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公开(公告)号:US12097590B1
公开(公告)日:2024-09-24
申请号:US18285325
申请日:2023-04-10
Applicant: EAST CHINA UNIVERSITY OF SCIENCE AND TECHNOLOGY , AECC COMMERCIAL AIRCRAFT ENGINE CO. LTD , AECC HUNAN AVIATION POWERPLANT RESEARCH INSTITUTE
Inventor: Xiancheng Zhang , Shulei Yao , Shantung Tu , Yuxin Chi , Yalong Chen , Lizhang Zhang , Fei Zeng , Congyang Gong , Ning Wang , Junmiao Shi , Yunfei Jia , Shuang Liu
CPC classification number: B24B31/06 , B24B1/04 , B24B19/14 , B24B31/003 , B24B31/064 , B24B31/12 , B24C3/22 , B24C3/28 , B24C5/005
Abstract: A water jet strengthening and polishing integrated system for blades of a blisk includes a vibration polishing unit and a water jet strengthening unit. The vibration polishing unit includes a vibration polishing bath, the vibration polishing bath is internally provided with a clamp for clamping the blisk, and vibration motors for driving the vibration polishing bath to vibrate are installed on the vibration polishing bath. Top ends of support springs are fixedly connected with the vibration polishing bath, and bottom ends of the support springs are fixedly connected with a workbench. The water jet strengthening unit includes a water jet strengthening device for carrying out water jet strengthening on the blades of the blisk and a driving mechanism for clamping the water jet strengthening device and capable of driving the water jet strengthening device to move in any direction in space.
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42.
公开(公告)号:US20240296174A1
公开(公告)日:2024-09-05
申请号:US18556618
申请日:2022-03-30
IPC: G06F16/28
CPC classification number: G06F16/285 , G06F16/288
Abstract: The present invention relates to a management method and a device for hazardous chemicals and a construction method of a management database. The construction method comprises following steps: determining a plurality of entities involved in entire lifecycle of hazardous chemicals; classifying the plurality of entities to define a plurality of entity classes involved in the management database; defining a plurality of relationship classes according to one or more relationships involved between every two of the entity classes; using the relationship from one or more of the relationship classes to constrain the relationships between every two entities, so as to construct an ontology of the database; and importing actual data of the hazardous chemicals throughout their entire lifecycle into the ontology, so as to carry out instantiation of the ontology. By implementing this construction method, a management database for hazardous chemicals can be obtained, which can break the island phenomenon of multi-field data by integrating and fusing the multi-filed data throughout the entire lifecycle of hazardous chemicals, thereby achieving the effects of reasonable resource allocation, dynamic warning and supervision, and emergency linkage.
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公开(公告)号:US20240286916A1
公开(公告)日:2024-08-29
申请号:US18438051
申请日:2024-02-09
Inventor: Chenglin LIU , Jianguo YU , Ying YANG , Yuan MA
IPC: C01F11/18 , C02F1/469 , C02F103/34
CPC classification number: C01F11/181 , C02F1/4693 , C01P2004/61 , C02F2103/34 , C02F2201/46115
Abstract: The present invention provides a method for integrated utilization of a calcium chloride solution and CO2. In this method, with the calcium chloride solution and the CO2 being taken as raw materials, a water-soluble amine is added as an auxiliary agent to promote the occurrence of a mineralization reaction. As a result of crystallization following the reaction, calcium carbonate and a solution of a hydrochloride of the water-soluble amine are obtained. After the reaction is completed, the water-soluble amine is regenerated by subjecting a liquid phase resulting from separation to bipolar membrane electrodialysis, and dilute hydrochloric acid is obtained as a by-product at the same time. The method provides a novel perspective and approach to integrated utilization of calcium chloride-containing liquid waste and flue gas CO2. The water-soluble amine allows excellent mineralization, and the bipolar membrane electrodialysis enables excellent regeneration of the amine. By means of process regulation, a calcium carbonate product of high value with controlled morphology and particle size can be obtained. For applications equipped with a lime kiln and allowing recycling of calcium carbonate, such as the ammonia-soda industry, the present invention also provides a combined cycle process for carbon and calcium resources, in which calcium carbonate produced by a mineralization reaction is calcined in lieu of limestone used in the soda production process to provide the soda production process with CO2 and milk of lime, enabling recycling of carbon and calcium resources in an ammonia soda plant. The entire process is free of waste discharge, showing a promising prospect of application. It is of great significance to the fields of calcium chloride-containing liquid waste disposal and carbon emission reduction.
