Galvanic couples of 316L steel with Ti and ion plated Ti and TiN coatings in Ringer's solutions

Głuszek, J.; Jȩdrkowiak, J.; Markowski, J.; Masalski, J.

doi:10.1016/0142-9612(90)90109-4

Cited by 20 publications

(6 citation statements)

References 10 publications

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“…Głuszek et al . [242] coated 316L (18Cr-8Ni-2Mo with low carbon content) stainless steel with Ti or TiN by ion plating. The galvanic effects for the galvanic couples 316L/Ti, 316L/Ti-coated 316L, 316L/TiN-coated 316L were studied in Ringer’s solution.…”

Section: Surface Texturingmentioning

confidence: 99%

“…The galvanic effects for the galvanic couples 316L/Ti, 316L/Ti-coated 316L, 316L/TiN-coated 316L were studied in Ringer’s solution. It was concluded that (i) both Ti and TiN coatings were non-porous, (ii) Ti served as an anode in the couple 316L/Ti, whereas for the other two couples, the coatings were the cathodes; however (iii) the dissolution rate of 316L stainless steel in these couples was smaller than expected owing to a strong polarization of the coatings [242]. …”

Section: Surface Texturingmentioning

confidence: 99%

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Dental Implant Systems

Oshida

Tuna

Aktören

et al. 2010

IJMS

175

115

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Among various dental materials and their successful applications, a dental implant is a good example of the integrated system of science and technology involved in multiple disciplines including surface chemistry and physics, biomechanics, from macro-scale to nano-scale manufacturing technologies and surface engineering. As many other dental materials and devices, there are crucial requirements taken upon on dental implants systems, since surface of dental implants is directly in contact with vital hard/soft tissue and is subjected to chemical as well as mechanical bio-environments. Such requirements should, at least, include biological compatibility, mechanical compatibility, and morphological compatibility to surrounding vital tissues. In this review, based on carefully selected about 500 published articles, these requirements plus MRI compatibility are firstly reviewed, followed by surface texturing methods in details. Normally dental implants are placed to lost tooth/teeth location(s) in adult patients whose skeleton and bony growth have already completed. However, there are some controversial issues for placing dental implants in growing patients. This point has been, in most of dental articles, overlooked. This review, therefore, throws a deliberate sight on this point. Concluding this review, we are proposing a novel implant system that integrates materials science and up-dated surface technology to improve dental implant systems exhibiting bio- and mechano-functionalities.

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Section: Surface Texturingmentioning

confidence: 99%

Section: Surface Texturingmentioning

confidence: 99%

Dental Implant Systems

Oshida

Tuna

Aktören

et al. 2010

IJMS

175

115

View full text Add to dashboard Cite

show abstract

“…However, E p is still rather high and not enough to provide a cathodic protection for metals, and it is hard to be sure that the corrosion of metals has not occurred during this time. Because of the existence of cracks and defects in the coatings, the high current densities at the exposed small areas induce a local destruction of the protected metallic substrate, and also cause E p to shift negatively [12]. Furthermore by coupling with another semiconductor, the photoelectrochemical performances of TiO 2 coatings can fall.…”

Section: Introductionmentioning

confidence: 97%

Corrosion protection of 316 L stainless steel by a TiO2 nanoparticle coating prepared by sol–gel method

2005

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“…Most of the orthopedic literature comprises studies from in vitro experiments and in animals. [9][10][11][12][13] Most studies on the corrosion of implants are performed in Hanks' solution, Ringer's solution, and artificial saliva. 8 Stainless steel implants have shown degradation caused by pitting, crevice, stress, and galvanic corrosion leading to the release of metallic products from the implants.…”

Section: Discussionmentioning

confidence: 99%

Mixing Implants of Differing Metallic Composition in the Treatment of Upper-extremity Fractures

Acevedo¹,

Loy²,

Lee³

et al. 2013

Orthopedics

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Mixing implants with differing metallic compositions has been avoided for fear of galvanic corrosion and subsequent failure of the implants and of bone healing. The purpose of this study was to evaluate upper-extremity fractures treated with open reduction and internal fixation with metallic implants that differed in metallic composition placed on the same bone. The authors studied the effects of using both stainless steel and titanium implants on fracture healing, implant failure, and other complications associated with this method of fixation. Their hypothesis was that combining these metals on the same bone would not cause clinically significant nonunions or undo clinical effects from galvanic corrosion. A retrospective review was performed of 17 patients with upper-extremity fractures fixed with metal implants of differing metallic compositions. The primary endpoint was fracture union. Eight clavicles, 2 proximal humeri, 3 distal humeri, 3 olecranons, and 1 glenoid fracture with an average follow-up 10 months were reviewed. All fractures healed. One patient experienced screw backout, which did not affect healing. This study implies that mixing implants with differing metallic compositions on the same bone for the treatment of fractures does not adversely affect bone healing. No evidence existed of corrosion or an increase in complications with this method of treatment. Contrary to prior belief, small modular hand stainless steel plates can be used to assist in reduction of smaller fracture fragments in combination with anatomic titanium plates to obtain anatomic reduction of the fracture without adversely affecting healing.

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Galvanic couples of 316L steel with Ti and ion plated Ti and TiN coatings in Ringer's solutions

Cited by 20 publications

References 10 publications

Dental Implant Systems

Dental Implant Systems

Corrosion protection of 316 L stainless steel by a TiO2 nanoparticle coating prepared by sol–gel method

Mixing Implants of Differing Metallic Composition in the Treatment of Upper-extremity Fractures

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