The Effects of Alloying Elements in Titanium. Volume B. Physical and Chemical Properties, Deformation and Transformation Characteristics

Maykuth, D.J.; Holden, F.C.

doi:10.21236/ad0260226

Cited by 6 publications

(3 citation statements)

References 10 publications

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“…Diagrams such as these are usually obtained by detecting isothermal transformation in a sample quenched from a single-phase elevated-temperature field to the temperature of observation. However, it must be borne in mind that, although of the same general form, such curves will not be coincident with those obtained by performing isothermal aging on specimens previously quenched to room temperature [MAy61]. The characteristic C-shape of the T-T-T diagram demands an explanation.…”

Section: Influence Of Stress Strain and Interstitial-element Additimentioning

confidence: 92%

“…Sets of the typically C-shaped T -T -T diagrams for the systems Ti-Y, -Cr, -Mn, -Fe, -Ni, and -Cu are given in a work by MAYKUTH et al [MAy61] and the further references contained therein. Diagrams such as these are usually obtained by detecting isothermal transformation in a sample quenched from a single-phase elevated-temperature field to the temperature of observation.…”

Section: Influence Of Stress Strain and Interstitial-element Additimentioning

confidence: 99%

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Applied Superconductivity, Metallurgy, and Physics of Titanium Alloys

Collings¹

1986

205

125

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All rights reservedNo part of this book may be reproduced, stored in a retrieval system, or transmitted in any form or by any means, electronic, mechanical, photocopying, microfilming, recording, or otherwise, without written permission from the Publisher To BETTY JANE AND CHRISTOPHER also to an international community of low-temperature physicists and cryogenic engineers whose work is represented on these pagesType-2 Superconductor in the Critical Mixed State.-Carbon-replicated electron micrograph of a ferromagnetic-particle-decorated representation of the arrangement of axially directed flux lines in an annealed-and-deformed Pb-In(6.3 at.OJo) 4-mm!6 rod in the trapping critical state (see, e.g., Figure 16-7). The arrangement of the flux lines was found to change continuously from long-range-ordered in the relatively high field (-70 G) interior region of the sample (;;, 400 ,an deep) [left-hand plate], to amorphous in the low-residual-field region just below the surface (,,; 100,an deep) [right-hand plate]. In this material, for which K = 2 at 1.2 K, the flux-lattice parameter at 70 G is about 0.6 I'm. Original micrograph courtesy of U. Essmann, Max-Planck-Institute fUr Metallforschung, Institut fUr Physik, Stuttgart, West Germany. (Reference: H. Trauble and U. Essmann, J. Appl. Phys. 39,4052-4059 (1968))1.General Preface xi property optimization. (iii) Superconductor and superconducting magnet design engineers for whom the chapters on Stability, AC Loss, and Conductor Design are intended. (iv) Manufacturers of "NbTi" alloy superconductors who wish to become reapprised of the Ti-alloy metallurgy and metal physics that underlies the behavior and properties of their product. Administrative Credits and Genesis

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Section: Influence Of Stress Strain and Interstitial-element Additimentioning

confidence: 92%

Section: Influence Of Stress Strain and Interstitial-element Additimentioning

confidence: 99%

Applied Superconductivity, Metallurgy, and Physics of Titanium Alloys

Collings¹

1986

205

125

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“…That is why it is important to limit the corrosion of the implant in human body to a minimum. The most popular alloying elements for titanium alloys are aluminum which stabilizes α phase and vanadium the β stabilizer [8,9]. However those elements are harmful for human body and nowadays are replaced with inert elements e.g.…”

Section: Introductionmentioning

confidence: 99%

Archives of Metallurgy and Materials

Szklarska¹,

Łosiewicz²,

Dercz³

et al. 2019

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The Ti15Mo alloy has been studied towards long-term corrosion performance in saline solution at 37° C using electrochemical impedance spectroscopy. The physical and chemical characterization of the material were also investigated. The as-received Ti15Mo alloy exhibits a single β-phase structure. The thickness of single-layer structured oxide presented on its surface is ~4 nm. Impedance measurements revealed that the Ti15Mo alloy is characterized by spontaneous passivation in the solution containing chloride ions and formation of a double-layer structured oxide composed of a dense interlayer being the barrier layer against corrosion and porous outer layer. The thi ckness of this oxide layer, estimated based on the impedance data increases up to ~6 nm during 78 days of exposure. The obs erved fall in value of the log|Z | f = 0.01 Hz indicates a decrease in pitting corrosion resistance of Ti15Mo alloy in saline solution along with the immersion time. The detailed EIS study on the kinetics and mechanism of corrosion process and the capacitive behavior of the Ti15Mo electrode | passive layer | saline solution system was based on the concept of equivalent electrical circuit with respect to the physical meaning of the applied circuit elements. Potentiodynamic studies up to 9 V vs. SCE and SEM analysis show no presence of pitting corrosion what indicates that the Ti15Mo alloy is promising biomaterial to long-term medical applications.

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