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公开(公告)号:US20240279831A1
公开(公告)日:2024-08-22
申请号:US18042830
申请日:2022-08-01
Inventor: Shuai Gu , Tongtong Fu , Zirui Guo , Jianguo Yu
IPC: C25C1/08 , C21B15/00 , C22B3/00 , C22B3/04 , C22B3/06 , C22B3/08 , C22B3/10 , C22B3/16 , C22B3/22 , C22B7/00 , C22B26/12 , C22B47/00 , C25C1/10 , H01M10/54
CPC classification number: C25C1/08 , C21B15/00 , C22B3/045 , C22B3/065 , C22B3/08 , C22B3/10 , C22B3/165 , C22B3/22 , C22B7/007 , C22B23/0423 , C22B23/0453 , C22B26/12 , C22B47/00 , C25C1/10 , H01M10/54
Abstract: The present invention discloses a method for recycling a spent lithium-ion battery, including the following steps: sandwiching a cathode of the spent lithium-ion battery with a conductive acid-resistant material as a cathode of a primary battery system; sandwiching an anode of the spent lithium-ion battery with a conductive acid-resistant material as an anode of the primary battery system; injecting an acid solution into a chamber of the primary battery system; and carrying out, after an electrochemical reaction is completed, solid-liquid separation on a mixed liquor in the chamber. The present invention further discloses an electrochemical system for recycling a spent lithium-ion battery. The method for recycling a spent lithium-ion battery in the present invention requires only dismantlement of cathode and anode materials, without a series of complex pretreatment operations on the cathode materials of the spent lithium-ion battery. In addition, by the method, the cathodes and anodes of the spent lithium-ion battery can be recycled at the same time, and valuable elements can be separated, which is greatly improved compared with the electrolytic leaching method. Moreover, there is no need to add an external power supply, which saves energy and can also output electricity.
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45.
公开(公告)号:US20240219277A1
公开(公告)日:2024-07-04
申请号:US18223913
申请日:2023-07-19
Applicant: East China University of Science and Technology , Shandong Chambroad Holding Group Co., Ltd , SD Chambroad EQPT MFG and Installation Co., Ltd
Inventor: Yuhui HUANG , Yunsheng MA , Fangxin YANG , Fuzhen XUAN , Shantung TU , Liqiu ZHAO , Shengke WEI
IPC: G01N3/08 , G01N3/06 , G01N21/84 , G01N23/2251
CPC classification number: G01N3/08 , G01N3/06 , G01N21/84 , G01N23/2251
Abstract: A method and a system for evaluating stress corrosion cracking sensitivity of a welded component are provided. The method includes performing an in-situ tensile test on a welded component to be tested to obtain mechanical property parameters of each zone of the welded component to be tested; determining sizes and positions of notch specimens of the welded component to be tested by means of a finite element simulation method; processing specimens of the welded component to be tested; respectively performing a slow strain rate tensile test on the specimens of the welded component to be tested until the specimens are fractured in both an inert environment and a test environment, so as to obtain reductions of area of notch roots of the specimens of the welded component to be tested; and calculating stress corrosion cracking sensitivities of various zones of the welded component to be tested.
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公开(公告)号:US11952540B2
公开(公告)日:2024-04-09
申请号:US17627824
申请日:2020-06-16
Inventor: Yulong Chang , Hualin Wang , Xia Jiang , Jianping Li , Jingyi Zhu , Pengbo Fu , Wei Yuan
CPC classification number: C10G3/50 , C10G3/42 , C10G2300/1011
Abstract: A method and apparatus for hydrocracking mineralized refuse pyrolysis oil. The method may use the following steps: (a) crushing and pyrolyzing mineralized refuse to obtain arene and alkane precursor biomass oil; (b) hydrogenating the arene and alkane precursor biomass oil obtained in step (a), and separating the obtained hydrocrackate to obtain arene and alkane; and (c) purifying, recovering and optimizing the arene and alkane obtained in step (b), and performing deep processing to produce naphtha, jet fuel, light diesel oil, and heavy diesel oil.
