State of the art of bioimplants manufacturing: part I
Cheng-Wei Kang, Feng-Zhou Fang
Advances in Manufacturing ›› 2018, Vol. 6 ›› Issue (1) : 20-40.
State of the art of bioimplants manufacturing: part I
Bioimplants are becoming increasingly important in the modern society due to the fact of an aging population and associated issues of osteoporosis and osteoarthritis. The manufacturing of bioimplants involves an understanding of both mechanical engineering and biomedical science to produce biocompatible products with adequate lifespans. A suitable selection of materials is the prerequisite for a long-term and reliable service of the bioimplants, which relies highly on the comprehensive understanding of the material properties. In this paper, most biomaterials used for bioimplants are reviewed. The typical manufacturing processes are discussed in order to provide a perspective on the development of manufacturing fundamentals and latest technologies. The review also contains a discussion on the current measurement and evaluation constraints of the finished bioimplant products. Potential future research areas are presented at the end of this paper.
Bioimplant / Precision manufacturing / Precision metrology / Evaluation
[1.] |
|
[2.] |
|
[3.] |
|
[4.] |
|
[5.] |
|
[6.] |
|
[7.] |
Sumita M, Hanawa T, Ohnishi I et al (2003) Failure processes in biometallic materials. In: Milne I, Ritchie R, Karihaloo BL (eds) IMOR Karihaloo, comprehensive structural integrity, Pergamon, Oxford, pp 131–167
|
[8.] |
|
[9.] |
|
[10.] |
|
[11.] |
|
[12.] |
|
[13.] |
Breme H, Biehl V, Helsen J (1998) Metals and implants. Metals Biomater 615(46):37–72
|
[14.] |
David Y (1999) The biomedical engineering handbook. In: Bronzino JD (ed) The biomedical engineering handbook, 2nd edn. 2 Volume Set. CRC Press, Boca Raton
|
[15.] |
|
[16.] |
|
[17.] |
|
[18.] |
|
[19.] |
|
[20.] |
|
[21.] |
|
[22.] |
|
[23.] |
|
[24.] |
|
[25.] |
|
[26.] |
|
[27.] |
|
[28.] |
|
[29.] |
|
[30.] |
Alvarado J, Maldonado R, Marxuach J et al (2003) Biomechanics of hip and knee prostheses. Appl Eng Mech Med GED–University of Puerto Rico Mayaguez
|
[31.] |
|
[32.] |
|
[33.] |
|
[34.] |
|
[35.] |
|
[36.] |
|
[37.] |
|
[38.] |
|
[39.] |
|
[40.] |
|
[41.] |
|
[42.] |
|
[43.] |
|
[44.] |
|
[45.] |
|
[46.] |
|
[47.] |
|
[48.] |
|
[49.] |
|
[50.] |
|
[51.] |
|
[52.] |
|
[53.] |
|
[54.] |
|
[55.] |
|
[56.] |
|
[57.] |
|
[58.] |
|
[59.] |
|
[60.] |
|
[61.] |
|
[62.] |
|
[63.] |
|
[64.] |
|
[65.] |
|
[66.] |
|
[67.] |
Helmer J, Driskell T (1969) Research on bioceramics. In: Symposium on use of ceramics as surgical implants, South Carolina
|
[68.] |
|
[69.] |
|
[70.] |
|
[71.] |
|
[72.] |
|
[73.] |
|
[74.] |
|
[75.] |
|
[76.] |
|
[77.] |
|
[78.] |
|
[79.] |
Poser R, Magee F, Kay J et al (1990) In-vivo characterization of a hydroxylapatite coating. In: Transactions of the 16th annual meeting of the society for biomaterials, 1990, p 170
|
[80.] |
|
[81.] |
|
[82.] |
|
[83.] |
|
[84.] |
|
[85.] |
|
[86.] |
|
[87.] |
Eisen W, Ferguson B, German R et al (1998) Powder metal technologies and applications. In: Narayan R (ed) ASM handbook, vol 7. ASM International, USA, pp 308–2096
|
[88.] |
|
[89.] |
|
[90.] |
|
[91.] |
|
[92.] |
|
[93.] |
|
[94.] |
|
[95.] |
|
[96.] |
|
[97.] |
|
[98.] |
Gong X, Anderson T, Chou K (2012) Review on powder-based electron beam additive manufacturing technology. In: ASME/ISCIE international symposium on flexible automation. American Society of Mechanical Engineers, pp 507–515
|
[99.] |
|
[100.] |
|
[101.] |
|
[102.] |
|
[103.] |
|
[104.] |
|
[105.] |
|
[106.] |
|
[107.] |
|
[108.] |
|
[109.] |
|
[110.] |
|
[111.] |
|
[112.] |
|
[113.] |
Mueller B (2012) Additive manufacturing technologies: rapid prototyping to direct digital manufacturing. Assem Autom 32(2):151–154
|
[114.] |
|
[115.] |
|
[116.] |
|
[117.] |
|
[118.] |
|
[119.] |
|
[120.] |
|
[121.] |
Kotani H, Komotori J, Mizutani M et al (2009) Surface finishing and modification for cobalt-chromium-molybdenum alloy by electrolytic in-process dressing (ELID) grinding. In: 5th international conference on leading edge manufacturing in 21st century, LEM 2009
|
[122.] |
|
[123.] |
|
[124.] |
|
[125.] |
Zhang LC, Kiat E, Pramanik A(2009) A briefing on the manufacture of hip joint prostheses. In: 12th international symposium on advances in abrasive technology (ISAAT2009). Gold Coast, Australia, 2009, pp 212–216
|
[126.] |
Basim GB, Ozdemir Z (2015) Chemical mechanical polishing implementation on dental implants. In: International conference on planarization/CMP technology (ICPT). IEEE, pp 1–4
|
[127.] |
|
[128.] |
|
[129.] |
|
[130.] |
|
[131.] |
|
[132.] |
|
[133.] |
|
[134.] |
|
[135.] |
|
[136.] |
|
[137.] |
|
[138.] |
|
[139.] |
|
[140.] |
|
[141.] |
|
[142.] |
Brand U, Cao S, Hoffmann W et al (2001) A micro-probing system for dimensional metrology on microsystem components. In: International conference on European society for precision engineering and nanotechnology (EUSPEN). 2001, pp 266–269
|
[143.] |
|
[144.] |
Seitavuopio P (2006) The roughness and imaging characterisation of different pharmaceutical surfaces. Dissertation, University of Helsinki. Dissertation, University of Helsninki, Finland
|
[145.] |
|
[146.] |
|
[147.] |
Tamkin Sr JM (2010) A study of image artifacts caused by structured mid-spatial frequency fabrication errors on optical surfaces. Dissertation, The University of Arizona, USA
|
[148.] |
|
[149.] |
|
/
〈 |
|
〉 |