公开(公告)号：US12161970B1

公开(公告)日：2024-12-10

申请号：US18799964

申请日：2024-08-09

Applicant: Jiaxing Research Institute, Zhejiang University ,  Zhejiang University

Inventor： Chenghang Zheng ,  Xiang Gao ,  Can Zhou ,  Yongxin Zhang ,  Qihao Chen ,  Weihong Wu ,  Zhiying Zhou ,  Haitao Shen ,  Haidong Fan ,  Qingyi Li ,  Yifan Wang ,  Peng Liu ,  Libin Yu ,  Tao Wang

IPC: B01D53/92 ,  B01D53/14 ,  B01D53/34 ,  B01D53/62

Abstract: A CO2 desorption system suitable for limited space in a complex sailing region comprises an exhaust boiler, a compact CO2 absorber, a compact CO2 lean-rich liquid heat exchanger, a compact CO2 desorber, a compact CO2 rich liquid preheating device, a compact CO2 rich liquid reboiling pre-desorption device and an intelligent control platform. Further, a global optimization control method for the CO2 desorption system suitable for limited space in a complex sailing region is further established based through a knowledge and data-driven exhaust extraction flow accurate-prediction model for a heat source of a CO2 rich liquid preheating device and a steam extraction flow accurate-prediction model for a heat source on an upper section of a CO2 rich liquid reboiling pre-desorption device to realize flexible control of operation parameters of the desorption system under different operating conditions of an engine.

公开(公告)号：US12217204B2

公开(公告)日：2025-02-04

申请号：US17263869

申请日：2019-10-30

Applicant: ZHEJIANG UNIVERSITY

Inventor： Xiang Gao ,  Chenghang Zheng ,  Yueqi Huang ,  Yishan Guo ,  Yongxin Zhang ,  Weiguo Weng ,  Weihong Wu ,  Ruiyang Qu ,  Shaojun Liu ,  Haitao Zhao

IPC: G06Q10/0633 ,  B01D53/60 ,  B01D53/64 ,  B01D53/75 ,  G06F30/20 ,  G06Q10/0631

Abstract: The invention relates to an intelligent multi-pollutant ultra-low emission system and a global optimization method thereof. The intelligent multi-pollutant ultra-low emission system comprises a device layer, a sensing layer, a control layer and an optimization layer from bottom to top. The global optimization method comprises: obtaining an accurate description multiple pollutants in the generation, migration, transformation and removal process in multiple devices by means of accurate modeling of a multi-device multi-pollutant simultaneous removal process of the ultra-low emission system; accurately evaluating multi-pollutant emission reduction costs under different loads, coal qualities, pollutant concentrations and operating parameters through a global operating cost evaluation method of the ultra-low emission system; realizing minute-level planning and optimization of emission reductions of a global pollutant emission reduction device under different emission targets through a multi-pollutant, multi-target and multi-condition global operating optimization method; and guaranteeing reliable emission reduction and margin control of the pollutants through an advanced control method for reliable up-to-standard ultra-low emission of the pollutants.

公开(公告)号：US20240342641A1

公开(公告)日：2024-10-17

申请号：US18251346

申请日：2022-12-16

Applicant: Zhejiang University

Inventor： Tao Wang ,  Weishan Liu ,  Mengxiang Fang ,  Xiang Gao ,  Zhongyang Luo

IPC: B01D53/04 ,  B01D61/46 ,  B01D71/28 ,  B01D71/36 ,  C01B32/50

CPC classification number: B01D53/04 ,  B01D61/463 ,  B01D71/281 ,  B01D71/36 ,  C01B32/50 ,  B01D2257/504 ,  B01D2258/06 ,  B01D2259/40083 ,  B01D2313/345

Abstract: Disclosed is an energy-saving system and method for direct air capture with precise ion control. The system includes an air conveying device, an air distribution device and a CO2 adsorption device with a moisture swing adsorbent with high CO2 adsorption capacity, where the air conveying device, the air distribution device and the CO2 adsorption device are connected in sequence, and the CO2 adsorption device is provided with a spray desorption device; a valence-state ion sieving device; a pH swing regeneration device; and a CO2 regeneration device. In accordance with the energy-saving system provided by the present disclosure, ultra-low concentration of CO2 in the air can be enriched to the concentration of 95% step by step for industrial application or biological application at room temperature and pressure by consuming the electricity which cannot be connected to a power grid.

