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    • 1. 发明授权
    • Cogeneration unit and wind power joint heating system and scheduling method therefor
    • 热电联产单元及风力发电联合采暖系统及其调度方法
    • US09285789B2
    • 2016-03-15
    • US13976934
    • 2012-10-22
    • Hongyu LongKunyao XuJianjun HeXingzhe HouRuilin XuKai Wu
    • Hongyu LongKunyao XuJianjun HeXingzhe HouRuilin XuKai Wu
    • G05D11/00G05B15/02F03D9/00F02C6/00H02J3/46
    • G05B15/02F02C6/00F03D9/00F03D9/25F25B2600/07H02J3/46Y02E10/725Y02E10/763Y02E20/14Y02P80/15
    • A cogeneration unit and wind power joint heating system and a scheduling method therefor. The joint heating system comprises a coal-fired steam-extraction condensing-steam cogeneration unit (A), a wind turbine generator unit (B), an air conditioner heat pump (108) parallel-connected to the coal-fired steam-extraction condensing-steam cogeneration unit (A) and to the wind turbine generator unit (B) via a power cable network (113), and a hot water heating radiator (110) connected to the coal-fired steam-extraction condensing-steam cogeneration unit (A) via a heating pipe network (114). The joint heating system also comprises an integrated scheduling control device (115), a first remote centralized controller (1121), a second remote centralized controller (1122), and a third remote centralized controller (1123). Heating is provided to a user by the hot water heating radiator (110) and the air conditioner heat pump (108); while electricity is provided jointly by the coal-fired steam-extraction condensing-steam cogeneration unit (A) and the wind turbine generator unit (B). The scheduling method comprises: after detecting over a period of time the state of power supply and the state of power consumption of the user via the integrated scheduling control device (115), making a prediction for an upcoming period of time, and then scheduling on this basis. Under the premise of ensuring electricity supply and heat supply, the scheduling method reduces hot water flow outputted for heating, and compensates with electricity heating.
    • 一种热电联产机组和风力发电联合供热系统及其调度方法。 联合加热系统包括燃煤蒸汽冷凝 - 蒸汽热电联产机组(A),风力发电机组(B),空调热泵(108)并联连接到燃煤蒸汽提取冷凝 (A),经由电力电缆网(113)与风力发电机组(B)连接的热水加热散热器(110),与燃煤蒸汽冷凝 - 蒸汽热电联供单元 A)经由加热管网(114)。 联合加热系统还包括集成调度控制装置(115),第一远程集中控制器(1121),第二远程集中控制器(1122)和第三远程集中控制器(1123)。 通过热水加热散热器(110)和空调热泵(108)向使用者提供加热; 同时由燃煤蒸汽冷凝 - 蒸汽热电联产机组(A)和风力发电机组(B)联合提供电力。 调度方法包括:经过综合调度控制装置(115)检测一段时间的电源状态和用户的电力消耗状态,对下一个时间段进行预测,然后进行调度 这个基础。 在确保供电供热的前提下,调度方式减少供热输出的热水流量,并用电加热补偿。
    • 2. 发明申请
    • COGENERATION UNIT AND WIND POWER JOINT HEATING SYSTEM AND SCHEDULING METHOD THEREFOR
    • 加热单元和风力发电接点加热系统及其调度方法
    • US20140121848A1
    • 2014-05-01
    • US13976934
    • 2012-10-22
    • Hongyu LongKunyao XuJianjun HeXingzhe HouRuilin XuKai Wu
    • Hongyu LongKunyao XuJianjun HeXingzhe HouRuilin XuKai Wu
    • G05B15/02
    • G05B15/02F02C6/00F03D9/00F03D9/25F25B2600/07H02J3/46Y02E10/725Y02E10/763Y02E20/14Y02P80/15
    • A cogeneration unit and wind power joint heating system and a scheduling method therefor. The joint heating system comprises a coal-fired steam-extraction condensing-steam cogeneration unit (A), a wind turbine generator unit (B), an air conditioner heat pump (108) parallel-connected to the coal-fired steam-extraction condensing-steam cogeneration unit (A) and to the wind turbine generator unit (B) via a power cable network (113), and a hot water heating radiator (110) connected to the coal-fired steam-extraction condensing-steam cogeneration unit (A) via a heating pipe network (114). The joint heating system also comprises an integrated scheduling control device (115), a first remote centralized controller (1121), a second remote centralized controller (1122), and a third remote centralized controller (1123). Heating is provided to a user by the hot water heating radiator (110) and the air conditioner heat pump (108); while electricity is provided jointly by the coal-fired steam-extraction condensing-steam cogeneration unit (A) and the wind turbine generator unit (B). The scheduling method comprises: after detecting over a period of time the state of power supply and the state of power consumption of the user via the integrated scheduling control device (115), making a prediction for an upcoming period of time, and then scheduling on this basis. Under the premise of ensuring electricity supply and heat supply, the scheduling method reduces hot water flow outputted for heating, and compensates with electricity heating.
