Zhu L Y, Liang H X, Wang X S and Jiang Q 2019 Early osteointegration evaluation of porous Ti6Al4V scaffolds designed based on triply periodic minimal surface modelsJ. Orthop. Transl.1994–105
[400] [400] Wieding J, Lindner T, Bergschmidt P and Bader R 2015 Biomechanical stability of novel mechanically adapted open-porous titanium scaffolds in metatarsal bone defects of sheepBiomaterials4635–47
[401] [401] Lin C Y, Wirtz T, LaMarca F and Hollister S J 2007 Structural and mechanical evaluations of a topology optimized titanium interbody fusion cage fabricated by selective laser melting processJ. Biomed. Mater. Res.A83A272–9
[402] [402] Rana M, Karmakar S, Bandyopadhyay A and Roychowdhury A 2023 Design and manufacturing of patient-specific Ti6Al4V implants with inhomogeneous porosityJ. Mech. Behav. Biomed. Mater.143105925
[403] [403] Chung K S, Shin D A, Kim K N, Ha Y, Yoon D H and Yi S 2019 Vertebral reconstruction with customized 3-dimensional−printed spine implant replacing large vertebral defect with 3-year follow-upWorld Neurosurg.12690–95
[404] [404] Siu T L, Rogers J M, Lin K, Thompson R and Owbridge M 2018 Custom-made titanium 3-dimensional printed interbody cages for treatment of osteoporotic fracture–related spinal deformityWorld Neurosurg.1111–5
[405] [405] Silva L C, Batalha G F, Miranda F and Coelho R S 2023 Validation of lumbar fusion device TILIF (Ti-6Al-4V) manufactured by EBM additive manufacturing through fem modeling high cycle fatigue testsMater. Today: Proc.accepted (https://doi.org/10.1016/j.matpr.2023.05.050)
[406] [406] Xiong Y Z, Wang W, Gao R N, Zhang H, Dong L L, Qin J W, Wang B B, Jia W T and Li X 2020 Fatigue behavior and osseointegration of porous Ti-6Al-4V scaffolds with dense core for dental applicationMater. Des.195108994
[407] [407] Liu Y C, Sing S L, Lim R X E, Yeong W Y and Goh B T 2022 Preliminary investigation on the geometric accuracy of 3D printed dental implant using a monkey maxilla incisor modelInt. J. Bioprint.8476
[408] [408] Finazzi V, Berti F, Guillory II R J, Petrini L, Previtali B and Demir A G 2022 Patient-specific cardiovascular superelastic NiTi stents produced by laser powder bed fusionProc. CIRP110242–6
[409] [409] Paul B, Lode A, Placht A M, Vo A, Pilz S, Wolff U, Oswald S, Gebert A, Gelinsky M and Hufenbach J 2022 Cell–material interactions in direct contact culture of endothelial cells on biodegradable iron-based stents fabricated by laser powder bed fusion and impact of ion releaseACS Appl. Mater. Interfaces14439–51
[410] [410] Chen K, Wan H R, Fang X and Chen H Y 2022 Laser additive manufacturing of anti-tetrachiral endovascular stents with negative Poisson's ratio and favorable cytocompatibilityMicromachines131135
[411] [411] Jamshidi P, Panwisawas C, Langi E, Cox S C, Feng J L, Zhao L G and Attallah M M 2022 Development, characterisation, and modelling of processability of nitinol stents using laser powder bed fusionJ. Alloys Compd.909164681
[412] [412] Wang F, Fan S C, Huang W, Shen Y H, Li C L and Wu Y Q 2022 Dynamic navigation for prosthetically driven zygomatic implant placement in extensive maxillary defects: results of a prospective case seriesClin. Implant Dent. Relat. Res.24435–43
[413] [413] Mangano F G, Cirotti B, Sammons R L and Mangano C 2012 Custom-made, root-analogue direct laser metal forming implant: a case reportLasers Med. Sci.271241–5
[414] [414] Garca-Sala Bonmati F, Prez-Barquero J A, Ilzarbe Ripoll L M, Labaig Rueda C, Fernandez-Estevan L and Revilla-Len M 2023 An additively manufactured, magnetically retained, and stackable implant surgical guide: a dental techniqueJ. Prosthet. Dent.130444–52
[415] [415] Tunchel S, Blay A, Kolerman R, Mijiritsky E and Shibli J A 2016 3D printing/additive manufacturing single titanium dental implants: a prospective multicenter study with 3 years of follow-upInt. J. Dent.20168590971