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公开(公告)号:US11857897B2
公开(公告)日:2024-01-02
申请号:US17577177
申请日:2022-01-17
Inventor: Zhishan Bai , Fuwei Lv , Xiao Dong
CPC classification number: B01D21/267 , B01D21/0012 , B04C3/06 , B04C9/00 , B04C2009/004
Abstract: The present disclosure relates to a gas cooling-scrubbing apparatus and an associated method. There is provided a gas cooling-scrubbing apparatus, comprising: a cyclone jet scrubbing unit, a spray scrubbing unit, a filtering spray unit, and a coalescing dehydration unit, wherein the cyclone jet scrubbing unit comprises a cyclone jet scrubbing monopipe (2), a cyclone jet cooling water pipe (15), a cyclone jet pipe plate (14) and a cyclone jet overflow pipe (13); wherein the spray scrubbing unit comprises a spray filtering pipe (3), a spray pipe plate (11), a spray overflow pipe (12), a scrubbing nozzle (9) and a scrubbing nozzle water pipe (10); wherein the filtering spray unit comprises a filtering bed (4), a spray head (7) and a spray water pipe (8); and wherein the coalescing dehydration unit comprises a coalescing bed (5). There is also provided a gas cooling-scrubbing method.
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公开(公告)号:US11827990B2
公开(公告)日:2023-11-28
申请号:US15734689
申请日:2019-06-14
Inventor: Bingcheng Yang , Feifang Zhang , Yifei Lu , Liting Zhou , Shujun Huang
IPC: C25B9/23 , C25B1/16 , C25B1/22 , C25B13/08 , B01D61/44 , B01D61/46 , B01J49/57 , B01J47/08 , B01J47/12
CPC classification number: C25B9/23 , B01D61/445 , B01D61/46 , B01J47/08 , B01J47/12 , B01J49/57 , C25B1/16 , C25B1/22 , C25B13/08
Abstract: A dual-membrane on-line generator for an acid or alkali solution is provided, including an upper electrolytic cell body (3), a middle electrolytic cell body (4) and a lower electrolytic cell body (5) which are clamped by an upper fastening steel plate (1) and a lower fastening steel plate (2), an upper regeneration liquid channel (A), a middle eluent channel (B) and a lower regeneration liquid channel (C) being provided on the middle electrolytic cell body (4).
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公开(公告)号:US20230374242A1
公开(公告)日:2023-11-23
申请号:US18042380
申请日:2022-03-23
Inventor: Ling ZHAO , Yichong CHEN , Tao LIU , Shun YAO , Yijie LING , Zhimei XU , Dongdong HU
IPC: C08J9/12
CPC classification number: C08J9/122 , C08J2203/06 , C08J2323/16 , C08J2323/20 , C08J2201/02
Abstract: Provided are a dielectric material and a method for manufacturing the same. The dielectric material includes: subjecting a foamed sphere obtained by a primary foaming to a second foaming in a second moulding chamber filled with CO2 at a second temperature in the range of 20° C. below Tm to 5° C. below Tm and under a second pressure of 15-20 MPa for 30-3600 min to obtain the dielectric material, wherein the primary foaming comprises specific steps of: foaming a foaming material sphere with a diameter of 20-800 mm in a first moulding chamber filled with CO2 at a first temperature in the range of 80° C. below Tm to 20° C. below Tm and under a first pressure of 15-20 MPa to obtain the foamed sphere. Further provided is a dielectric material manufactured by the method above.
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公开(公告)号:US20230152287A1
公开(公告)日:2023-05-18
申请号:US17794767
申请日:2020-07-18
Inventor: Zejian Wang , Daqi Gao , Xiaoqin Zhang , Bo Li , Fang Cai , Jianhua Li , Mingjian Cheng
Abstract: Provided is an electronic nose instrument based on gas sensitivity and gas chromatography and an online analysis method of multiple state parameters of fermentation and malodorous pollutant processes. The main constituent units of the instrument include a gas sensor array module, a capillary gas chromatographic column module, an automatic gas sampling module, and a computer control and analysis module. A single gas sampling period is T0=300-600s. Not only are two flow rates and two accumulative volumes of gas sampling unequal to each other, but also two starting time points are not synchronized to each other, between the gas sensor array module and the gas chromatography module. 3 pieces of sensitive information, i.e., a steady-state peak value, a corresponding peak time value and an area under a whole curve, are selected from a response curve of a single gas sensor with a 60s duration by the computer control and analysis module, or 48 pieces of gas sensitive information in total, and 21 pieces of sensitive information, i.e., 10 maximum peak values, 10 corresponding retention time values, and 1 area under the whole chromatographic curve, are selected from a semi-separation chromatogram with a duration T0−10 s. Furthermore, the cyclical online identification and intensity and quantitative estimation of multiple indices of odors for five fermentation or malodorous pollution processes with a maximum cyclical gas sampling period T=5T0 are realized by a modular deep convolutional neural network model according to a 69-dimensional normalized fused real-time sensitive pattern and an existing big odor data.
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