公开(公告)号：US10533494B2

公开(公告)日：2020-01-14

申请号：US15489060

申请日：2017-04-17

Applicant: Zhejiang University

Inventor： Gang Xiao ,  Tianfeng Yang ,  Mingjiang Ni ,  Zhongyang Luo ,  Xiang Gao ,  Kefa Cen ,  Mengxiang Fang ,  Jinsong Zhou ,  Zhenglun Shi ,  Leming Cheng ,  Qinhui Wang ,  Shurong Wang ,  Chunjiang Yu ,  Tao Wang ,  Chenghang Zheng

IPC: F02C3/30 ,  F02C3/04 ,  F02C6/10 ,  F03G6/06 ,  F23R3/00 ,  F23L15/00 ,  F03G6/00 ,  F04D19/02 ,  F04D29/58

Abstract: A solar chemically recuperated gas turbine system includes an exhaust-gas reformer, a solar reformer and a gas turbine unit with a combustion chamber. The reaction outlet of the exhaust-gas reformer is connected to the inlet of the solar reformer, the flue gas side inlet of the exhaust-gas reformer is connected to the exhaust-gas outlet of the gas turbine. The solar reformer outlet is connected to the combustion chamber inlet. Combustion gas drives the gas turbine after fuel burns in the combustion chamber, and the exhaust gas enters the exhaust-gas reformer. Fuel and steam are mixed and enter the reaction side of the exhaust-gas reformer through a fuel inlet. A reforming reaction between the fuel and steam under heating of the exhaust gas generates syngas. A further reforming reaction occurs by absorbing concentrated solar energy after the syngas enters the solar reformer, and the reactant is provided to combustion chamber.

公开(公告)号：US20180045113A1

公开(公告)日：2018-02-15

申请号：US15587524

申请日：2017-05-05

Applicant: Zhejiang University

Inventor： Gang Xiao ,  Xin Zhou ,  Huanlei Liu ,  Jinli Chen ,  Tianfeng Yang ,  Mingjiang Ni ,  Zhongyang Luo ,  Leming Cheng ,  Xiang Gao ,  Kefa Cen ,  Mengxiang Fang ,  Jinsong Zhou ,  Zhenglun Shi ,  Qinhui Wang ,  Shurong Wang ,  Chunjiang Yu ,  Tao Wang ,  Chenghang Zheng

IPC: F02C1/05 ,  F03G6/04 ,  F02C7/042 ,  F02C6/14

CPC classification number: F02C1/05 ,  F02C6/14 ,  F02C7/042 ,  F03G6/045 ,  F05D2220/70 ,  Y02E10/465

Abstract: A device of high-temperature solar gas turbine power generation with thermal energy storage includes a combustion chamber, a solar receiver, a thermochemical energy storage tank, a triple valve A and a triple valve B. The thermochemical energy storage tank has a high-temperature side and a low-temperature side. One outlet of the triple valve A is connected to the compressed air inlet of the solar receiver, and the other outlet is connected to the inlet of the triple valve B. One outlet of the triple valve B is connected to the low-temperature side of the thermochemical energy storage tank, and the other outlet is connected to the inlet of the combustion chamber.

公开(公告)号：US09533259B2

公开(公告)日：2017-01-03

申请号：US15028373

申请日：2013-10-09

Applicant: ZHEJIANG UNIVERSITY

Inventor： Xiang Gao ,  Zhongyang Luo ,  Kefa Cen ,  MingJiang Ni ,  Hao Song ,  Weihong Wu ,  Hongmin Yu ,  Zhenglun Shi ,  Jinsong Zhou ,  Mengxiang Fang ,  Chunjiang Yu ,  Shurong Wang ,  Lemin Cheng ,  Qinhui Wang

IPC: C01B31/08 ,  B01D53/96 ,  B01F3/04 ,  B01J38/00 ,  B01J38/02 ,  B01J38/48 ,  B01J38/52 ,  B01D53/86

CPC classification number: B01D53/96 ,  B01D53/8625 ,  B01D2257/40 ,  B01D2257/404 ,  B01F3/04106 ,  B01F3/0412 ,  B01F3/04439 ,  B01F2003/04156 ,  B01F2003/04234 ,  B01F2003/04865 ,  B01F2003/04943 ,  B01J23/30 ,  B01J23/92 ,  B01J35/1014 ,  B01J35/1038 ,  B01J35/1061 ,  B01J38/00 ,  B01J38/02 ,  B01J38/48 ,  B01J38/485 ,  B01J38/52 ,  B01J38/72

