Effect of Indium Content on the Microstructure,  Mechanical Properties and Corrosion Behavior of Titanium Alloys

Han, Mi‐Kyung; Im, Jae-Bong; Hwang, Moon-Jin; Kim, Bong-Jun; Kim, Hae-Young; Park, Kyung Hee

doi:10.3390/met5020850

Cited by 31 publications

(18 citation statements)

References 28 publications

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“…Han et al [ 79 ] has further studied the corrosion behaviour, mechanical properties and microstructures of Ti-In binary alloys, which confirm with another study by Wang et al [ 78 ] that the strength and microhardness of the alloys were increased. Furthermore, in the experimental Ti–In alloys and cp-Ti in Wang [ 78 ] showed a good and similar cytocompatibility.…”

Section: Binary Titanium Alloyssupporting

confidence: 61%

“…Furthermore, Ti–10In and Ti–15In (10 and 15 denote the respective Indium wt%) showed a transpassive behaviour and lower current densities at high potentials under the presence of NaF. Han et al [ 79 ] has shown Ti-In alloys (5–20 wt% In) not only exhibit a similar corrosion resistance to cp-Ti by electrochemistry, but even a superior oxidation resistance compared to cp-Ti was revealed in Ti-In alloys. Therefore, Ti-In alloys might give a good or better corrosion resistance as cp-Ti.…”

Section: Binary Titanium Alloysmentioning

confidence: 99%

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Binary titanium alloys as dental implant materials—a review

Liu

Chen

Tsoi

et al. 2017

Regenerative Biomaterials

206

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Titanium (Ti) has been used for long in dentistry and medicine for implant purpose. During the years, not only the commercially pure Ti but also some alloys such as binary and tertiary Ti alloys were used. The aim of this review is to describe and compare the current literature on binary Ti alloys, including Ti–Zr, Ti–In, Ti–Ag, Ti–Cu, Ti–Au, Ti–Pd, Ti–Nb, Ti–Mn, Ti–Mo, Ti–Cr, Ti–Co, Ti–Sn, Ti–Ge and Ti–Ga, in particular to mechanical, chemical and biological parameters related to implant application. Literature was searched using the PubMed and Web of Science databases, as well as google without limiting the year, but with principle key terms such as ‘ Ti alloy’, ‘binary Ti ’, ‘Ti-X’ (with X is the alloy element), ‘dental implant’ and ‘medical implant’. Only laboratory studies that intentionally for implant or biomedical applications were included. According to available literatures, we might conclude that most of the binary Ti alloys with alloying <20% elements of Zr, In, Ag, Cu, Au, Pd, Nb, Mn, Cr, Mo, Sn and Co have high potential as implant materials, due to good mechanical performance without compromising the biocompatibility and biological behaviour compare to cp-Ti.

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Section: Binary Titanium Alloyssupporting

confidence: 61%

Section: Binary Titanium Alloysmentioning

confidence: 99%

Binary titanium alloys as dental implant materials—a review

Liu

Chen

Tsoi

et al. 2017

Regenerative Biomaterials

206

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“…There have been some studies reported on binary alloys of indium with titanium [89,90]. Like zirconium, indium has also been used in multi-component alloys, such as Ti-In-Nb-Ta, where the alloy showed good bioactivity [91].…”

Section: Binary Alloys Of Titaniummentioning

confidence: 99%

“…Like zirconium, indium has also been used in multi-component alloys, such as Ti-In-Nb-Ta, where the alloy showed good bioactivity [91]. In binary alloys, indium imparted increased strength and also corrosion resistance that was at least as good as cpTi [90]. This, in turn, led to the alloy having good biocompatibility in cell cultures.…”

Section: Binary Alloys Of Titaniummentioning

confidence: 99%

Titanium Alloys for Dental Implants: A Review

2020

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The topic of titanium alloys for dental implants has been reviewed. The basis of the review was a search using PubMed, with the large number of references identified being reduced to a manageable number by concentrating on more recent articles and reports of biocompatibility and of implant durability. Implants made mainly from titanium have been used for the fabrication of dental implants since around 1981. The main alloys are so-called commercially pure titanium (cpTi) and Ti-6Al-4V, both of which give clinical success rates of up to 99% at 10 years. Both alloys are biocompatible in contact with bone and the gingival tissues, and are capable of undergoing osseointegration. Investigations of novel titanium alloys developed for orthopaedics show that they offer few advantages as dental implants. The main findings of this review are that the alloys cpTi and Ti-6Al-4V are highly satisfactory materials, and that there is little scope for improvement as far as dentistry is concerned. The conclusion is that these materials will continue to be used for dental implants well into the foreseeable future.

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“…The remaining three papers are more application focussed with the work by Kotte [11] addressing the requirement for titanium alloys to be used as joining parts to light weight materials, such as aluminium and fibre reinforced plastics in the aerospace industry, whereas the work by Han [12] and a review paper by Petersen [13] relate to critical requirements in medical-based applications. Both papers are informative regarding the use of titanium alloys for orthopaedic and dental implant applications, featuring up to date issues and offering potential future solutions.…”

Section: Open Accessmentioning

confidence: 99%

Titanium Alloys

Whittaker

2015

Metals

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Although originally discovered in the 18th century [1], the titanium industry did not experience any significant advancement until the middle of the 20th century through the development of the gas turbine engine [2]. Since then, the aerospace sector has dominated worldwide titanium use with applications in both engines and airframe structures [3]. The highly desirable combination of properties, which include excellent corrosion resistance, favourable strength to weight ratios, and an impressive resistance to fatigue, has led to an extensive range of applications [4], with only high extraction and processing costs still restricting further implementation.Whilst the aerospace industry faces challenges related to increasing operating temperatures and to fully utilise polymer-based composites in future designs [5], innovative solutions, including metal matrix composites and titanium aluminides, provide pathways for future development. Furthermore, improvements in extractive metallurgy and processing methods have made titanium-based alloys more accessible to alternative industrial sectors. Industries currently utilising these materials include sports, biomedical, and marine sectors [6].As more traditional applications are supplemented by exciting new opportunities, it is clear that extensive research opportunities are likely to exist in the titanium industry for the foreseeable future.

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Effect of Indium Content on the Microstructure, Mechanical Properties and Corrosion Behavior of Titanium Alloys

Cited by 31 publications

References 28 publications

Binary titanium alloys as dental implant materials—a review

Binary titanium alloys as dental implant materials—a review

Titanium Alloys for Dental Implants: A Review

Titanium Alloys

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