    • 一种热电联产机组和风力发电联合供热系统及其调度方法。 联合加热系统包括燃煤蒸汽冷凝 - 蒸汽热电联产机组(A),风力发电机组(B),空调热泵(108)并联连接到燃煤蒸汽提取冷凝 (A),经由电力电缆网(113)与风力发电机组(B)连接的热水加热散热器(110),与燃煤蒸汽冷凝 - 蒸汽热电联供单元 A)经由加热管网(114)。 联合加热系统还包括集成调度控制装置(115),第一远程集中控制器(1121),第二远程集中控制器(1122)和第三远程集中控制器(1123)。 通过热水加热散热器(110)和空调热泵(108)向使用者提供加热; 同时由燃煤蒸汽冷凝 - 蒸汽热电联产机组(A)和风力发电机组(B)联合提供电力。 调度方法包括:经过综合调度控制装置(115)检测一段时间的电源状态和用户的电力消耗状态,对下一个时间段进行预测,然后进行调度 这个基础。 在确保供电供热的前提下,调度方式减少供热输出的热水流量,并用电加热补偿。
    • 3. 发明申请
    • Detection of transmembrane potentials using N,N,N'-Trialkyl thiobarbituric acid-derived polymethine oxonols
    • 使用N,N,N'-三烷基硫代巴比妥酸衍生的聚甲基氧杂环丁烷的跨膜电位检测
    • US20060088816A1
    • 2006-04-27
    • US11212203
    • 2005-08-25
    • Zhenjun DiwuJianjun HeYi Tang
    • Zhenjun DiwuJianjun HeYi Tang
    • C12Q1/00C07D403/02
    • C07D239/66G01N33/52
    • The present invention relates generally to the detection and measurement of transmembrane potentials using an N,N,N′-trialkyl thiobarbituric acid-derived polymethine oxonol (shown below). In particular, the present invention is directed to compositions and optical methods for determining transmembrane potentials across the plasma membrane of biological cells using a slightly hydrophobic N,N,N′-trialkyl thiobarbituric acid-derived polymethine oxonols. The method comprises a slightly hydrophobic N,N,N′-trialkyl thiobarbituric acid-derived polymethine oxonol anion capable of redistributing from a first face of the membrane to a second face of the membrane in response to changes in the potential of the membrane. In one aspect the method is used to identify compounds which modulate membrane potentials in biological membranes. wherein R1, R2, and R3 are independently selected from the group consisting of hydrogen, alkyl, haloalkyl and heteroalkyl; n is an integer from 1 to 3; Z is Na, K, ammonium or other biologically acceptable salt.
    • 本发明一般涉及使用N,N,N'-三烷基硫代巴比妥酸衍生的聚甲基氧杂多酚(如下所示)检测和测量跨膜电位。 特别地,本发明涉及使用稍微疏水的N,N,N'-三烷基硫代巴比妥酸衍生的聚甲基氧杂多糖测定生物细胞质膜跨膜电位的组合物和光学方法。 该方法包括一种稍微疏水的N,N,N'-三烷基硫代巴比妥酸衍生的聚甲基氧杂氮杂阴离子,其能够响应膜的电位变化而从膜的第一面再分配到膜的第二面。 在一个方面,该方法用于鉴定调节生物膜中膜电位的化合物。 其中R 1,R 2和R 3独立地选自氢,烷基,卤代烷基和杂烷基; n为1〜3的整数, Z是Na,K,铵或其他生物可接受的盐。
    • 4. 发明授权
    • Detection of transmembrane potentials using N,N,N′-trialkyl thiobarbituric acid-derived polymethine oxonols
    • 使用N,N,N'-三烷基硫代巴比妥酸衍生的聚甲硫氨酸氧杂多糖检测跨膜电位
    • US08329390B2
    • 2012-12-11
    • US11212203
    • 2005-08-25
    • Zhenjun DiwuJianjun HeYi Tang
    • Zhenjun DiwuJianjun HeYi Tang
    • C12Q1/00C07D403/00C07D239/10C07D239/66
    • C07D239/66G01N33/52
    • The present invention relates generally to the detection and measurement of transmembrane potentials using an N,N,N′-trialkyl thiobarbituric acid-derived polymethine oxonol (shown below). In particular, the present invention is directed to compositions and optical methods for determining transmembrane potentials across the plasma membrane of biological cells using a slightly hydrophobic N,N,N′-trialkyl thiobarbituric acid-derived polymethine oxonols. The method comprises a slightly hydrophobic N,N,N′-trialkyl thiobarbituric acid-derived polymethine oxonol anion capable of redistributing from a first face of the membrane to a second face of the membrane in response to changes in the potential of the membrane. In one aspect the method is used to identify compounds which modulate membrane potentials in biological membranes. wherein R1, R2, and R3 are independently selected from the group consisting of hydrogen, alkyl, haloalkyl and heteroalkyl; n is an integer from 1 to 3; Z is Na, K, ammonium or other biologically acceptable salt.