[416] [416] Mangano F, Luongo F, Shibli J A, Anil S and Mangano C 2014 Maxillary overdentures supported by four splinted direct metal laser sintering implants: a 3-year prospective clinical studyInt. J. Dent.2014252343
[417] [417] Revilla-Len M, Ceballos L, Martnez-Klemm I and zcan M 2018 Discrepancy of complete-arch titanium frameworks manufactured using selective laser melting and electron beam melting additive manufacturing technologiesJ. Prosthet. Dent.120942–7
[418] [418] Shu C, He H, Fan B W, Li J H, Wang T, Li D Y, Li Y M and He H 2022 Biocompatibility of vascular stents manufactured using metal injection molding in animal experimentsTrans. Nonferrous Met. Soc. China32569–80
[419] [419] Lei Y, Chen X, Li Z, Zhang L, Sun W, Li L and Tang F 2020 A new process for customized patient-specific aortic stent graft using 3D printing techniqueMed. Eng. Phys.7780–87
[420] [420] Wen P, Voshage M, Jauer L, Chen Y Z, Qin Y, Poprawe R and Schleifenbaum J H 2018 Laser additive manufacturing of Zn metal parts for biodegradable applications: processing, formation quality and mechanical propertiesMater. Des.15536–45
[421] [421] Demir A G and Previtali B 2017 Additive manufacturing of cardiovascular CoCr stents by selective laser meltingMater. Des.119338–50
[422] [422] Abdelazeem M H, Elwy R, Jenkins A and El Refaee E 2023 Late frontal bone reconstruction using three-dimensional printed models for titanium mesh customization: a case seriesWorld Neurosurg.177e161–8
[423] [423] Carter L N, Addison O, Naji N, Seres P, Wilman A H, Shepherd D E T, Grover L and Cox S 2020 Reducing MRI susceptibility artefacts in implants using additively manufactured porous Ti-6Al-4V structuresActa Biomater.107338–48
[424] [424] Jardini A L, Larosa M A, Filho R M, de Carvalho Zavaglia C A, Bernardes L F, Lambert C S, Calderoni D R and Kharmandayan P 2014 Cranial reconstruction: 3D biomodel and custom-built implant created using additive manufacturingJ. Cranio Maxill. Surg.421877–84
[425] [425] Kozakiewicz M, Wach T, Szymor P and Zieliski R 2017 Two different techniques of manufacturing TMJ replacements—a technical reportJ. Cranio Maxill. Surg.451432–7
[426] [426] Qin P, Chen L Y, Zhao C H, Liu Y J, Cao C D, Sun H and Zhang L C 2021 Corrosion behavior and mechanism of selective laser melted Ti35Nb alloy produced using pre-alloyed and mixed powder in Hank's solutionCorros. Sci.189109609
[427] [427] Yang S F, Leong K F, Du Z H and Chua C K 2001 The design of scaffolds for use in tissue engineering. Part I. Traditional factorsTissue Eng.7679–89
[428] [428] Wang X, Jiang M, Zhou Z W, Gou J H and Hui D 2017 3D printing of polymer matrix composites: a review and prospectiveCompositesB110442–58
[429] [429] Banerjee D and Williams J C 2013 Perspectives on titanium science and technologyActa Mater.61844–79
[430] [430] Chen Z W, Li Z Y, Li J J, Liu C B, Lao C S, Fu Y L, Liu C Y, Li Y, Wang P and He Y 2019 3D printing of ceramics: a reviewJ. Eur. Ceram. Soc.39661–87
[431] [431] Buser D, Schenk R K, Steinemann S, Fiorellini J P, Fox C H and Stich H 1991 Influence of surface characteristics on bone integration of titanium implants. A histomorphometric study in miniature pigsJ. Biomed. Mater. Res.25889–902
[432] [432] Wang X J, Xu S Q, Zhou S W, Xu W, Leary M, Choong P, Qian M, Brandt M and Xie Y M 2016 Topological design and additive manufacturing of porous metals for bone scaffolds and orthopaedic implants: a reviewBiomaterials83127–41
[433] [433] Witte F 2010 The history of biodegradable magnesium implants: a reviewActa Biomater.61680–92
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Li Yuhua, Jiang Deyu, Zhu Rui, Yang Chengliang, Wang Liqiang, Zhang Lai-Chang. Revolutionizing medical implant fabrication: advances in additive manufacturing of biomedical metals[J]. International Journal of Extreme Manufacturing, 2025, 7(2): 22002
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Received: Jul. 23, 2024
Accepted: May. 29, 2025
Published Online: May. 29, 2025
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