Alloy Ti(合金钛)研究综述
Alloy Ti 合金钛 - The solution developed could also prove its efficiency in the machining of titanium-based alloy Ti6Al4V. [1] Dwell and non-dwell cyclic loading in alloy Ti-6Al-4V are investigated for two differing microstructures, and the cycles to failure predicted based solely on the crystal c-axis tensile strength, and the dwell debit quantified. [2] An experimental investigation of structure evolution kinetics in a new six-component TiAl-based alloy Ti-44. [3] The effect of the microstructure formed in different stages of softening under annealing after moderate cold deformation on martensitic transformations and functional properties of alloy Ti – 50. [4] High-temperature test mechanical properties of these alloys in compression and tension at 600°C are provided and compared with similar properties of alloy Ti–5Al–5Mo–5V–3Cr. [5] During 3D printing by Selective Laser Melting (SLM) of the alloy Ti-6Al-4V, the phase transformation of BCC to HCP is associated with selection of particular crystallographic variants. [6] This study investigates the effects of the addition of the intermetallic compounds ZrMn2 and Zr7Cu10 to the alloy TiCr1. [7] Methodology Research was performed in order to establish the influence of mechanical processing on the micro-roughness of the surface of the samples from the experimental bioalloy Ti10Zr. [8] In addition, a method of laser annealing of sheet materials from aluminum–magnesium alloy and low-alloy titanium alloys was developed. [9] Temperatures of critical points for a new Russian intermetallic TiAl-alloy Ti–44. [10] The results obtained enabled us to identify the alloy Ti0. [11] Firstly, computational thermodynamics has been used to provide a simple graphical means of predicting these additions; this method has been used to explore additions of Ni and Fe to the alloy Ti–6Al–4V (Ti64). [12] In this article, multifrequency eddy current testing is proposed to detect hydrogen concentration in alloy titanium. [13] Mass change measured for the heating rates 20 °C s−1 and 30 °C s−1 reveals that the alloy Ti–45Al–10Nb–0. [14] In order to solve the problem of the failure of the UMCo50 process burner, the orthogonal test was used to optimize the UMCo50 cobalt-based alloy TIG surfacing process, better joint performance was obtained for welding current of 120 A, surfacing speed of 12 cm min−1, interpass temperature of 50 °C and surfacing layer of 2 ∼ 3 layers; Tungsten inert gas(TIG) welding and plasma transferred arc weld(PTAW) surfacing were used to surfacing UMCo50 welding wire and T800 cobalt-based alloy powder on UMCo50 base metal. [15] The method of electron-microscopic analysis investigated the structure of the alloy Ti-50. [16] Tribological properties of titanium and alloy Ti6Al4V are changed by the irradiation with 160 MeV swift xenon ions. [17] % ceramics in the powder mixture with alloy Ti-6Al-4V the wear resistance of the coating increases by a factor of 4. [18] The methods of scanning electron microscopy and x-ray diffractometry are used to study the microstructure and mechanical properties of welded joints from alloy Ti60 after laser welding and subsequent heat treatment (PWHT). [19] The alloy Ti6Al7Nb with the in situ reinforcement of TiB has been processed by selective laser melting (SLM). [20] An experimental deformability assessment of a new six-component TiAl-based alloy Ti-44. [21]开发的解决方案还可以证明其在钛基合金 Ti6Al4V 加工中的效率。 [1] 针对两种不同的微观结构研究了合金 Ti-6Al-4V 中的停顿和非停顿循环载荷，并且仅根据晶体 c 轴拉伸强度预测失效循环，并量化了停顿借方。 [2] 新型六组分 TiAl 基合金 Ti-44 结构演化动力学的实验研究。 [3] 中冷变形后退火软化不同阶段形成的显微组织对Ti-50合金马氏体转变和功能性能的影响[J]. [4] 提供了这些合金在 600°C 下压缩和拉伸的高温试验机械性能，并与合金 Ti-5Al-5Mo-5V-3Cr 的类似性能进行了比较。 [5] 在通过选择性激光熔化 (SLM) 对合金 Ti-6Al-4V 进行 3D 打印期间，BCC 到 HCP 的相变与特定晶体变体的选择有关。 [6] 本研究研究了在合金 TiCr1 中添加金属间化合物 ZrMn2 和 Zr7Cu10 的影响。 [7] 方法学研究是为了确定机械加工对实验生物合金 Ti10Zr 样品表面微粗糙度的影响。 [8] 此外，还开发了一种对铝镁合金和低合金钛合金板材进行激光退火的方法。 [9] 一种新的俄罗斯金属间化合物 TiAl 合金 Ti-44 的临界点温度。 [10] 获得的结果使我们能够识别合金 Ti0。 [11] 首先，计算热力学已被用于提供预测这些添加的简单图形方法；该方法已被用于探索在合金 Ti-6Al-4V (Ti64) 中添加 Ni 和 Fe。 [12] 在本文中，提出了多频涡流检测来检测合金钛中的氢浓度。 [13] 在 20 °C s-1 和 30 °C s-1 的加热速率下测量的质量变化表明合金 Ti-45Al-10Nb-0。 [14] 为解决UMCo50工艺燃烧器失效问题，采用正交试验优化UMCo50钴基合金TIG堆焊工艺，在焊接电流120 A、堆焊速度12 cm·min时获得了较好的接头性能-1，层间温度50℃，堆焊层2～3层；采用钨极惰性气体保护焊(TIG)焊和等离子转移弧焊(PTAW)堆焊方法在UMCo50母材上堆焊UMCo50焊丝和T800钴基合金粉末。 [15] 电子显微镜分析方法研究了合金Ti-50的结构。 [16] 钛和合金 Ti6Al4V 的摩擦学性能因 160 MeV 快速氙离子辐照而发生变化。 [17] % 陶瓷粉末混合物与合金 Ti-6Al-4V 涂层的耐磨性增加了 4 倍。 [18] 采用扫描电子显微镜和 X 射线衍射仪的方法研究激光焊接和后续热处理 (PWHT) 后 Ti60 合金焊接接头的显微组织和力学性能。 [19] Ti6Al7Nb合金原位增强TiB已通过选择性激光熔化（SLM）进行加工。 [20] 一种新型六组分 TiAl 基合金 Ti-44 的实验变形性评估。 [21]
high temperature titanium 高温钛
The dynamic recrystallization behavior of a high-temperature titanium alloy Ti600 has been investigated by hot compression tests at the strain rates of 0. [1] Through the hot press sintering experiment of the mixed powder under different heating and sintering processes, the plastic deformation behavior of the material is carried out on this basis Research, preliminarily discuss the constitutive relationship of the new high-temperature titanium alloy Ti-Al-Nb, establish the hot working map and recrystallization model. [2] The effects of pulse current on the tensile properties of high temperature titanium alloy Ti55 were investigated by pulse current assisted uniaxial tensile test under different electrical parameters. [3]高温钛合金Ti600的动态再结晶行为已经通过热压缩试验在0应变速率下进行了研究。 [1] 通过混合粉末在不同加热烧结工艺下的热压烧结实验，在此基础上对材料的塑性变形行为进行了研究，初步探讨了新型高温钛合金Ti-Al-Nb的本构关系，建立热加工图和再结晶模型。 [2] nan [3]
metastable β titanium 亚稳态β钛
The effect of deformation temperature and strain rate (collectively described by the Zener-Hollomon parameter Z) on the deformation mechanism and texture formation of the metastable β-titanium alloy Ti5321 across the β-transus temperature during hot-compression was investigated by electron backscatter diffraction. [1] In this study, the crystallography and microstructure of the deformation bands formed in a metastable β titanium alloy Ti–7Mo–3Nb–3Cr–3Al during isothermal compression were investigated. [2] Dynamic mechanical behavior of a metastable β titanium alloy Ti-10V-2Fe-3Al (Ti-1023) with α+β dual-phase structure is investigated by a split Hopkinson tension bar (SHTB) system at two high strain rates of 2000 s-1 and 4000 s-1. [3]通过电子背散射衍射研究了变形温度和应变速率（由 Zener-Hollomon 参数 Z 统称为）对亚稳态 β 钛合金 Ti5321 在热压缩过程中在 β 转变温度下的变形机制和织构形成的影响。 . [1] 在这项研究中，研究了亚稳态 β 钛合金 Ti-7Mo-3Nb-3Cr-3Al 在等温压缩过程中形成的变形带的晶体学和微观结构。 [2] nan [3]
Titanium Alloy Ti 钛合金钛
The paper concerns the study of the possibilities for electroless plating of a nickel-cobalt-phosphorus alloy on titanium and titanium alloy TiAl6V4 substrates when pre-galvanic activation is used. [1] The present work gives us an insight of selecting a particular alloy based on its Engineering applications, Aluminium Alloys AL7075, AL2024, Titanium Alloy Ti6AL4V, Nickel Alloy NI718 are predominantly used as structural components and chosen as alloys of our interest to study the impact of a fundamental property “Coefficient of Thermal Expansion” on the Thermo Mechanical stresses. [2] The dynamic recrystallization behavior of a high-temperature titanium alloy Ti600 has been investigated by hot compression tests at the strain rates of 0. [3] The defect was replaced with a cellular bioactive 3D implant made of titanium alloy Ti6Al4V, manufactured using the additive technology. [4] This new technique renders both technical and theoretical advancements from the following aspects: (1) A special in-house designed drainage nozzle was integrated with the laser cladding head to create local dry cavity which ensured the successful manufacturing of titanium alloy Ti-6Al-4V in underwater environment; (2) Unique microstructure formation/evolution mechanisms have been revealed for the ULMD process, which significantly differ from those of the in-air LMD process; (3) The hydrogen content has been well controlled during ULMD, which can effectively