83results about How to "Good subsequent processing performance" patented technology

The present invention relates: to a composition including water-soluble monomer including an epoxy group-containing ethylenically unsaturated monomer and ethylene epoxide, or an epoxy group-containing ethylenically unsaturated monomer, and acidic content; to a thermosetting binder resin including a water-soluble monomer including an ethylene oxide group; to a thermosetting resin composition including same; and to a hardening layer, to a color filter, and to a device for a liquid crystal display manufactured from same. The thermosetting binder resin of the present invention can greatly improve the coatability of a composition forming a reinforcing layer, can increase the surface energy of a coated protective layer, and can also improve the re-coatability of a protective layer in subsequent processes after same is formed.

The invention relates to a method for weakening the cardinal plane texture of a magnesium alloy plate strip, which comprises the following steps of: placing the magnesium alloy plate strip between corrugated rollers, carrying out alternative rolling for many times under the temperature of 300-550 DEG C, straightening, and water quenching, or carrying out multi-channel one-way or alternative rolling for many times under the temperature of 150-300 DEG C, straightening, carrying out static recrystallization, and annealing; carrying out corrugated rolling at the temperature of over 300 DEG C, andincreasing along with the channel, wherein each flat surface which is vertical to normal direction of the plate strip is respectively applied with shearing force in different directions; inducing dynamic recrystallization, so that the orientation distribution of grains in the plate strip is randomized, and the strength of the cardinal plane texture is reduced; and carrying out corrugated rolling under the temperature of below 300 DEG C, wherein at the position in the plate strip, especially, the position where the repeated wave bending deformation is the most serious, a large amount of twin crystals are produced to enable the grain orientation to deflect, and further, the initial texture is weakened. The invention has the advantages that the process design is reasonable, the equipment is easy to manufacture, the operation process is easy to realize, the defects of the normal plastic deformation and difficulty in weakening of the texture in annealing of the magnesium alloy are overcome, and the efficiency is high. The method is suitable for the large scale of industrial production.

The invention relates to a homogenization heat treatment process of a large-size magnesium alloy ingot, belonging to the technical field of magnesium alloy material preparation. The process is characterized by heating a large-size magnesium alloy ingot to 320-350 DEG C at a heating rate of 10-30 DEG C / min and then heating the large-size magnesium alloy ingot to 410-430 DEG C at a heating rate of 12-27 DEG C / h, insulating the large-size magnesium alloy ingot and then cooling the large-size magnesium alloy ingot to the room temperature at a cooling speed of 2-10 DEG C / min, thus obtaining the finished product, wherein the diameter phi of the large-size magnesium alloy ingot is not less than 220mm. The process has the beneficial effects that quick heating is carried out at the early stage of homogenization to release the casting stress to prevent growth of grains in the homogenization process; later, slow heating is carried out till the homogenization temperature to ensure that all the parts are heated uniformly to prevent overburning; then cooling is carried out at a cooling speed of 2-10 DEG C / min till the room temperature is reached, thus preventing cracking due to too quick cooling and also avoiding precipitation strengthening, which is unfavourable for subsequent deformation, due to too slow cooling; dendritic segregation of the large-size magnesium alloy ingot treated by the process is basically eliminated and the components in various parts of the large-size magnesium alloy ingot are uniform; besides, the equipment used in the process is a conventional resistance furnace, is mature in process and is safe and reliable.

The invention discloses a cupronickel alloy for coinage. The cupronickel alloy comprises elements of, by mass, 8,0 to 10.0 percents of Ni, 16.0 to 19.0 percents of Zn, 3.0 to 5.0 percents of Mn, 1.8 to 2.5 percents of Ti, and 0.5 to 0.9 percent of Fe; and 0.3 to 0.7 percent of Al, 0.2 to 0.5 percent of Sb, no more than 0.9 percent of impurities, and the balance copper. According to the cupronickel alloy and the manufacturing method thereof, low price metal Zn, Mn, Al are used to replace precious metal Ni, thereby production and manufacture cost of the copper-based metal circulation currency can be greatly reduced; subsequent processing performance of production and manufacture of the metal circulation currency is improved by adding trace amounts of Sb; abrasion resistance performance of the metal circulation currency is improved by adding trace amounts of Fe; and abrasion resistance performance of the metal circulation currency is improved, and attractiveness and silver luster sensation of the metal currency are enhanced by adding alloy elements such as Al, Ti and the like.

