Characteristics of titanium Grade 2 and evaluation of corrosion resistance

Corrosion Resistance in NaCl Environment of Fiber Metal Laminates based on Aluminum and Titanium Alloys with Carbon and Glass Fibers

“…It may be helpful to determine the potential in the open circuit potential (OCP) tested for each of the materials that make FML laminates. Such results are given, respectively, for titanium [ 16 ] and the work by Surowska et al [ 23–25 ] for fibers and aluminum anodized in SAA, whereas the previous study [ 26 ] gives the value for anodized aluminum in CAA.…”

“…The most popular surface preparations are chemical conversion, micro-arc oxidation, electrochemical deposition, and sol-gel process, which were developed to improve resistance to corrosion. [6][7][8][9][10][11][12] The most widely used surface protection methods in the aircraft industry are three electrochemical processes: phosphoric acid (PAA), [6][7][8][12][13][14][15][16] chromic acid (CAA), [8,9,[12][13][14][17][18][19][20] and sulfuric acid (SAA) [8,13,14,17,18] anodizing, as well as sol-gel conversion. [10][11][12]21,22] The use of FMLs based on carbon fibers and aluminum as construction materials raises vital questions with respect to the formation of microcracks and potential corrosion damage location.…”

“…The most popular surface preparations are chemical conversion, micro‐arc oxidation, electrochemical deposition, and sol–gel process, which were developed to improve resistance to corrosion. [ 6–12 ] The most widely used surface protection methods in the aircraft industry are three electrochemical processes: phosphoric acid (PAA), [ 6–8,12–16 ] chromic acid (CAA), [ 8,9,12–14,17–20 ] and sulfuric acid (SAA) [ 8,13,14,17,18 ] anodizing, as well as sol–gel conversion. [ 10–12,21,22 ]…”

Microporous Titanium-Based Materials Coated by Biocompatible Thin Films

“…A microporous element manufactured by SLS can be further worked and combined with other materials, for example, by infiltration or internal treatment of pores' surface in an appropriately chosen technological process [117][118][119][120][121][126][127][128]. Titanium and titanium alloys from Al, Nb and Ta [1,2,15,26,[127][128][129][130][131][132][133][134][135][136][137][138], well tolerated by a human organism, have been long used in medicine and dentistry for prosthetic and implantological purposes, also fabricated by SLS. Titanium matrix materials do not cause allergic reactions and are stainless, feature high strength and hardness and also thermal conductivity several times lower than traditional prosthetic materials [139].…”

Introductory Chapter: Multi-Aspect Bibliographic Analysis of the Synergy of Technical, Biological and Medical Sciences Concerning Materials and Technologies Used for Medical and Dental Implantable Devices

“…It was proven that structures of porous Ti6Al4V are also effective in aiding the growth of cells and bone tissue [307][308][309][310][311]. Ti and its alloys with Al, Nb and Ta and Ti alloys with Al, V and Nb, well tolerated by a human organism, are the metallic materials more and more often used these days for joint prostheses and for various implants, also intramedullary wires and for prosthetic restorations and dental implants [33,[312][313][314][315][316][317][318][319][320][321][322]. When used for dental crowns, though, they have a significant disadvantage, consisting of porcelain reactions with titanium oxide, causing bruising and colour darkening, which -for aesthetic reasons -practically eliminates such prosthetic restorations, but does not exclude their use for a root part of the implant [323].…”