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Section 1: Summary of Titanium Alloy mechanical properties, corrosion resistance, fabrication approaches and Alloy Design for Biomedical Use
1.1: Titanium for Medical and Dental Applications, An Introduction
1.2: Advances in Titanium Metal Component Fabrication, An Overview
1.2 Design of Titanium Implants for Additive Manufacturing
1.3: The Molecular Orbital Approach and its Application to Biomedical Titanium Alloy Design
1.5 Additively Manufactured Ti-6Al-4V Lattice Structures for Medical Applications"
Section 2: Titanium for Implants, Medical
2.1: Processing cannulated titanium bars for screws and nails in the orthopedics: a proprietary approach
2.2: Transition of surface modification of titanium for medical and dental use
2.3 "Modern methods of implant surface geometry modification of titanium and its alloys for enhanced biomedical characteristics"
2.4: Surface Modifications and Cellular Responses of Biomedical Thin Films on Titanium Implants
2.5: The Effect of Nitinol on Medical Device Innovation
2.6: Additive Manufacturing of Ti alloys for Biomedical Applications
2.7: Titanium Spinal Fixation Devices
2.8: Biocompatible beta-Ti alloys with enhanced strength due to increased oxygen content
2.9: Nanostructured pure Ti for development of miniaturized biomedical implants
2.10: Mechanical performance and cell response of pure titanium with ultrafine grained structure produced by severe plastic deformation
2.11: 3-D Printed Ti-6Al-4V Implants
2.12: Microstructure and lattice defects in ultra-fine grained biomedical alpha + beta and metastable beta Ti alloys
2.13: Aluminum- and Vanadium-free Titanium Alloys for Application in Medical Engineering
2.14: Ti-Nb-Zr system and its surface biofunctionalization for biomedical applications
Section 3: Titanium for Implants , DentaL
3.1:Ti-6Al-4V orthopedic implants made by selective electron beam melting
3.2 3D Printed Titanium Alloys of Orthopedic Applications
3.3: 3D Printing of Low Modulus Titanium for Medical Applications
Section 4: Titanium Implants for Dental Applications
4.1: Why Titanium in Dental Applications
4.2: The role of Titanium Implants in Dentistry
4.3: Titanium MIM for manufacturing of medical implants and devices
Section 5: Nitinol Applications in Medical and Dental Applications
5.1: Nitinol and its Applications in Medical/Dental Device 5b
5.2: NiTi shape memory alloys for medical applications
Titanium in Medical and Dental Applications is an essential reference book for those involved in biomedical materials and advanced metals. Written by well-known experts in the field, it covers a broad array of titanium uses, including implants, instruments, devices, the manufacturing processes used to create them, their properties, corrosion resistance and various fabrication approaches. Biomedical titanium materials are a critically important part of biomaterials, especially in cases where non-metallic biomedical materials are not suited to applications, such as the case of load-bearing implants.
The book also covers the use of titanium for implants in the medical and dental fields and reviews the use of titanium for medical instruments and devices.
- Provides an understanding of the essential and broad applications of Titanium in both the medical and dental industries
- Discusses the pathways to manufacturing titanium into critical biomedical and dental devices
- Includes insights into further applications within the industry
Researchers and engineers in the field of advanced materials and medical and dental engineering; undergraduate and graduate students
- No. of pages:
- © Woodhead Publishing 2018
- 9th May 2018
- Woodhead Publishing
- eBook ISBN:
- Paperback ISBN:
Francis H Froes, Ph.D. has been involved in the Titanium field with an emphasis on Powder Metallurgy (P/M) for more than 40 years. He was employed by a primary Titanium producer-Crucible Steel Company-where he was leader of the Titanium group. He was the program manager on a multi-million dollar US Air Force (USAF) contract on Titanium P/M. He then spent time at the USAF Materials Lab where he was supervisor of the Light Metals group (which included Titanium). This was followed by 17 years at the University of Idaho where he was a Director and Department Head of the Materials Science and Engineering Department. He has over 800 publications, in excess of 60 patents, and has edited almost 30 books-the majority on various aspects of Titanium again with an emphasis on P/M. He gave the key-note presentation at the first TDA (ITA) Conference. In recent years he has co-sponsored four TMS Symposia on Cost Effective Titanium featuring numerous papers on P/M. He is a Fellow of ASM, is a member of the Russian Academy of Science, and was awarded the Service to Powder Metallurgy by the Metal Powder Association. Recently he has been a co-author of three comprehensive papers on the Additive Manufacturing of Titanium.
Department Chair, Materials Science and Engineering, University of Idaho (retired), Director, Institute for Materials and Advanced Processes (IMAP) (retired)
Dr Ma Qian is a Distinguished Professor of the School of Engineering at Royal Melbourne Institute of Technology (RMIT University), Melbourne, Australia. His current research interests include metal additive manufacturing, powder metallurgy of light metals and alloys, solidification processing, metallic biomaterials, high entropy and medium entropy alloys, biomimetic design and lattice materials. He has published 225 peer-reviewed journal papers (nearly 100 papers on titanium), which have attracted more than 8200 Scopus citations as of November 2019 (>7300 excluding self-citations). He initiated the biennial international conference on Titanium Powder Metallurgy in 2011 (co-sponsored by Materials Australia, TiDA, TMS, JSPM and CSM) and served as the Organising Committee Chair and Conference Co-Chair for the Asia-Pacific International Conference on Additive Manufacturing (2017 and 2019). Currently, He serves as an editorial member for a number of journals, including as an Associate Editor for both Acta Materialia and Scripta Materialia.
School of Aerospace, Mechanical and Manufacturing Engineering, RMIT University, Melbourne, Australia
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