    • 本发明一般涉及使用N,N,N'-三烷基硫代巴比妥酸衍生的聚甲基氧杂多酚(如下所示)检测和测量跨膜电位。 特别地,本发明涉及使用稍微疏水的N,N,N'-三烷基硫代巴比妥酸衍生的聚甲基氧杂多糖测定生物细胞质膜跨膜电位的组合物和光学方法。 该方法包括一种稍微疏水的N,N,N'-三烷基硫代巴比妥酸衍生的聚甲基氧杂氮杂阴离子,其能够响应膜的电位变化而从膜的第一面再分配到膜的第二面。 在一个方面,该方法用于鉴定调节生物膜中膜电位的化合物。 其中R1,R2和R3独立地选自氢,烷基,卤代烷基和杂烷基; n为1〜3的整数, Z是Na,K,铵或其他生物可接受的盐。
    • 6. 发明申请
    • Container Door Structure
    • 集装箱门结构
    • US20100088966A1
    • 2010-04-15
    • US12529281
    • 2008-03-03
    • Jianjun HeYoungpeng Zhou
    • Jianjun HeYoungpeng Zhou
    • E06B7/16E06B3/70
    • B65D90/008B65D88/121E05B83/10
    • A door end structure of a container comprises an upper end beam, a lower end beam, a container door and a locking lever. The container door comprises an upper door beam, a lower door beam and a door panel which is a vertical corrugated plate. The locking lever is received in a trough of the vertical type door panel. The upper door beam comprises a web plate and an upper wing plate, and the lower door beam comprises a web plate and a lower wing plate. Both the inner side surface of the web plate of the upper door beam and the inner side surface of the web plate of the lower door beam are flush with the inner side surface of the door panel. A concave is provided at a lower corner outside the upper end beam, and the upper wing plate of the upper door beam is located in the concave and its bottom surface is at most flush with that of the upper end beam. A concave is provided at an upper corner outside the lower end beam, and the lower wing plate of the lower door beam is located in the concave and its top surface is at most flush with that of the lower end beam. A door seal tape is provided on the upper wing plate of the upper door beam and the lower wing plate of the lower door beam. Therefore, the space in the interior of the container can be efficiently increased without changing the external dimension of the container.
    • 容器的门端结构包括上端梁,下端梁,容器门和锁定杆​​。 容器门包括上门梁,下门梁和作为垂直波纹板的门板。 锁定杆被容纳在垂直型门板的槽中。 上门梁包括腹板和上翼板,下门梁包括腹板和下翼板。 上门梁的腹板的内侧表面和下门梁的腹板的内侧表面均与门板的内侧表面齐平。 在上端梁外侧的下角处设有凹部,上门梁的上翼板位于凹部中,其底面与上端梁的顶面平齐。 在下端梁外侧的上角设置有凹部,下门梁的下翼板位于凹部中,其顶面与下端梁的顶面平齐。 在上门梁的上翼板和下门梁的下翼板上设有门密封带。 因此,可以有效地增加容器内部的空间,而不改变容器的外部尺寸。
    • 9. 发明申请
    • Detection of transmembrane potentials using asymmetric thiobarbituric acid-derived polymethine oxonols
    • 使用不对称硫代巴比妥酸衍生的聚甲基氧杂环丁烷检测跨膜电位
    • US20050226816A1
    • 2005-10-13
    • US10971311
    • 2004-10-21
    • Zhenjun DiwuYong YaoJianjun HeGuobing Xiang
    • Zhenjun DiwuYong YaoJianjun HeGuobing Xiang
    • A61B5/00A61B5/05A61B8/00A61B10/00G01N33/50
    • A61B5/0059G01N33/5005
    • The present invention relates generally to the detection and measurement of transmembrane potentials using an asymmetric thiobarbituric acid-derived polymethine oxonol (shown below). In particular, the present invention is directed to compositions and optical methods for determining transmembrane potentials across the plasma membrane of biological cells using a moderately hydrophobic asymmetric thiobarbituric acid-derived polymethine oxonols. The method comprises a moderately hydrophobic asymmetric thiobarbituric acid-derived polymethine oxonol anion capable of redistributing from a first face of the membrane to a second face of the membrane in response to changes in the potential of the membrane. In one aspect the method is used to identify compounds which modulate membrane potentials in biological membranes. wherein R1, R2, and R3 are (a) independently selected from the group consisting of hydrogen, alkyl, haloalkyl and heteroalkyl, and (b) R1, R2 and R3 are not simultaneously methyl; n is an integer from 1 to 3; Z is Na, K, ammonium or other biologically acceptable salt.
    • 本发明一般涉及使用不对称硫代巴比妥酸衍生的聚甲基氧杂多酚(如下所示)检测和测量跨膜电位。 特别地,本发明涉及使用中等疏水性的不对称硫代巴比妥酸衍生的多聚甲醛氧化物确定生物细胞的质膜跨膜电位的组合物和光学方法。 该方法包括中等疏水性的不对称硫代巴比妥酸衍生的聚甲炔氧杂壬基阴离子,其能够响应于膜的电位变化而从膜的第一面重新分布到膜的第二面。 在一个方面,该方法用于鉴定调节生物膜中膜电位的化合物。 其中R 1,R 2和R 3是(a)独立地选自氢,烷基,卤代烷基和杂烷基,和(b)R 1,R 2和R 3不同时为甲基; n为1〜3的整数, Z是Na,K,铵或其他生物可接受的盐。