prevent the formation of hydrogen-induced cracks; (4) The mechanical properties of the ULMD Ti-6Al-4V parts were equal or even better than that fabricated by in-air LMD or SLM technique. [5] An in-situ high-resolution synchrotron X-ray diffraction (XRD) experiment is used to measure microstructural damage accumulation (DA) during loading of an extruded sample of the α − β titanium alloy Ti-6Al-4V. [6] Here we have chosen a titanium alloy Ti6Al4v of 1 mm thickness. [7] The samples were made of titanium alloy Ti6Al4V by using selective laser melting (SLM) additive manufacturing. [8] These three-dimensional surface roughness parameters can be theoretically predicted with the proposed kinematic model for the scaly surface fabricated by rotary ultrasonic rolling of titanium alloy Ti-6Al-4V. [9] The effect of deformation temperature and strain rate (collectively described by the Zener-Hollomon parameter Z) on the deformation mechanism and texture formation of the metastable β-titanium alloy Ti5321 across the β-transus temperature during hot-compression was investigated by electron backscatter diffraction. [10] Calculations are done for multi-track depositions of a tool steel H13 and a titanium alloy Ti-6Al-4V and the computed results are tested using experimental data for different processing conditions. [11] Titanium alloy Ti6Al4V, an alpha-beta alloy, possesses many advantageous properties, such as high special strength, good resilience and resistance to high temperature and corrosion, fracture resistant characteristics and so on, being widely used in aerospace, biomedical and chemical industry. [12] The microstructure of double-sided welded joints of 3D-printed items made of titanium alloy Ti‒6Al–4V by the electron-beam freeform fabrication (EBF 3 ) method has been investigated using the methods of X-ray diffraction analysis, optical metallography, and scanning and transmission electron microscopy. [13] In this work, a layered composite material based on TiAl/TiB2 has been first obtained by unrestricted SHS-compression on the titanium alloy Ti6Al4V from the initial powders of titanium, aluminum, and boron. [14] Thus, in this study, we aimed to evaluate and compare the in vitro biological response to standard discs of four alternative biomaterials: polyether ether ketone (PEEK), zirconia toughened alumina (ZTA), silicon nitride (SN) and surface-textured silicon nitride (ST-SN), and the reference titanium alloy Ti6Al4V (TI). [15] Titanium alloy Ti6Al4V has the advantages of high specific strength, good heat resistance, and strong corrosion resistance, which is widely used in the manufacturing of aerospace industrial parts. [16] This paper presents the study of defects formation in the friction welding process of titanium alloy Ti-6Al-4V. [17] The analyzed joint is composed by two sheets of 2014 – T6 aluminium alloy and a T300/5208 Graphite/Epoxy quasi-isotropic laminate, which were joined by twelve Lockbolt Swaged Collar rivets titanium alloy Ti–6Al–4V annealed. [18] Electrospark treatment of a titanium alloy Ti6Al4V in a mixture of granules allows the formation of intermetallic Ti-Al coatings. [19] The data on the main technological parameters of atomization of nickel alloy Inconel 718 and titanium alloy Ti-6A1-4V are presented in the paper. [20] The metastable beta titanium alloy Ti-3Al-5Mo-7V-3Cr (Ti-3573) was used as experimental material in this paper. [21] On the one hand, the titanium alloy Ti-6Al-4V, as a material with low machinability and low formability at room temperature, and the stainless steel 316 L. [22] In this study, titanium alloy Ti–6Al–4V is used as the research object to conduct machining experiments. [23] In this study, the crystallography and microstructure of the deformation bands formed in a metastable β titanium alloy Ti–7Mo–3Nb–3Cr–3Al during isothermal compression were investigated. [24] Through the hot press sintering experiment of the mixed powder