Titanium oxide raw material for welding material
    5.
    发明授权
    Titanium oxide raw material for welding material 有权
    用于焊接材料的氧化钛原料

    公开(公告)号:US09527168B2

    公开(公告)日:2016-12-27

    申请号:US13990302

    申请日:2012-01-25

    Abstract: A titanium oxide raw material for a welding material, which can achieve the improvement in a bead shape and high-speed welding. The titanium oxide raw material has the form of particles and has a composition containing 58.0 to 99.0 mass % of TiO2, 2.5 mass % or less of Si, 3.0 mass % or less of Al, 5.0 mass % or less of Mn, 35.0 mass % or less of Fe, 5.0 mass % or less of Mg and 2.0 mass % or less of Ca, wherein the surface of each of the particles is coated with an oxide and/or a composite oxide of at least one element selected from Ti, Fe, Mn, Al and Si and the atom percentages of Ti, Fe, Mn, Al, Si and O in the oxide and/or the composite oxide fulfill the following three formulae. 1=Al+Si=10, 1

    Abstract translation: 用于焊接材料的氧化钛原料,其可以实现焊道形状的改善和高速焊接。 氧化钛原料为颗粒形式,其组成为:TiO 2为58.0〜99.0质量%,Si为2.5质量%以下,Al为3.0质量%以下,Mn为5.0质量%以下,Mn为35.0质量% Fe的含量以下,Fe:5.0质量%以下,Ca:2.0质量%以下,其中,每个颗粒的表面涂覆有选自Ti, Fe,Mn,Al和Si,氧化物和/或复合氧化物中Ti,Fe,Mn,Al,Si和O的原子百分比满足以下三个公式。 1 = Al + Si = 10,1 Ti /(Fe + Mn)= 100,O /(Fe + Mn)= 100

    FLUX-CORED WIRE FOR GAS-SHIELDED ARC WELDING, METHOD FOR WELDING STEEL FOR VERY LOW TEMPERATURE USE, AND METHOD FOR MANUFACTURING WELD JOINT
    7.
    发明申请
    FLUX-CORED WIRE FOR GAS-SHIELDED ARC WELDING, METHOD FOR WELDING STEEL FOR VERY LOW TEMPERATURE USE, AND METHOD FOR MANUFACTURING WELD JOINT 有权
    用于气体保护弧焊的通芯线,用于非常低温度焊接的钢的方法,以及用于制造焊接接头的方法

    公开(公告)号:US20160129532A1

    公开(公告)日:2016-05-12

    申请号:US14534775

    申请日:2014-11-06

    Abstract: [Object] There is provided a flux-cored wire capable of obtaining a weld metal having excellent low temperature toughness and improving welding efficiency, in which preheating performed for preventing cold cracking can be omitted or simplified.[Means for Solving Problems] The flux-cored wire includes one or more of CaF2, BaF2, SrF2, MgF2, and LiF and, when a total amount thereof is defined as a, the α is 2.0% to 7.0%, by mass %, with respect to a total mass of the flux-cored wire, one or more of a Ti oxide, a Si oxide, a Mg oxide, an Al oxide, a Zr oxide, and a Ca oxide are included in the flux-cored wire, and when a total amount thereof is defined as β, the β is 0.2% to 0.9%, by mass %, with respect to the total mass of the flux-cored wire, a ratio of an amount of the CaF2 with respect to the α is 0.90 or more, and a ratio of the α with respect to the β is 3.0 or more and 15.0 or less.

    Abstract translation: 本发明提供能够获得具有优异的低温韧性和提高焊接效率的焊接金属的药芯焊丝,其中可以省略或简化预防冷裂纹的预热。 [解决问题的方法]药芯焊丝包括CaF 2,BaF 2,SrF 2,MgF 2和LiF中的一种或多种,​​当其总量定义为a时,α为2.0质量%至7.0质量% 相对于药芯焊丝的总质量,在药芯焊丝中包含Ti氧化物,Si氧化物,Mg氧化物,Al氧化物,Zr氧化物和Ca氧化物中的一种或多种 ,当其总量被定义为&bgr时,&bgr; 相对于药芯焊丝的总质量为0.2〜0.9质量%,CaF 2相对于α的比例为0.90以上,α相对于 到&bgr 为3.0以上且15.0以下。

    FLUX ASSISTED LASER REMOVAL OF THERMAL BARRIER COATING
    10.
    发明申请
    FLUX ASSISTED LASER REMOVAL OF THERMAL BARRIER COATING 有权
    通路辅助激光去除热障涂层

    公开(公告)号:US20150151339A1

    公开(公告)日:2015-06-04

    申请号:US14541590

    申请日:2014-11-14

    Abstract: A method of removing a ceramic thermal barrier coating system (18). Laser energy (20) is applied to the thermal barrier coating system in the presence of a flux material (22) in order to form a melt (26). Upon removal of the energy, the melt solidifies to from a layer of slag (28) which is more loosely adhered to the underlying metallic substrate (12) than the original thermal barrier coating system. The slag is then broken and released from the substrate with a mechanical process such as grit blasting (30). Sufficient energy may be applied to melt an entire depth of the coating system along with a thin layer (34) of the substrate, thereby forming a refreshed surface (36) on the substrate upon resolidification.

    Abstract translation: 一种去除陶瓷热障涂层系统(18)的方法。 为了形成熔体(26),在助焊剂材料(22)的存在下,将激光能量(20)施加到热障涂层系统。 在去除能量时,熔体从比原来的热障涂层系统更松散地粘附到下面的金属基底(12)的熔渣(28)固化。 然后利用诸如喷砂(30)的机械工艺将炉渣从基材上破碎并释放。 可以施加足够的能量以与衬底的薄层(34)一起熔化涂层系统的整个深度,从而在再次固化时在衬底上形成刷新的表面(36)。

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