7results about How to "Guaranteed Tolerance" patented technology

The invention provides bacillus licheniformis capable of producing amylase, protease and cellulase and application of the bacillus licheniformis. The bacillus licheniformis is bacillus licheniformis FJAT-27214 and is preserved in the China General Microbiological Culture Collection Center on August 6, 2025, the preservation address is No. 3, Yard 1, Beichen West Road, Chaoyang District, Beijing, and the preservation number is CGMCC No. 35536. The bacillus licheniformis disclosed by the invention can be used for simultaneously producing amylase, protease and cellulase at high yield; the bacillus subtilis has antibacterial activity to escherichia coli and has certain tolerance to artificial gastric juice, artificial intestinal juice and cholate, the survival rate in the artificial gastric juice is 58.11%, the survival rate in the artificial intestinal juice is 82.58%, and the survival rate in the cholate is 28.03%. When the strain fermentation liquor is used for pomace micro-storage, the content of crude protein and total sugar of pomace can be remarkably increased, meanwhile, the content of neutral detergent fiber and ammoniacal nitrogen is remarkably reduced, and an effective strain resource is provided for pomace micro-storage fermented feed.

This invention discloses a surface-source blackbody structure with a multi-level composite cone structure and its fabrication method, belonging to the field of microstructure optical design and fabrication technology. This invention forms a multi-level composite absorbing unit by setting a periodically arranged first-level main cone structure on a basic support structure, and further constructing a second-level secondary cone structure array with gradient characteristics on its top platform. This not only increases the optical path and multiple internal reflections, but also matches different wavelengths through gradient dimensions. Since the secondary cone array contains multiple scales, energy is absorbed step by step during the transmission process from the outside to the inside; simultaneously, it can achieve efficient absorption over a wide wavelength range and large angles, thus structurally realizing a near-ideal planar blackbody target surface, which is beneficial for promoting its integrated application in infrared calibration, thermal imaging system calibration, and space remote sensing.

The present application relates to the technical field of membrane method waste lithium battery recycling, and particularly relates to a membrane separation and concentration method for recovering positive electrode material of waste lithium battery and application thereof. The method comprises the following steps: mixing the positive electrode material of the waste lithium battery after discharging and disassembling with acid liquor and a reducing agent solution, and then performing heating and stirring treatment, filtering insoluble substances, and obtaining leaching liquor; pumping the leaching liquor into a primary nanofiltration membrane system for primary nanofiltration treatment, obtaining primary nanofiltration water and primary nanofiltration concentrated liquid; pumping the primary nanofiltration water into a secondary nanofiltration membrane system for secondary nanofiltration treatment, obtaining secondary nanofiltration water and secondary nanofiltration concentrated liquid; and pumping the secondary nanofiltration water into a reverse osmosis system for reverse osmosis concentration treatment, obtaining reverse osmosis water and reverse osmosis concentrated liquid. The application is the application of the method in recovering lithium ions in the positive electrode material of the waste lithium battery. The present application can efficiently, highly and at low cost recover each metal cation in the positive electrode material of the waste lithium battery.

This invention discloses a differential pressure automatic jacketing device, comprising a cylinder with a power cylinder head connected to the top of the cylinder; a hollow piston rod is disposed inside the cylinder, with a power cylinder piston and reversing device connected to one end of the hollow piston rod near the power cylinder head, and a jacketing cylinder piston connected to the other end of the hollow piston rod; a jacketing cylinder head is connected to the bottom of the cylinder; a separation sleeve between the power cylinder and the drain / jacketing cylinder, and a separation sleeve between the drain / jacketing cylinder and the jacketing cylinder are sleeved on the outer wall of the hollow piston rod, the separation sleeve between the power cylinder and the drain / jacketing cylinder being fixed to the inner wall of the cylinder by a first positioning pin; the separation sleeve between the drain / jacketing cylinder and the jacketing cylinder being fixed to the inner wall of the cylinder by a second positioning pin; the cylinder also has a power fluid inlet, a power fluid and jacketing gas outlet, and an air inlet, the air inlet being connected to the jacketing cylinder head via a pipe. This differential pressure automatic jacketing device can efficiently draw jacketing gas from the annulus and discharge it into the production pipeline, is safe and effective, and is convenient to install and maintain.

This invention relates to the field of automatic control of nitrogen valves, and particularly to an automatic control method for nitrogen valves based on intelligent sensing. First, based on the measured values ​​of the acquired original sensing variables, preprocessing is performed to obtain preprocessed measured values ​​of the sensing variables. Based on the preprocessed measured values ​​of the sensing variables, a time-varying energy consistency fusion algorithm is used to obtain the state-driven energy value of the sensing variables. Based on the state-driven energy value of the sensing variables, the contribution of the sensing variables is determined, and a fusion situation indicator is constructed. Then, based on the fusion situation indicator, a control potential energy function is constructed using a continuous potential energy-driven valve position decision algorithm. Based on the control potential energy function, the valve adjustment speed is obtained. This method solves technical problems such as insufficient utilization of multi-source sensing information, inaccurate state assessment, delayed adjustment response, and lack of effective intervention for abnormal risks.

The invention provides bacillus subtillis capable of producing amylase, protease and cellulase and application of the bacillus subtillis, the bacillus subtillis is bacillus subtillis FJAT-10612, the bacillus subtillis is preserved in China General Microbiological Culture Collection Center on August 6, 2025, the preservation address is No.3, Yard 1, Beichen West Road, Chaoyang District, Beijing, and the preservation number is CGMCC No.35537. The amylase production activity of the bacillus subtillis disclosed by the invention is 166.12 U / mL, the cellulase production activity of the bacillus subtillis is 88.05 U / mL, and the protease production activity of the bacillus subtillis is 18.36 U / mL; certain tolerance to artificial gastric juice, artificial intestinal juice and cholate is achieved; when the strain fermentation liquor is used for pomace micro-storage, the content of pomace crude protein and total sugar can be remarkably increased, the cellulase activity is improved, meanwhile, the content of crude fibers, neutral detergent fibers, lignin and ammoniacal nitrogen is remarkably reduced, and an effective strain resource is provided for pomace micro-storage fermented feed.

The invention discloses a radial artery compressor, and relates to the technical field of medical instruments. The cold compress bandage comprises a bandage body, the outer wall of the bandage body is sleeved with a supporting block, the outer arc face of the supporting block is fixedly connected with a pressure meter, the pressing end of the pressure meter is fixedly connected with an air bag, the inner arc and the outer arc of the supporting block are provided with cold compress modules used for cold and heat adjustment, and the inner wall of one end of the bandage body is provided with a first hook-and-loop fastener. A second hook-and-loop fastener is arranged on the outer wall of the other end of the bandage body, the end, located on the second hook-and-loop fastener, of the bandage body is sleeved with a pressing plate, the outer wall of the pressing plate is fixedly connected with a circular ring, and the inner wall of the circular ring is in threaded connection with a threaded rod. The purposes of promoting vasoconstriction through cold compress, stopping bleeding and relieving pain are achieved, and meanwhile skin injury caused by too low cold compress temperature is avoided.