under different heating and sintering processes, the plastic deformation behavior of the material is carried out on this basis Research, preliminarily discuss the constitutive relationship of the new high-temperature titanium alloy Ti-Al-Nb, establish the hot working map and recrystallization model. [25] 826, 778, 680, 583 and 486 MPa, have been studied on a near α titanium alloy Timetal 834. [26] In this study, superhydrophobic titania nanoflower surfaces were successfully fabricated on a titanium alloy Ti-6Al-4V substrate with hydrothermal synthesis and vapor-phase silanization. [27] In this paper, ABAQUS finite element simulation software was used to establish a more reliable three-dimensional milling titanium alloy Ti6Al4V finite element simulation model. [28] Manufacturing processes such as welding subject the α/β titanium alloy Ti-6Al-4V to a wide range of temperatures and temperature rates, generating microstructure variations in the phases and in the precipitate dimensions. [29] The dependence of tensile properties and deformation behavior on microstructures of a near alpha titanium alloy Ti–3Al–2Zr–2Mo (wt. [30] These implants can be manufactured conventionally from medical grade titanium alloy Ti64 (titanium-aluminum-vanadium) in the form of plates ranging in thickness from 0. [31] The aim of this work is to study the influence of the welding thermal cycle and reducing of weld metal alloying degree on the structure and mechanical properties of welded joints of high-strength titanium alloy Ti-6. [32] This study focused on the use of supercritical carbon dioxide (scCO2) as a coolant in the face milling of titanium alloy Ti-6Al-4V. [33] In this study, the traditional α – β titanium alloy Ti6Al4V sheets were joined by the resistance spot welding (RSW) process. [34] This paper presented the influence of machined surface texture on fretting cracks behaviors of Titanium alloy Ti–6Al–4V under radial loading in conformal contact. [35] In the present work, surface characteristics of powder mixed electro-discharge machining (PMEDM) process are investigated using alumina and carborundum abrasive powder added dielectric fluid for titanium alloy Ti6Al4V. [36] For that purpose, we have characterized by X-ray tomography the porous microstructure of 4 different additively manufactured materials (aluminium alloy AlSi10Mg, stainless steel 316L, titanium alloy Ti6Al4V and Inconel 718L) with initial void volume fractions ranging from ≈ 0. [37] As a typical aerospace difficult-to-machine material, tool failure in milling titanium alloy Ti6Al4V will reduce the stability of the milling process and affect the surface quality of the workpiece. [38] In this work, we present experimental data on the structure, chemical composition and wear resistance of a titanium alloy Ti6Al4V after pulsed laser treatment. [39] This paper focuses on the machining of a super-dimensioned titanium alloy Ti6Al4V aviation deep-hole part (aspect ratio exceeding 20) with the axial ultrasonic vibration-assisted boring (AUVB) method. [40] Specimens are made from cryogenic compatible alloys namely Aluminium alloy AA2219, Stainless steel AISI 321 and Titanium alloy Ti6Al4V with a surface roughness of 0. [41] Titanium alloy Ti6Al4V and aluminium amalgam 6061 were effectively joined by laser beam welding. [42] This demonstrated that a shape deviation of harmonic surface structures on titanium alloy Ti6Al4V could be reduced by up to 91% by means of an adapted compensation signal. [43] The titanium alloy Ti-407 (Ti407) is a new alloy being considered for single load to failure applications where energy absorption is a key requirement. [44] The evolution of cutting forces in four different billet conditions of the alpha + beta titanium alloy Ti–6Al–2Sn–4Zr–6Mo (Ti-6246) was measured. [45] Coatings were deposited on two substrate materials, namely, titanium Grade 2 and titanium alloy Ti13Nb13Zr, by immersion in a solution