37results about How to "Reduce heating steps" patented technology

An object of the present invention is to provide a manufacturing method by which alumina-silica based fibers excellent in mechanical strength can be readily and securely obtained, and the present invention obtains precursor fibers as a material by using an alumina-silica based fiber spinning stock solution for use in an inorganic salt method. Next, the precursor fibers are heated under an environment which makes it difficult to carry out an oxidizing reaction on the carbon component contained in the precursor fibers. Thus, the precursor fibers are sintered to obtain alumina-silica based fibers.

The invention relates to an energy-saving environment-friendly vacuum cup capable of performing self-heating. The energy-saving environment-friendly vacuum cup capable of performing self-heating is characterized by comprising a cup body and a cup cover. The cup body includes a casing and an inner container. A vacuum layer is disposed between the casing and the inner container, the cup body is provided with a temperature detection device which includes a temperature displayer and a temperature detector, the temperature displayer is mounted on the outer side of the inner container, and the temperature detector is disposed on the inner side of the inner container. The bottom of the cup body is provided with a thermoelectric converter, and a heat-conducting piece is mounted above the thermoelectric converter and fixedly connected with the bottom of the inner container. The energy-saving environment-friendly vacuum cup has the advantages that the energy-saving environment-friendly vacuum cup is simple in structure and convenient to operate; steps of utilizing a domestic appliance to heat water can be reduced, so as to reduce operation procedures and save electric power sources; after the water cools down, the water in the vacuum cup can also be automatically detected and heated, and water resources are saved.

The present invention provides a novel dry laminated glass production process, which comprises: 1) forming a laminated glass module in a sheet laminating chamber; 2) taking two pieces of high temperature polyester films, respectively coating on the upper surface and the lower surface of the laminated glass module, sealing the peripheries of the high temperature polyester films with sealing strips to form a flexible sealing cavity, and arranging at least a gas sucking port for vacuumizing on the surface of the flexible sealing cavity; and 3) conveying into an autoclave, carrying out pressurization and heating treatment through the autoclave, carrying out vacuumizing treatment through a vacuumizing device, discharging the pressure, taking out, and removing the flexible sealing cavity so as to obtain the finished product laminated glass. According to the present invention, the gas discharge of the process is performed through the vacuumizing in the closed environment, and the vacuum gas discharge and the step 2 are combined to achieve the laminated glass product production in the one step; and the vacuumizing gas discharge is performed in the autoclave so as to complete the laminated glass production process in the one-step manner and efficiently produce the high-quality laminated glass.

The invention provides a new technology of applying the double-effect forced circulation concentration method in the production of ammonium phosphate, which comprises the steps of carrying out double-effect forced circulation flash distillation on phosphoric acid slurry, removing excess moisture in the phosphoric acid slurry and reacting with neutralizing slurry so as to generate intermediate slurry, enabling the intermediate slurry to be reacted with ammonia gas to generate a product, carrying out one-effect forced circulation flash distillation on the product slurry, further preparing qualified monoammonium phosphate slurry, drying and granulating by a fluid bed, packaging and weighing. Heat quantity generated by neutralization reaction is taken as a one-effect flash distillation heat source, and the excess heat in the one-effect flash distillation process is taken as a double-effect flash distillation heat source. With the adoption of the new technology, the heating steps in the production process are reduced, the quantity and height of devices used are decreased, heat energy is used reasonably, and energy consumption is reduced. The temperature difference between an inlet and an outlet of a heater is only 1-3 DEG C, degree of supersaturation can be controlled effectively, and scaling of the pipe wall of a heat exchanger is reduced. The forced circulation can enable the circulation speed of liquid phase to improve greatly, wash the wall pipe, and play an important role in reducing the scaling. The cycle of operation of a device is increased greatly, productive capacity is improved obviously, and the production cost is reduced effectively.

The invention discloses a manufacturing method for improving an integral golf club head, which includes the following steps: (1) precasting an internal sleeve, the outer contour of which is the same with the shape of an inner cavity of the golf club head, and at least one opening is arranged in the internal sleeve; (2) preparing granular filling materials for the internal sleeve and placing the filling materials into the inner cavity of the internal sleeve through the opening; (3) precasting a die-casting die of the club head; (4) fixing the entity of the internal sleeve in the die-casting die; (5) casting metal liquid, the casting melting point of which is not higher than the melting point of the metal material of the internal sleeve, into the die, and the die is cast and formed; (6) preparing a club head embryo which consists of a shell layer, an internal sleeve layer and filling materials after die de-molding; (7) drilling a bore hole which permeates the shell layer and the internal sleeve layer on the embryo club head; and (8) manufacturing the golf club head by arranging the opening of the bore hole downward to cause the filling materials to flow out automatically from the bore hole. The method also discloses a product made by adopting the method.

The present invention relates to a method for sealing a heat transfer unit, which includes the steps of providing a heat transfer unit having at least one opening, welding the opening to form a welding section and close the opening, and pinching off the welding section and cutting part of the welding section to form a cutting end and complete sealing the opening of the heat transfer unit. By means of the method of the present invention, an extremely short dead zone can be obtained and high heat conduction efficiency is enhanced, further having the effects of reducing the arrangement space and shrinking steps of the heat pipe.

The invention discloses a steroid environment endocrine disturbing chemicals hydroxyl group / keto group synchronous derivatization method of steroid environment endocrine disturbing chemicals (oestrone, 17 beta-estradiol, 17 alpha-ethinyl estradiol, estriol and progesterone). The method comprises the following steps: first fetching standard mixed solution containing the steroid environment endocrine disturbing chemicals and internal standard and introducing high-purity nitrogen at normal temperature so as to dry the standard mixed solution; and adding derivatization reagent prepared from N-methyl-N-trimethylsilyl trifluoroacetamide, iodotrimethylsilane and dithiothreitol based on a proportion of 1,000 muL:5 to 10 muL:5 mg and reacting at 20 to 60 DEG C for 5 to 10 min so as to obtain the derivatization product shown in figure. The method has the advantages of simple and time-saving operation, low energy consumption and cost and the like. The hydroxyl group and the keto group can be derivatized synchronously, the linear correlation among the derivatization products is good, and the detection limit of instrument can reach 0.01 to 1 pg / mu L. The method can be used for the GC-MS detection of the steroid environment endocrine disturbing chemicals in samples such as water, bottom sediment, organisms and the like.