35results about How to "Efficient processing method" patented technology

The invention relates to the technical field of production and processing of walnut products, in particular to a processing method for a multi-flavor thin-skin walnut and the walnut processed by the processing method. The processing method comprises the following process steps of: selecting a thin-skin walnut; cleaning, drying and cracking; preparing a liquid; soaking the walnut in a seasoning liquid at high pressure for 24 hours; removing a residual liquid in the walnut by using a food dryer; placing the walnut into an electro-thermostatic blast oven for roasting; controlling the temperature to be about 100DEG C for 2 hours; cooling the roasted walnut; and bagging, vacuumizing and sealing. According to the processing method disclosed by the invention, a traditional production process of easily-cracked nuts is improved from the selecting and processing method; and the thin-skin walnuts from Sinkiang are selected and a high-pressure soaking technology is adopted, so that the process time is shortened and the quality of products is improved. The invention provides the simple and high-efficiency processing method with easiness in operation; peels of walnut products processed by the processing method are easily stripped; and the walnut products are convenience to eat, can be processed to obtain spiced and cream flavors and have fragrant and crisp mouthfeeling.

The invention discloses a processing method for a steel tube. The processing method comprises the following steps of: carrying out inner wall quenching on the steel tube to enable the steel tube to integrally form a martensite structure; carrying out medium-temperature tempering on the outer wall of the steel tube, which is processed by an inner wall quenching process, to enable the outer wall to form a tempered troostite structure; and meanwhile, carrying out low-temperature tempering on the inner wall to enable the inner wall and part of adjacent outer wall to form a tempered martensite structure. Therefore, the inner wall of the processed steel tube has higher hardness and wear resistant; the outer wall of the processed steel tube has higher toughness; and the processed steel tube can completely meet the requirements of wear resistance and toughness. The invention also discloses processing equipment for the steel tube. The processing equipment comprises a clamper for clamping the steel tube, an inner wall quenching device of a quenching sensor as well as an outer wall tempering device of a tempering sensor, wherein the inner wall quenching device can be moved inside the steel tube; and the outer wall tempering device can be moved on the outer wall of the steel tube. The processing equipment can be used for simultaneously finishing the inner wall quenching process and the outer wall tempering process and has high processing efficiency. The invention further provides the steel tube obtained by the processing method and the processing equipment disclosed by the invention.

The invention belongs to the technical field of semiconductor material processing, and in particular relates to an efficient silicon carbide wafer processing method, including wafer chamfering, double-sided mechanical grinding, grinding wheel polishing, and double-sided chemical mechanical polishing. The invention adopts diamond grinding wheel polishing to connect double-sided mechanical grinding and double-sided chemical mechanical polishing, abandons the wax patch program in the traditional single-sided processing method, greatly optimizes the processing process, and improves the automation and efficiency of wafer processing. Precision, obtained silicon carbide wafers with low warpage and high surface quality. The inventive method greatly simplifies the wafer processing flow, improves processing efficiency, and is beneficial to commercial large-scale production.

The invention discloses a processing method for a diaphragm of a centrifugal compressor, which includes: fixing the upper side plate and the upper blisk together, fixing the lower side plate and the lower blisk together, and completing the assembly of the upper and lower partitions; Finish the mid-section, outer circle and end surface of the upper and lower partitions respectively, and align the outer circle and end plane of the upper and lower partitions; fix the upper and lower partitions at the mid-section , complete the assembly of the whole partition; finish the whole partition, so that the inner and outer circles and end faces of the whole partition meet the size requirements of the drawing; disassemble the upper and lower partitions, and trim the upper and lower partitions Flash, burrs, and anti-rust treatment on the upper and lower partitions, complete the processing of centrifugal compressor partitions. The invention realizes a practical and high-efficiency preparation method for processing the diaphragm of the centrifugal compressor, and solves the technical blank of the diaphragm of the centrifugal compressor at present.

The invention relates to a preparation method of bacterial-cellulose-fiber-based nano-grade carbon fiber. According to the invention, a bacterial cellulose wet film is adopted as a substrate raw material. The prepared nano-grade carbon fiber is a product obtained after pyrolytic carbonization and graphitization of ultrafine bacterial cellulose fiber processed through an acupuncture carding refining treatment. The bacterial-cellulose-fiber-based nano-grade carbon fiber preparation method provided by the invention is safe, simple, and highly efficient, and has the advantages of wide raw material source, low price, and environment-friendly processing method. The bacterial-cellulose-fiber-based nano-grade carbon fiber obtained by processing has wide application field and great potential economic benefit.

The invention provides an intractable metal material discharge ablation processing method based on a quantitative high-pressure and low-pressure combination gas inlet system. According to the method, a hollow electrode is used as an electrode for inducing ablation; certain relative movement speed is kept between a workpiece and the electrode; spark discharge is generated between the electrode and an intractable metal material under the effect of a direct current or pulsed power supply; the surface of the intractable metal material is enabled to at a temperature which is higher than a material burning point temperature so as to be in an activation state by use of spark discharge; then quantitative high-pressure and low-pressure combination combustion-supporting gas output by the gas inlet system is introduced into an activation region through the interior of the hollow electrode; continuously introduced low-pressure gas and the metal which is in an activation state are subjected to a strong burning reaction so as to release heat; as the released heat quantity is greater than the dissipated heat quantity, ablation processing can be continuously performed; intermittently introduced quantitative high-pressure gas enables a quantitative activated material to be subjected to a fire blast reaction. By virtue of the gas inlet system, ablation processing is in a process of ablating the materials by virtue of continuous low-pressure oxygen induced combustion and quantitative high-pressure oxygen controllable fire blast.

The invention belongs to the field of polymer electrolyte materials for fuel cells, and particularly relates to a sulphur-modified thermosetting polymer proton exchange membrane and a preparation method thereof. The proton exchange membrane comprises a base body rubber material, a metal unsaturated sulfonate, a vulcanizing activator, a vulcanizing accelerator and sulphur. According to the preparation method, in-situ sulfonation modification and in-situ sulphur modification of rubber are simultaneously completed in a high-temperature hot-pressing process, sulfonic acid groups are effectively grafted on a rubber molecular chain, and a large amount of cyclical sulfides is generated, thus the glass-transition temperature of the rubber is greatly increased, the rubber is transformed into thermosetting plastics, and therefore excellent size stability, heat stability, chemical stability and electrochemical stability are endowed to the proton exchange membrane. The preparation method provided by the invention is simple in process, high in efficiency and low in cost, and is environmental-friendly; the prepared sulphur-modified thermosetting polymer proton exchange membrane has the advantages of high proton conductivity, low methanol permeability, high size stability and the like, and can meet the use requirement of a direct-methanol fuel cell.