Abstract:
An amorphous and a manufacturing method thereof are provided. The amorphous alloy may have a formula of Zr a Cu b Al c M d N e , M is at least one selected from a group consisting of Ni, Fe, Co, Mn, Cr, Ti, Hf, Ta, Nb and rare earth element; N is at least one selected from a group consisting of Ca, Mg, and C; 40≤a≤70, 15≤b≤35, 5≤c≤15, 5≤d≤15, 0≤e≤5, and a+b+c+d+e=100.
Abstract translation:提供了一种无定形及其制造方法。 该非晶合金可以具有ZraCubAlcMdNe的式,M是选自Ni,Fe,Co,Mn,Cr,Ti,Hf,Ta,Nb和稀土元素中的至少一种; N是选自Ca,Mg和C中的至少一种; 40 <= a <= 70,15 <= b <= 35,5 <= c <= 15,5 <= d <= 15,0 <= e <= 5,a + b + c + d + e = 100。
Abstract:
A die casting apparatus (100) for amorphous alloy comprises a stationary die (1) and a movable die (2); a sealed cabin (4) difining a sealing chamber (40); a protecting gas supplying device connected with the sealed cabin (4) for supplying the protecting gas into the sealing chamber (40); a melting device (5) for receiving and melting amorphous alloy; a feed sleeve (6) having a molten material inlet (60), with a plunger (7) positioned therein for injecting the molted amorphous alloy from the melting device (5) into a die chamber via the molten material inlet (60); a driving device (8) connected with the plunger (7) for driving the plunger (7) in the feed sleeve (6); and a gas purifying device (10) communicated with the sealed cabin (4) for purifying the gas from the sealed cabin (4). A method of die casting an amorphous alloy comprises the steps of purifying a sealing chamber (40) defined in a sealed cabin (4); supplying protecting gas into the sealing chamber (40) to maintain the protecting gas in the sealing chamber (40) to a positive pressure; feeding amorphous alloy into a melting device (5) to obtain the molten amorphous alloy; feeding the molten amorphous alloy into a die chamber (3); and opening the mated stationary and movable dies to extract at least a component. The apparatus and method use positive pressure protecting gas without the need to form high degree vacuum, thus reducing manufacturing and maintenance costs.
Abstract:
An amorphous alloy composite material comprises an amorphous and continuous matrix phase, and a plurality of equiaxed crystalline phases as reinforcing phases dispersed in the matrix phase. Oxygen content in the amorphous alloy composite material may be less than 2100 ppm. A method of preparing said material is disclosed.
Abstract:
An Al-Mg alloy plate and a method for preparing the same are provided. The Al-Mg alloy plate having a thickness of larger than 5mm includes a crystalline grain having a crystal grain size of less than about 60 μm; a pore having a particle diameter of less than about 200 μm; and an impurity having a particle diameter of less than about 200 μm.
Abstract:
A zirconium (Zr)-based amorphous alloy and a preparing method thereof are provided. The Zr-based amorphous alloy is represented by the general formula of (Zr a M b N c ) 100-x Q x , in which M is at least one transition metal except Zr; N is Be or Al; Q is selected from the group consisting of CaO, MgO, Y 2 O 3 , Nd 2 O 3 and combinations thereof; a, b and c are atomic percents of corresponding elements; and 45≤a≤75, 20≤b≤40, 1≤c≤25, a+b+c=100, and 1≤x≤15. A method for recycling a Zr-based amorphous alloy is also provided.
Abstract translation:提供了一种锆(Zr)基非晶合金及其制备方法。 Zr基非晶合金由通式(ZraMbNc)100-xQx表示,其中M是除Zr以外的至少一种过渡金属; N为Be或Al; Q选自CaO,MgO,Y2O3,Nd2O3及其组合; a,b和c是相应元素的原子百分比; 并且45 = a = 75,20 = b = 40,1 = c = 25,a + b + c = 100,1 = x = 15。 还提供了一种用于再循环Zr基非晶态合金的方法。
Abstract:
A Zr-based amorphous alloy and a method of preparing the same are provided. TheZr-based amorphous alloy is represented by the general formula of (Zr a M 1-a ) 100-x O x , inwhich a is an atomic fraction of Zr, and x is an atomic percent of O, in which: 0.3≤a≤0.9, 5and 0.02≤x≤0.6; and M may represent at least three elements selected from the groupconsisting of transition metals other than Zr, Group IIA metals, and Group IIIA metals in the Periodic Table of Elements.
Abstract translation:提供了一种Zr基非晶态合金及其制备方法。 基于Zr的非晶合金由通式(ZraM1-a)100-xOx表示,其中a是Zr的原子分数,x是O的原子百分比,其中:0.3 = a = 0.9,5和0.02 = X = 0.6; M可以代表元素周期表中选自除Zr,IIA族金属和IIIA族金属以外的过渡金属的组中的至少三种元素。
Abstract:
An aluminum alloy contains 1-4wt% of Mn, 0.1-5wt% of Mg, 0.002-0.5wt% of a rare earth element, 0-2wt% of Co, 0-1.5wt% of Fe, 0-1wt% of Ti, 0-1wt% of Cu, 0-1.6wt% of Zn, 0-0.5wt% of Si, and 82.9-98.898wt% of Al, based on total weight of the aluminum alloy. The rare earth element contains La. Based on the total weight of the rare earth element, the content of La in the rare earth element is from 20wt% to 100wt%. A method of preparing an aluminum alloy, a method of coloring a surface of an aluminum alloy and an aluminum alloy product are also provided.
Abstract:
The present disclosure provides a shell,a method of preparing the same and the use of the shell. The shell includes: a base (1) made of ceramic; and a bending part (2) disposed connected with an edge of the base (1) and made of an amorphous alloy.
Abstract:
An amorphous alloy and a method for preparing the amorphous alloy are provided. The amorphous alloy is represented by a formula of (Zr,Hf) a M b N c Be d . M contains at least one element selected from transition group elements. N contains at least one selected from Al and Ti. And 40≤a≤70, 10≤b≤40, 5≤c≤20, 5≤d≤25, and a+b+c+d=100. The ratio of an atomic percentage of Hf to an atomic percentage of Zr is in a range of about 0.01 to about 5.
Abstract translation:提供非晶态合金及其制备方法。 非晶合金由(Zr,Hf)aMbNcBed的式表示。 M包含从过渡组元素中选出的至少一个元素。 N含有选自Al和Ti中的至少一种。 40≤a≤70,10≤b≤40,5≤c≤20,5≤d≤25,a + b + c + d = 100。 Hf的原子百分数与Zr的原子百分比的比率在约0.01至约5的范围内。
Abstract:
A method of joining an amorphous alloy material to a heterogeneous material and a composite formed by the same are provided. The method comprises steps of: placing a pre-formed piece made of one of the amorphous alloy material and the heterogeneous material into a mold; heating the other of the amorphous alloy material and the heterogeneous material to a predetermined temperature, and casting the other of the amorphous alloy material and the heterogeneous material into the mold to form a transition connection part joining the amorphous alloy material to the heterogeneous material and having a fusion welded structure, a microstructure reinforcing connection structure and a composite connection structure; and cooling the amorphous alloy material and the heterogeneous material at a rate higher than a critical cooling rate of the amorphous alloy material to obtain a composite formed by joining the amorphous alloy material to the heterogeneous material by the transition connection part.