Medical Devices in Orthopedic Applications

被引:53
作者
Long, Philip H. [1 ]
机构
[1] Vet Path Serv Inc, Mason, OH 45040 USA
关键词
Orthopedic; biomaterials; pathology; medical devices; biocompatibility;
D O I
10.1177/0192623307310951
中图分类号
R36 [病理学];
学科分类号
100104 ;
摘要
Orthopedic medical devices have been extremely successful in restoring mobility, reducing pain, and improving the quality of life for millions of individuals each year. Their success is reflected in the worldwide biomaterials market, in which orthopedic devices dominated sales at approximately $14 billion in 2002. Of this, approximately $12 billion was spent on joint replacements. In spite of their overwhelming benefits and successes, orthopedic medical devices are not without risk of adverse effects. Most adverse joint replacement outcomes are thought to be mediated by degradation products generated by wear and electrochemical corrosion. Infection and flaws in device manufacturing are other noteworthy causes of orthopedic device failure. This article illustrates and discusses the uses, general properties, and limitations (including adverse outcomes) of orthopedic biomaterials, which are fundamental to understanding requirements for improving current orthopedic medical devices.
引用
收藏
页码:85 / 91
页数:7
相关论文
共 50 条
  • [31] Anodization of titanium alloys for orthopedic applications
    Izmir, Merve
    Ercan, Batur
    FRONTIERS OF CHEMICAL SCIENCE AND ENGINEERING, 2019, 13 (01) : 28 - 45
  • [32] The future of Food and Drug Administration regulation on artificial intelligence-enabled medical devices: an orthopedic surgeon's guide
    Rana, S. Shamtej Singh
    Ghahremani, Jacob S.
    Navarro, Ronald A.
    JOURNAL OF SHOULDER AND ELBOW SURGERY, 2025, 34 (01) : 260 - 264
  • [33] Antibacterial properties of PEKK for orthopedic applications
    Wang, Mian
    Bhardwaj, Garima
    Webster, Thomas J.
    INTERNATIONAL JOURNAL OF NANOMEDICINE, 2017, 12 : 6471 - 6476
  • [34] Strontium-substituted biphasic calcium phosphate scaffold for orthopedic applications
    Mohapatra, Bijayinee
    Rautray, Tapash R.
    JOURNAL OF THE KOREAN CERAMIC SOCIETY, 2020, 57 (04) : 392 - 400
  • [35] Biocompatible evaluation of barium titanate foamed ceramic structures for orthopedic applications
    Ball, Jordan P.
    Mound, Brittnee A.
    Nino, Juan C.
    Allen, Josephine B.
    JOURNAL OF BIOMEDICAL MATERIALS RESEARCH PART A, 2014, 102 (07) : 2089 - 2095
  • [36] Perspectives on alternatives to phthalate plasticized poly(vinyl chloride) in medical devices applications
    Chiellini, Federica
    Ferri, Marcella
    Morelli, Andrea
    Dipaola, Lucia
    Latini, Giuseppe
    PROGRESS IN POLYMER SCIENCE, 2013, 38 (07) : 1067 - 1088
  • [37] Developments of microfluidics for orthopedic applications: A review
    Sun M.
    Gong J.
    Cui W.
    Li C.
    Yu M.
    Ye H.
    Cui Z.
    Chen J.
    He Y.
    Liu A.
    Wang H.
    Smart Materials in Medicine, 2023, 4 : 111 - 122
  • [38] FDA regulatory considerations for innovative orthopedic devices: A review
    Huxman, Connor
    INJURY-INTERNATIONAL JOURNAL OF THE CARE OF THE INJURED, 2025, 56 (04):
  • [39] ESR investigations of gamma irradiated medical devices
    Turker, N. Selcan
    Ozer, A. Yekta
    Colak, Seyda
    Kutlu, Burak
    Nohutcu, Rahime
    APPLIED RADIATION AND ISOTOPES, 2017, 130 : 121 - 130
  • [40] A comprehensive review on additive manufacturing of medical devices
    da Silva, Leonardo Rosa Ribeiro
    Sales, Wisley Falco
    Campos, Felipe dos Anjos Rodrigues
    de Sousa, Jose Aecio Gomes
    Davis, Rahul
    Singh, Abhishek
    Coelho, Reginaldo Teixeira
    Borgohain, Bhaskar
    PROGRESS IN ADDITIVE MANUFACTURING, 2021, 6 (03) : 517 - 553