1)argon arc cladding氩弧熔覆
1.Investigation on argon arc cladding technology of Ni-based self-fluxing alloy;氩弧熔覆镍基自熔合金的工艺研究
2.Microstructure and wear resistance of argon arc cladding Ni-Mo-Zr-WC-B4_C composite coating氩弧熔覆Ni-Mo-Zr-WC-B_4C复合材料涂层组织与耐磨性
3.The investigation on the microstructure and properties of TiB/FeB reinforced Fe matrix composites coating by argon arc cladding氩弧熔覆TiB/FeB增强Fe基复合涂层组织与性能研究
英文短句/例句
1.Study on Microstructure and Performance of Ni-SiC Cladding by Argon Arc Cladding氩弧熔覆Ni-SiC熔覆层组织与性能研究
2.Effect of Scanning Speed on Microstructure and Property of Argon Arc Cladding Fe-based Layer Coating熔覆速度对氩弧熔覆铁基合金涂层组织及性能的影响
3.Study on Microstructure and Performance of Ti-based Ti_5Si_3 Layers Prepared by Argon Arc Cladding;氩弧熔覆制备Ti基Ti_5Si_3表面层组织性能研究
4.Microstructure and properties of WC particulate reinforced Ni-based composite coatings formed by argon-arc cladding氩弧熔覆WC增强镍基涂层的组织与性能分析
5.Microstructure and Properties of WC-steel Composite Coating Produced by Argon-arc Welding氩弧熔覆WC-钢结硬质合金涂层组织性能研究
6.Analysis of microstructure and wear resistance of SiC/Ni composite coating by argon arc cladding氩弧熔覆SiC/Ni复合材料涂层组织与抗磨性分析
7.The Investigation on the Microstructure and Wear Mechanism of In-situ Synthesis TiC-TiB_2 Particulates Reinforce Metal-matrix Composite Coatings by Gas Tungsten Arc Cladding氩弧熔覆原位合成TiC-TiB_2增强金属基复合涂层及其磨损机理研究
8.Microstructure and wear resistance of argon arc cladding Ni-Mo-Zr-WC-B4_C composite coating氩弧熔覆Ni-Mo-Zr-WC-B_4C复合材料涂层组织与耐磨性
9.The investigation on the microstructure and properties of TiB/FeB reinforced Fe matrix composites coating by argon arc cladding氩弧熔覆TiB/FeB增强Fe基复合涂层组织与性能研究
10.Analysis on property and microstructure of Mo-Si composite coating deposited by argon shielded arc on Q235 steel surfaceQ235钢表面氩弧熔覆Mo-Si复合涂层组织和性能分析
11.AC argon arc welding machine with non-consumable tungsten electrode交流非自耗钨熔化极氩弧焊机
12.Effect of Droplet Transition on Rapid Prototyping by P-MIG熔滴过渡对脉冲熔化极氩弧焊快速成形的影响
13.Study on In-situ TiC Reinforced Fe-based Coating Fabricated by TIG Cladding;钨极氩弧原位合成TiC增强铁基熔敷层的研究
14.The Experimental Research and the Computer Simulation of Remelt Hardening of Camshaft with Tungsten Inert Gas Arc;凸轮轴氩弧重熔淬火的试验研究和计算机仿真
15.The Research on Argon-Arc Melt Injection NiCr-Cr_3C_2 Surface Composite Coating;氩弧熔化-注射NiCr-Cr_3C_2表层复合材料的研究
16.Microstructure and wear resistance of in-situ synthesized TiCp/Ni60A composite coating by argon arc cladding氩弧熔敷原位自生TiCp/Ni60A复合材料组织和耐磨性
17.Investigation of Surface Modification of Al Alloy by Laser-TIG Hybrid Melt Injection WC PowderAl合金表面激光-钨极氩弧复合熔注WC颗粒研究
18.Influence of argon arc remelting process on microstructure and properties of coating prepared by hot dipping aluminizing on surface Q235 steel氩弧重熔对Q235钢热浸镀铝层组织和性能的影响
相关短句/例句
argon shielded arc cladding氩弧熔覆
1.A coating has been made on Q235 steel substrate by argon shielded arc cladding with Ni35B and cobalt WC powders.采用氩弧熔覆工艺在Ｑ２３５ 基材上熔覆Ｎｉ３５Ｂ＋ Ｃｏ－ＷＣ，获得了具有较高硬度和耐磨性的熔覆层。
2.A hard and wear resistant Ni35B\|SiC coating is formed on a Q235 steel substrate by argon shielded arc cladding.采用氩弧熔覆工艺在Q235基材上熔覆Ni35BSiC,获得硬度和耐磨性高的熔覆层。
3)gas tungsten arc welding氩弧熔覆
1.Microstructure and wear resistance of WC+Ni_3Si/Ni-based composite coating by gas tungsten arc welding;氩弧熔覆WC+Ni_3Si/Ni基复合涂层的组织与耐磨性
4)argon-arc reactive cladding氩弧反应熔覆
5)arc cladding technology氩弧熔覆工艺
6)tungsten arc welding钨极氩弧熔覆
延伸阅读
激光焊与氩弧焊的修模具的区别激光焊与握弧焊是常用的模具修复的两种方法。氩弧焊氩弧焊是电弧焊的一种，利用连续送进的焊丝与工件之间燃烧的电弧作热源，由焊炬喷嘴喷出的气体保护电弧来进行焊接的。目前氩弧焊是常用的方法，可适用于大部分主要金属，包括碳钢、合金钢。熔化极惰性气体保护焊适用于不锈钢、铝、镁、铜、钛、锆及镍合金，由于价格低，被广泛用于模具修复焊，但焊接热影响面积大、焊点大等缺点，目前在精密模具修补方面已逐步补激光焊所代替。激光焊激光焊是高能束焊的一种，激光焊是利用大功率相干单色光子流聚焦而成的激光束为热源进行的焊接。这种焊接方法通常有连续功率激光焊和脉冲功率激光焊。激光焊优点是不需要在真空中进行，缺点则是穿透力不如电子束焊强。激光焊时能进行精确的能量控制，因而可以实现精密器件的焊接。它能应用于很多金属，特别是能解决一些难焊金属及异种金属的焊接。目前已广范用于模具的修复。修复模具时的主要区别使用非消耗电极与保护气体，常用来焊接薄工件，但焊接速度较慢，且热输入比激光焊大很多，易产生变形，激光焊焊缝的特点是热影响区范围小，焊缝较窄,焊缝冷却速快、，焊缝金属性能变化小，焊缝较硬。精密模具的焊接不同于其他零件焊接，其对质量控制的要求非常严格，而且工件的修复周期必须越短越好。传统的氩焊发热影响区大，对焊接周边造成下塌，变形等几率非常高，对于精度要求高，焊接面积大的模具，必须经过加温预热，在特定温度下进行焊接，还要自然降温进行退火处理，如此折腾下来费用和时间都不能为用户所接受；而冷焊又存在焊接不牢固和脱落等缺陷。而激光焊没有氩焊和冷焊这些不足，因此逐渐被广泛应用。
