Alloy Layers(合金层)研究综述
Alloy Layers 合金层 - The effect of the number and thickness of permalloy layers and the thickness and material of interlayers on the value of magnetic impedance (MI) effect of multilayer film structures is theoretically analyzed in this work. [1] A bimetallic preform was manufactured by depositing nickel-based superalloy layers on a 304L stainless steel plate using a laser-based direct energy deposition technique. [2] WFeNi(Ti) and MoFeNi(Ti) alloy layers were fabricated onto Ti surfaces from W, Mo, and Ni targets through ball collisions initiated by a mechanically vibrated vial. [3] 84 mm in two Al-alloy layers with fastener structure. [4] Five phases are found in the alloy layers, i e, Fe2Al5, FeAl3, τ5C, τ5H, and τ1. [5] These benefits are evident for the Fe80V20 and alloy layers with more vanadium. [6] We also observed that the thicknesses of alloy layers and SiC lamellae of the composites reduced with decreasing cooling temperature in freeze casting. [7] Differential scanning calorimetry analysis performed for the Ni-based alloy layers with and without rhenium additive and the same level of phosphorus are provided, proving, that the addition of rhenium to the Ni–P coatings results in the increase of the crystallization temperature. [8] Here we demonstrate highly coherent field and current tunable microwave signals from nano-constrictions in single 15–20 nm thick permalloy layers with oxide interfaces. [9] For the fabrication of a kesterite-type CZTSe absorber material, stacked elemental-alloy layers (SEAL) precursor consisting of Cu–Sn alloy and elemental Zn layers offer the possibility of enhanced process control due to their advantages such as improvement of material homogeneity and suppression of the commonly observed Sn loss. [10]本文从理论上分析了坡莫合金层数和厚度以及夹层厚度和材料对多层膜结构磁阻抗（MI）效应值的影响。 [1] 通过使用基于激光的直接能量沉积技术在 304L 不锈钢板上沉积镍基超合金层来制造双金属预制件。 [2] WFeNi(Ti) 和 MoFeNi(Ti) 合金层是通过由机械振动小瓶引发的球碰撞从 W、Mo 和 Ni 靶材在 Ti 表面上制造的。 [3] 84 mm 两个铝合金层，带紧固件结构。 [4] 在合金层中发现五相，即Fe2Al5、FeAl3、τ5C、τ5H和τ1。 [5] 这些好处对于 Fe80V20 和含更多钒的合金层是显而易见的。 [6] 我们还观察到复合材料的合金层和 SiC 薄片的厚度随着冷冻铸造中冷却温度的降低而减小。 [7] 提供了对含铼和不含铼添加剂和相同磷含量的镍基合金层进行的差示扫描量热分析，证明在 Ni-P 涂层中添加铼导致结晶温度升高。 [8] 在这里，我们展示了来自具有氧化物界面的单个 15-20nm 厚坡莫合金层中纳米收缩的高度相干场和电流可调谐微波信号。 [9] 为了制造锡铅矿型 CZTSe 吸收材料，由 Cu-Sn 合金和元素 Zn 层组成的堆叠元素合金层 (SEAL) 前驱体提供了增强工艺控制的可能性，因为它们具有改善材料均匀性和抑制等优点常见的 Sn 损失。 [10]
Metal Alloy Layers
In comparison to other techniques like sputtering or conductive paste the plating on packaging level does offer the benefits of uniform plating thickness, the possibility to plate soft magnetic metal alloy layers, good coverage on the side walls of a package and finally cost benefits compared to other techniques. [1] Here we introduce a range of advances based on a systematic research towards the porous-anodic-alumina (PAA)-assisted on-substrate arrays of gold nanostructures, such as rods and spheres, spatially-separated and highly aligned on a metal or semiconductor supporting layer via a blend of the anodizing, re-anodizing, and post-anodizing treatments applied to a thin layer of Al superimposed on selected valve metals (W, Ti, Hf), metal bilayers (W/Ti), or binary metal alloy layers (W-Ti). [2]与溅射或导电膏等其他技术相比，封装层面的电镀确实提供了镀层厚度均匀、电镀软磁金属合金层的可能性、封装侧壁的良好覆盖率以及最终与其他技术相比的成本优势。技巧。 [1] 在这里，我们介绍了一系列基于对多孔阳极氧化铝 (PAA) 辅助的金纳米结构衬底阵列的系统研究的进展，例如棒和球体，在金属或半导体支撑上空间分离和高度排列通过将阳极氧化、再阳极氧化和阳极氧化后处理的混合物应用于叠加在选定阀金属（W、Ti、Hf）、金属双层 (W/Ti) 或二元金属合金层上的 Al 薄层(W-Ti)。 [2]
V Alloy Layers V合金层
This study introduces W–Ta and W–V alloy layers between nonmagnetic β-W and ferromagnetic CoFeB layers in β-W/CoFeB/MgO/Ta heterostructures. [1] The alternation of viscoplastic Nb–V alloy layers and strengthening aluminide layers is found to provide a high strength of the composites at 20–1300°C, which increases with the vanadium content in the alloy. [2]本研究介绍了 β-W/CoFeB/MgO/Ta 异质结构中非磁性 β-W 和铁磁性 CoFeB 层之间的 W-Ta 和 W-V 合金层。 [1] 发现粘塑性 Nb-V 合金层和强化铝化物层的交替可在 20–1300°C 下提供高强度的复合材料，该强度随着合金中钒含量的增加而增加。 [2]
Tum Alloy Layers Tum合金层
While the influence of adhesion layers on the maximum buckle length is less pronounced, shorter buckles are obtained with pure W and Cr–Ta alloy layers. [1] In this study, the electro-mechanical behavior of simplified bilayer versions was improved for flexible applications through substitution of the Mo by Mo-Ta alloy layers. [2]虽然粘合层对最大屈曲长度的影响不太明显，但使用纯 W 和 Cr-Ta 合金层可获得较短的屈曲。 [1] 在这项研究中，通过用 Mo-Ta 合金层替代 Mo，简化了双层版本的机电行为得到了改进，以适应灵活的应用。 [2]