Abstract: Disclosed is a method for regenerating a SCR denitration catalyst assisted by microwaves. The method comprises: (1) a poisoned SCR denitration catalyst is immersed in deionized water, and the SCR denitration catalyst is cleaned by a bubbling method; (2) the SCR denitration catalyst is transferred to a container containing a pore-expanding solution for a soaking treatment; (3) the SCR denitration catalyst is transferred to a microwave device and treated for 1-10 minutes; (4) the SCR denitration catalyst is transferred to a container with an activating liquid and impregnated for 1-4 hours; (5) the SCR denitration catalyst is dried with microwaves for 1-20 minutes; and (6) the SCR denitration catalyst is calcined under conditions of 500-600° C. for 4-7 hours. The present invention has readily available raw materials, is simple and energy-saving in device and process, and is suitable for industrial scale regeneration. The catalyst treated by the method of the present invention has the advantages of loose pore channels, obviously optimized pore structures, significantly improved catalyst surface conditions, high activity, and good economic benefits.

Abstract translation: 公开了一种由微波辅助的SCR脱硝催化剂的再生方法。 该方法包括：（1）将中毒的SCR脱硝催化剂浸入去离子水中，通过鼓泡法清洗SCR脱硝催化剂; （2）将SCR脱硝催化剂转移到含有用于浸泡处理的孔扩展溶液的容器中; （3）将SCR脱硝催化剂转移到微波装置中处理1-10分钟; （4）将SCR脱硝催化剂转移到具有活化液体的容器中并浸渍1-4小时; （5）将SCR脱硝催化剂用微波干燥1-20分钟; 和（6）将SCR脱硝催化剂在500-600℃的条件下煅烧4-7小时。 本发明具有易于获得的原料，在设备和工艺上简单节能，适用于工业规模的再生。 通过本发明方法处理的催化剂具有孔隙疏松，孔结构明显优化，催化剂表面条件显着改善，活性高，经济效益好等优点。

公开(公告)号：US20150177065A1

公开(公告)日：2015-06-25

申请号：US14356723

申请日：2013-05-10

Applicant: ZHEJIANG UNIVERSITY

Inventor： Xuecheng Wu ,  Kefa Cen ,  Zhihua Wang ,  Xiang Gao ,  Linhong Chen ,  Kunzan Qiu ,  Yingchun Wu ,  Haoyu Jiang

IPC: G01J3/14 ,  G01J3/46 ,  G01J3/28

CPC classification number: G01J3/14 ,  G01J3/04 ,  G01J3/2803 ,  G01J3/2823 ,  G01J3/46 ,  G01N15/0211 ,  G01N21/4788 ,  G01N21/53 ,  G01N2015/0046 ,  G01N2015/0277

Abstract: The present invention provides a one-dimensional global rainbow measurement device and a measurement method. The measurement device comprises three parts, i.e., a laser emission unit, a signal collection unit and a signal processing unit. The laser emission unit is modulated to be a light sheet by a laser beam emitted by a laser, and configured to irradiate droplets in a spray field to generate rainbow signals. The signal collection unit is configured to separately image, by an optical system unit, the rainbow signals at measurement points of different height onto different row pixels of a CCD signal collector. The signal processing unit is configured to convert the received rainbow signals and process by a computer the rainbow signals in a form of data to obtain the measured values. The present invention can analyze gas-liquid phase flow fields during the injection, realize the online measurement of fuel atomization, spray and other processes, and can measure the refractive index, size, temperature and other parameters of the spray droplets in a real-time and non-contact manner.

Abstract translation: 本发明提供一维全球彩虹测量装置和测量方法。 测量装置包括三部分，即激光发射单元，信号收集单元和信号处理单元。 通过激光发射的激光束将激光发射单元调制成光片，并配置为在喷射场中照射液滴以产生彩虹信号。 信号收集单元被配置为通过光学系统单元将不同高度的测量点处的彩虹信号分开地映射到CCD信号收集器的不同行像素上。 信号处理单元被配置为转换所接收的彩虹信号，并且由计算机以数据的形式处理彩虹信号以获得测量值。 本发明可以在注射期间分析气液相流场，实现燃料雾化，喷雾等工艺的在线测量，并可实时测量喷雾液滴的折射率，尺寸，温度等参数 和非接触的方式。

公开(公告)号：US11912806B2

公开(公告)日：2024-02-27

申请号：US17043663

申请日：2020-01-10

Applicant: ZHEJIANG UNIVERSITY

Inventor： Jinwei Fang ,  Yingwu Luo ,  Xiang Gao ,  Bogeng Li

IPC: C08F293/00 ,  C08F220/06 ,  C08F220/14 ,  C08F212/08

CPC classification number: C08F293/005 ,  C08F212/08 ,  C08F220/06 ,  C08F220/14 ,  C08F2438/03