containing vinyltrimethoxysilane, anhydrous ethyl alcohol, acetic acid and distilled water. [46] The promising directions of using electron-beam processing were analyzed and are as following: 1 – smoothing the surface, getting rid of surface microcracks, while simultaneously changing the structural-phase state of the surface layer, to create high-performance technologies for the finishing processing of critical metal products of complex shape made of titanium alloy Ti-6Al-4V and titanium; steels of various classes; hard alloy WC – 10 wt. [47] The simulation of multiple microstructures demonstrates that this integrated approach can be used to test the influence of different microstructures on the mechanical properties of titanium alloy Ti-5553. [48] Metal-ceramic coatings were obtained by electrospark treatment of a titanium alloy Ti6Al4V in a mixture of titanium granules with tantalum carbide powder. [49] Titanium alloy Ti-6Al-4V particles were used as reinforcement for AZ31B magnesium metal matrix composites (Mg MMCs) which were synthesized via friction stir processing (FSP). [50]本文关注在使用预电活化时在钛和钛合金 TiAl6V4 基底上化学镀镍钴磷合金的可能性的研究。 [1] 目前的工作为我们提供了基于其工程应用选择特定合金的见解，铝合金 AL7075、AL2024、钛合金 Ti6AL4V、镍合金 NI718 主要用作结构部件，并选择作为我们感兴趣的合金来研究热机械应力的基本属性“热膨胀系数”。 [2] 高温钛合金Ti600的动态再结晶行为已经通过热压缩试验在0应变速率下进行了研究。 [3] nan [4] nan [5] nan [6] nan [7] nan [8] nan [9] 通过电子背散射衍射研究了变形温度和应变速率（由 Zener-Hollomon 参数 Z 统称为）对亚稳态 β 钛合金 Ti5321 在热压缩过程中在 β 转变温度下的变形机制和织构形成的影响。 . [10] nan [11] nan [12] nan [13] nan [14] nan [15] nan [16] nan [17] nan [18] nan [19] nan [20] nan [21] nan [22] nan [23] 在这项研究中，研究了亚稳态 β 钛合金 Ti-7Mo-3Nb-3Cr-3Al 在等温压缩过程中形成的变形带的晶体学和微观结构。 [24] 通过混合粉末在不同加热烧结工艺下的热压烧结实验，在此基础上对材料的塑性变形行为进行了研究，初步探讨了新型高温钛合金Ti-Al-Nb的本构关系，建立热加工图和再结晶模型。 [25] nan [26] nan [27] nan [28] nan [29] nan [30] nan [31] nan [32] nan [33] nan [34] nan [35] nan [36] nan [37] nan [38] nan [39] nan [40] nan [41] nan [42] nan [43] nan [44] nan [45] nan [46] nan [47] nan [48] nan [49] nan [50]
Ti Alloy Ti 钛合金钛
residual stress, hardness in-depth direction surface roughness) of a β-Ti alloy Ti- 15 V-3Cr-3Al-3Sn (Ti-15–3) in duplex aged condition. [1] The URP of Ti alloy Ti5Al4Mo6V2Nb1Fe strengthened its surface layer properties, but the material performance did not improve to a greater extent. [2] Considering the great potential of extremely-low temperature applications, cryogenic tensile properties and deformation behavior of a metastable β-Ti alloy Ti–15Mo–2Al were investigated. [3] Ti alloy Ti-6Al-4V rods are adopted to support the cold mass. [4] The model is tested for cyclic and dwell loadings at multiple spatial scales of a Ti alloy Ti7AL, viz. [5]β-Ti合金Ti-15V-3Cr-3Al-3Sn（Ti-15-3）在双相时效条件下的残余应力，硬度深度方向表面粗糙度）。 [1] Ti合金Ti5Al4Mo6V2Nb1Fe的URP强化了其表层性能，但材料性能没有较大程度的提高。 [2] nan [3] nan [4] nan [5]
Entropy Alloy Ti 熵合金钛
The mechanical properties of novel hexagonal close-packed medium entropy alloy TiZrHf have been studied using first-principles method based on special quasi-random structure. [1] At the first stage of HEBM, a powder of high-entropy alloy TiTaNbZrHf was prepared. [2] The desorption behaviors of hydrogen from high entropy alloy TiZrVMoNb hydride surface have been investigated using the density functional theory. [3]采用基于特殊准随机结构的第一性原理方法研究了新型六方密排介质熵合金TiZrHf的力学性能。 [1] 在 HEBM 的第一阶段，制备了一种高熵合金 TiTaNbZrHf 粉末。 [2] nan [3]
Β Alloy Ti Β 合金钛
The present study investigated microstructure evolution and mechanical properties of a near β alloy Ti–5Al–5Mo–5V–3Cr–1Zr fabricated by additive manufacturing using electron beam melting. [1] Although tools are highly optimised for drilling the α+β alloy Ti-6Al-4V (Ti-64), insufficient information is available to efficiently improve tools for use on higher strength alloys due to the cost intensive processes required to design and optimize new drills. [2]本研究研究了使用电子束熔化增材制造制造的近 β 合金 Ti-5Al-5Mo-5V-3Cr-1Zr 的微观结构演变和力学性能。 [1] 尽管工具针对 α+β 合金 Ti-6Al-4V (Ti-64) 的钻孔进行了高度优化，但由于设计和优化新钻头所需的成本密集型工艺，没有足够的信息来有效地改进用于更高强度合金的工具. [2]