37results about How to "Simultaneous production" patented technology

The invention discloses an enzyme conversion method for preparing gamma-butyric acid. The preparation method comprises employing two mixed acidic amino acids of L-glutamic acid and L-aspartic acid as raw material, mixing the cells of Escherichia.coli AS1.505 with highly active L-glutamic acid decarboxylases and the conversion liquid containing the mixture of L-glutamic acid and L-aspartic acid, implementing enzymatic reaction under the temperature of 28-45 DEG C, then separating the conversion products by isoelectric point crystallization process or isoelectric point crystallization and ion exchange resin combined method to obtain high purity gamma-butyric acid and L-aspartic acid. The invention solves the problem of the highly effective separation of two acidic mixed amino acids, and obtains gamma-butyric acid with higher additional value, and has advantages of low price, simple operation, short conversion time, and low production cost.

The invention provides a copper clad laminate die-cutting processing equipment and die-cutting processing technology, which relate to the field of mechanical manufacturing and processing, including a bottom plate, a support frame, a die-cutting device and a collecting device. production capacity, and at the same time, it can position the copper clad laminate to ensure the accuracy of the die cutting process of the copper clad laminate, avoid the offset of the copper clad laminate, and can automatically repair after the die cutting process, without secondary processing, which improves the product quality. production efficiency.

The invention discloses a heat recovery type air cooling heat pump unit comprising a first refrigerant circulating system and a second refrigerant circulating system, wherein the first refrigerant circulating system comprises a first compressor, a first four-way valve, a second four-way valve, a first air side fin type heat exchanger, an air conditioner side heat exchanger, a first air-liquid separator, a total heat recovery heat exchanger, a hot water circulating water pump, a heat preservation water tank and a valve; the second refrigerant circulating system comprises a second compressor, athird four-way valve, a fourth four-way valve, a second air side fin type heat exchanger, an air conditioner side heat exchanger, a third reservoir, a second air-liquid separator, a partial heat recovery heat exchanger, a heat preservation water tank and a valve. According the invention, heat is ensured to be effectively recovered and reused, and environment is protected from thermal pollution, thereby being environmental friendly and saving energy. In addition, the defects that air conditioner heating and daily hot water supply can not be carried out simultaneously, and the traditional totalheat recovery air conditioner system which only has a single heat recovery system can not produce higher-temperature daily hot water at low temperature in winter can be effectively overcome.

The invention relates to a stiff thin tape continuous shearing and press-plaster device in mechatronics domain, which comprises tape-guiding parts, tape-pinching parts, tape shearing and press-plaster parts and shifting parts. Tape-guiding parts comprise guide runner, material-leading grid and striker grid; tape-pinching parts comprise pinch-off blades, clamping cylinder, actuating motor running gear and slider of pinching parts; tape-pinching parts comprise shearing cylinder, scissors and so on; shifting parts comprise driving motor, running gear and slider. The invention improves productive efficiency and can be used in automated producing equipment of metal anti-theft label.

An AMOLED pixel circuit, a drive method of same, and a display device. The pixel circuit and the drive method of same can enhance the integration between a built-in touch circuit and an AMOLED drive circuit. The AMOLED pixel circuit comprises a light-emitting module (11), a touch module (12), a control module (13), and a drive amplification module (14). The AMOLED pixel circuit is used to manufacture an AMOLED display device.

The invention provides a nanofiltration membrane preparation device and production process. The preparation device includes a horizontal workbench, a base, a casting liquid delivery pump, a hydraulic control valve, a casting liquid container, a casting liquid delivery pipe, and a casting liquid spraying pump. cavity, base plate, casting solution booster chamber, casting solution booster pipe, booster regulating valve and booster pump, casting solution spraying chambers are arranged symmetrically on both sides of the base, casting solution booster chamber is set on the base, and is located on both sides of the casting film In the middle of the liquid spraying chamber, the casting liquid spraying chambers and the casting liquid booster chambers on both sides are arranged in parallel, and the substrates are stacked between the casting liquid spraying chambers and the casting liquid booster chambers. A gap with a certain thickness is formed between them by a thickness adjusting device. The present invention uses the stacking with standard thickness gaps as the reaction chamber of the casting solution to ensure that the produced nanofiltration membrane has extremely high flatness, avoids problems such as pockmarks and pits, and accurately measures the nanofiltration membrane through the thickness adjustment device. The thickness of the filter membrane, and ensure that the thickness of the nanofiltration membrane is uniform.

The invention discloses an AMOLED pixel circuit, a driving method thereof, and a display device, which relate to the field of display technology and can improve the integration degree of an embedded touch control circuit and an AMOLED driving circuit. The AMOLED pixel circuit includes: a light-emitting module, a touch module, a control module and a driving and amplifying module. The embodiment of the present invention is used to manufacture an AMOLED display device.

The invention provides a 3D printing microfluidic device and a method for preparing a monodisperse emulsion with large throughput. 3D printing is used to make microfluidic devices. The device is in the shape of a cylinder with a cylindrical channel in the center. The liquid buffer channel is connected to multiple radially distributed microchannels. The microchannels are connected to the external collection tank through the slit area. The slit The area is flat and wedge-shaped. When the dispersed phase is injected from the liquid inlet, enters the liquid buffer channel, flows into the radially distributed microchannels from the liquid buffer channel, and when the fluid enters the flat slit area through the microchannel, under the extrusion of the side of the slit, it has a relatively Large Laplace pressure, the wedge-shaped structure will cause the droplet to be subjected to a Laplace pressure difference between the inside and outside, the pressure difference pushes the droplet to flow in the wedge-shaped structure, and finally squeezes the droplet from the wedge-shaped structure to the collection tank middle. The size of the generated droplets can be controlled by changing the structural parameters of the channel, and the size of the prepared droplets is uniform, so that a large number of monodisperse emulsions with uniform and controllable sizes can be prepared. The method has the advantages of simple manufacture and low cost, and can realize industrialized production.

The invention provides a method for extracting hydrocarbon oil from oil sand and producing ceramic aggregates. The method mainly comprises the following steps of: mixing the oil sand with water, an activating agent, a crosslinking agent, a dispersing agent, a foaming agent, a polymerizer and a catalyst and forming into grains with grain diameter of 0.5-2cm; and heating the formed grains, performing dry distillation to obtain the hydrocarbon oil, sintering at the high temperature of 750-1,100 DEG C for 1-4 hours and cooling to obtain the ceramic aggregates. In the method, the density of the ceramic aggregates can be controlled to be 0.3-1.8g / cm<3> according to different proportions of additives. The ceramic aggregates can be used as a filler for a moving bed biofilm reactor to perform oil-containing sewage treatment and can also be used as a building material or a chemical product.