Abstract: The present invention discloses a multiblock copolymer with narrow molecular weight distribution and a preparation method therefor. According to the present disclosure, a series of multiblock copolymers with narrow molecular weight distribution are prepared by adopting a reversible addition chain transfer free radical polymerization technology in an emulsion polymerization system by controlling the feeding sequence of monomers. The molecular weight of the series of multiblock copolymers meets theoretical expectations, the content of dead polymers is low, and the mechanical properties are greatly improved compared with the traditional triblock copolymers. The present disclosure has the advantages of simple flow equipment, an energy-saving and environment-friendly process, cheap and readily available raw materials, achieves high control of the block number, block types, block molecular weight and other structures in the block polymers, and provides a universal and feasible means for preparing polymer materials with specific structures and functions.

公开(公告)号：US09920156B2

公开(公告)日：2018-03-20

申请号：US14594104

申请日：2015-01-10

Applicant: ZHEJIANG UNIVERSITY

Inventor： Shaohong Xu ,  Xiang Gao ,  Yingwu Luo

IPC: C08F293/00 ,  C08F2/24 ,  C08F2/10

CPC classification number: C08F293/00 ,  C08F2/10 ,  C08F2/24

Abstract: The present invention discloses a block copolymer comprising a block with glass transition temperature higher than 100° C. and a method for preparing the same. In the method, latex of a block copolymer is prepared by taking n-butyl acrylate as a soft block, random copolymer of styrene and γ-methyl-α-methylene-γ-butyrolactone as a hard block, utilizing emulsion polymerization system and reversible addition fragmentation chain transfer radical polymerization technology. The method utilizes an amphiphilic macromolecule reversible addition fragmentation chain transfer agent has dual function of both chain transfer agent and emulsifier, thus can achieve good control of monomer polymerization and avoid the use of traditional emulsifier; the reaction has no polymerization inhibition period, has fast reaction rate and high final conversion; colloidal particles can stably grow; product has a hard block with glass transition temperature up to 155° C., and thus has a good application prospect in the field of high heat resistance thermoplastic elastomer.

公开(公告)号：US09217669B2

公开(公告)日：2015-12-22

申请号：US14356723

申请日：2013-05-10

Applicant: ZHEJIANG UNIVERSITY

Inventor： Xuecheng Wu ,  Kefa Cen ,  Zhihua Wang ,  Xiang Gao ,  Linhong Chen ,  Kunzan Qiu ,  Yingchun Wu ,  Haoyu Jiang

IPC: G01J3/46 ,  G01J3/14 ,  G01N15/02 ,  G01J3/28 ,  G01N15/00

CPC classification number: G01J3/14 ,  G01J3/04 ,  G01J3/2803 ,  G01J3/2823 ,  G01J3/46 ,  G01N15/0211 ,  G01N21/4788 ,  G01N21/53 ,  G01N2015/0046 ,  G01N2015/0277

Abstract: The present invention provides a one-dimensional global rainbow measurement device and a measurement method. The measurement device comprises three parts, i.e., a laser emission unit, a signal collection unit and a signal processing unit. The laser emission unit is modulated to be a light sheet by a laser beam emitted by a laser, and configured to irradiate droplets in a spray field to generate rainbow signals. The signal collection unit is configured to separately image, by an optical system unit, the rainbow signals at measurement points of different height onto different row pixels of a CCD signal collector. The signal processing unit is configured to convert the received rainbow signals and process by a computer the rainbow signals in a form of data to obtain the measured values. The present invention can analyze gas-liquid phase flow fields during the injection, realize the online measurement of fuel atomization, spray and other processes, and can measure the refractive index, size, temperature and other parameters of the spray droplets in a real-time and non-contact manner.

Abstract translation: 本发明提供一维全球彩虹测量装置和测量方法。 测量装置包括三部分，即激光发射单元，信号收集单元和信号处理单元。 通过激光发射的激光束将激光发射单元调制成光片，并配置为在喷射场中照射液滴以产生彩虹信号。 信号收集单元被配置为通过光学系统单元将不同高度的测量点处的彩虹信号分开地映射到CCD信号收集器的不同行像素上。 信号处理单元被配置为转换所接收的彩虹信号，并且由计算机以数据的形式处理彩虹信号以获得测量值。 本发明可以在注射期间分析气液相流场，实现燃料雾化，喷雾等工艺的在线测量，并可实时测量喷雾液滴的折射率，尺寸，温度等参数 和非接触的方式。