The invention relates to the field of polymer materials, in particular to a polyester elastomer-based neck hanging line shaping material as well as a preparation method and application thereof. The material is prepared from the following raw materials in parts by weight: 50-70 parts of polyester elastomer, 15-25 parts of TPU, 10-25 parts of polyolefin elastomer, 3-5 parts of a compatilizer, 1-3 parts of a lubricant and 3-4 parts of an assistant. According to the material, the TPU and the polyolefin elastomer are introduced for polymerization, the compatibility of the materials is improved under the action of the compatilizer, the flexibility and toughness of the shaping material are improved by introducing the TPU, and the resilience and impact resistance of the shaping material are improved by combining the polyolefin elastomer; and the shaping material prepared after polymerization can be prepared and molded in a low-temperature environment, so that the preparation difficulty and theenergy consumption cost are reduced, and the product is good in rebound resilience, not liable to deform, high in breaking strength, high in impact strength and not liable to break.

The invention provides a metal wire straightening and cutting machine and relates to the field of metal machining equipment. The metal wire straightening and cutting machine comprises a roller train, a driving wheel set, a straightening wheel set, a milling wheel set, a cutting mechanism, a delivery mechanism, a power source and a machine tool, wherein the delivery mechanism is arranged at one end of the machine tool; the cutting mechanism is adjacent to the delivery mechanism and is arranged on the machine tool; at one side of the cutting mechanism, which is far away from the delivery mechanism, the milling wheel set, the straightening wheel set, the driving wheel set and the roller train are sequentially and adjacently arranged on the machine tool; the power source is connected with the driving wheel set. The metal wire straightening and cutting machine has the benefits that the metal wire straightening and cutting machine is provided, can straighten a metal wire when eliminating stress of the metal wire and also can ensure that the straightened and cut metal wire has small wear and scratches to appearance, high roughness accuracy, small residual stress and excellent subsequent machinability.

The invention discloses a special-shaped titanium alloy capillary tube processing method which comprises the following steps: coiling a titanium alloy capillary tube which is drawn to be a certain specifications on a reel; rotating the reel to release the capillary tube coiled on the reel; after the capillary tube is treated through a heating mechanism, feeding the capillary tube into a mold with a circular pore, reducing the diameter, and feeding the capillary tube into a cooling device; performing cold-drawing processing continuously by using molds of different pore shapes; selecting molds with different pore shape series according to the shape of a finished product special-shaped material to draw special-shaped materials with cross sections of a certain shapes. A product produced by using the method is high in quality stability, high in finished product rate, good in quality, excellent in mechanical property and elasticity, and good in subsequent processing property, and the processing method can be widely applied to the field of production and processing of intravascular stents and catheters for minimally invasive surgery.

A light-weight high-conductivity and heat-resistant aluminum wire and its preparation method, the material components include B: 0.035-0.06wt.%, 0.1-0.2wt.% Zr, 0.1-0.3wt.% Er, unavoidable impurities and the balance Al , The technological process is smelting, rapid component analysis before the furnace, refining, rapid cooling casting, billet annealing, extrusion, and drawing. In addition to refining and modifying, the B element added in the invention mainly plays the role of promoting the precipitation of Al3(Er, Zr) ternary composite phase in the supersaturated solid solution containing Zr and Er. The Al3(Er, Zr) composite phase is nanoparticles coherent with the matrix and having a core-shell structure, dispersed in the aluminum matrix, and can greatly improve the electrical conductivity and heat resistance of the aluminum wire. The monofilament density obtained is less than or equal to 2.71g / cm3, the electrical conductivity at 20°C is greater than or equal to 62% IACS, the short-term heat-resistant temperature is as high as 230°C, the long-term heat-resistant temperature is as high as 210°C, and the tensile strength is greater than or equal to 165MPa. The economic benefits and the significance of energy saving and environmental protection.

The invention discloses a preparation method of micro / nano structured LiFePO4 compound and the method comprises: mixing Li source, divalent iron source, phosphate, and compound(s) with molten salt effects and calcinating the mixture in an inert atmosphere at a temperature of 550 to 850 DEG C, wherein the compound(s) with molten salt effects can change into molten compound(s) at a calcination temperature. The invention also discloses the applications of the LiFePO4 compound prepared by the above preparation method and the applications of the LiFePO4 compound as lithium ion battery cathode materials. The preparation method of the present invention is simple in operation and can be used to produce products with good electrochemical performance; and moreover the materials required are of low price, therefore the method is convenient for large scale production.