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    • 1. 发明授权
    • Tine raking device
    • ine耙装置
    • US07506692B2
    • 2009-03-24
    • US11290738
    • 2005-11-30
    • John H. BarberJames P. Barber
    • John H. BarberJames P. Barber
    • A01D17/00
    • E01H12/00
    • A tine raking device includes a frame and a conveyor assembly supported on the frame. The conveyor assembly has a conveyor belt defining perforations sized to allow passage therethrough of granules of sand and to prevent passage therethrough of larger sized debris to be removed from a ground surface. Flexible tines extending outwardly from the conveyor belt. The tines are arranged in rows across a width of the conveyor belt. The rows each are longitudinally spaced from adjacent rows along the conveyor belt such that a generally unimpeded path is defined along an outer surface of the conveyor belt for debris to flow between adjacent tines along an associated row. The conveyor assembly includes a lower section for permitting the tines to contact and remove debris from a ground surface being cleaned, and an inclined section for lifting debris on the conveyor belt away from the ground surface being cleaned.
    • 耙耙装置包括框架和支撑在框架上的输送机组件。 输送机组件具有传送带,该传送带限定穿孔尺寸以允许砂粒的通过,并且防止较大尺寸的碎屑通过其从地表面移除。 柔性齿从传送带向外延伸。 齿条沿输送带的宽度排成一行。 这些排各自沿着传送带沿相邻的行纵向间隔开,使得沿传送带的外表面限定一个通常不受阻碍的路径,以使碎屑沿着相关的行在相邻齿之间流动。 输送机组件包括用于允许齿从被清洁的地面接触和去除碎屑的下部分,以及倾斜部分,用于将传送带上的碎屑远离被清洁的地表面。
    • 2. 发明授权
    • Method and apparatus for preventing scaling in electrodeionization units
    • 用于防止电去电离单元中的结垢的方法和装置
    • US6149788A
    • 2000-11-21
    • US174248
    • 1998-10-16
    • David Florian TessierRobert GleggJohn H. Barber
    • David Florian TessierRobert GleggJohn H. Barber
    • B01D61/48B01D61/52B01D61/54C02F1/42C02F1/44C02F1/46C02F1/469C02F9/00
    • C02F1/4602B01D61/48B01D61/52C02F1/4695C02F1/42C02F1/441C02F2201/4611C02F2201/46115
    • A method and apparatus is provided for inhibiting scaling in an electrodeionization system and, more particularly, for increasing tolerance to hardness in the feed water to an electrodeionization unit by inhibiting precipitation of scale-forming metallic cations contained in the feed water and thereby increasing efficiencies of the electrodeionization system. Water to be purified is passed through an electrodeionization unit in which the flow in the diluting compartment is countercurrent to the flow in the concentrating compartment. This is to impede the migration of scale-forming metallic cations from the diluting compartment, through the cation exchange membrane, into the concentrating compartment and towards the concentrating compartment side of the anion exchange membrane, thereby preventing scale formation on the anion exchange membrane. The electrodeionization unit may be further modified by dividing the concentrating compartments into first and second compartments by a porous diaphragm or ion-conducting membrane. The porous diaphragm or ion-conducting membrane effectively eliminates convective transport of scale-forming metallic cations from the cation exchange membrane side of the concentrating compartment to the anion exchange membrane side of the concentrating compartment, thereby inhibiting scale formation on the anion exchange membrane.
    • 提供了一种用于抑制电去离子系统中的结垢的方法和装置,更具体地,通过抑制进料水中包含的形成规模的金属阳离子的沉淀,增加对去电单元的给水中的硬度的耐受性,从而提高 电去离子系统。 待净化的水通过电去离子单元,其中稀释室中的流动与浓缩室中的流动逆流。 这是为了阻止鳞片形成金属阳离子从稀释室通过阳离子交换膜迁移到浓缩室中并朝向阴离子交换膜的浓缩室侧迁移,从而防止阴离子交换膜上的结垢形成。 可以通过多孔隔膜或离子传导膜将浓缩室分成第一和第二隔室来进一步修改电去离子单元。 多孔隔膜或离子导电膜有效地消除了形成规模的金属阳离子从浓缩室的阳离子交换膜侧到浓缩室的阴离子交换膜侧的对流传输,从而抑制阴离子交换膜上的结垢。
    • 4. 发明授权
    • Electrochemical desalination system and method
    • 电化学脱盐系统及方法
    • US08663445B2
    • 2014-03-04
    • US12570227
    • 2009-09-30
    • Ran NiuHai YangJohn H. BarberMin HuRihua XiongWei CaiXin GaoYufeng Liu
    • Ran NiuHai YangJohn H. BarberMin HuRihua XiongWei CaiXin GaoYufeng Liu
    • B01D57/00
    • C02F1/4691C02F2103/08C02F2201/46135C02F2201/4614C02F2209/005
    • An electrochemical desalination system includes a first and a second electrochemical device and a controller. The first and second electrochemical devices each comprises a electrochemical desalination module comprising at least one pair of electrodes and a compartment between each pair of electrodes for receiving an electrolyte solution. Each of the first and second electrochemical desalination devices comprises a plurality of successive operation cycles. Each cycle comprises a charging mode of operation for charging each pair of electrodes and for adsorbing ions in the electrolyte solution on the electrodes, and a discharging mode of operation for discharging the pair of electrodes and for desorbing ions from the pair of electrodes. The controller is configured to control the system that the first and second electrochemical desalination devices have interleaved charging and discharging modes of operation. One of the first and second electrochemical desalination devices is in a discharging mode and the at least one pair of electrodes release electrical current, while the other of the first and second electrochemical desalination devices is in a charging mode of operation and receives the electrical current released from said one of the first and second electrochemical desalination device.
    • 电化学脱盐系统包括第一和第二电化学装置和控制器。 第一和第二电化学装置各自包括电化学脱盐模块,其包括至少一对电极和用于接收电解质溶液的每对电极之间的隔室。 第一和第二电化学脱盐装置中的每一个包括多个连续的操作循环。 每个循环包括用于对每对电极进行充电并用于将电解质中的离子吸附在电极上的充电操作模式,以及用于对该电极放电和用于从一对电极解吸离子的放电模式。 控制器被配置为控制系统,第一和第二电化学脱盐装置具有交错的充放电操作模式。 第一和第二电化学脱盐装置之一处于放电模式,并且至少一对电极释放电流,而第一和第二电化学脱盐装置中的另一个处于充电操作模式并且接收释放的电流 从所述第一和第二电化学脱盐装置中的一个。
    • 5. 发明授权
    • Electrical deionization apparatus
    • 电去离子装置
    • US08496797B2
    • 2013-07-30
    • US12967628
    • 2010-12-14
    • John H. Barber
    • John H. Barber
    • B01D61/48
    • C02F1/4695B01J47/028B01J47/08B01J49/08B01J49/30C02F2001/46138C02F2303/16
    • Electrodeionization methods and apparatus wherein ion exchange membranes are not utilized. Instead, ion exchange materials such as beads, fibers, etc., are disposed in alternating layers of anion exchange (AIX) materials and cation exchange (CIX) materials between opposite polarity electrodes. In a regeneration stage, a current is applied across the electrodes with water splitting occurring along at least one of the interfacial areas between neighboring AIX and CIX materials. The H+ and OH− ions formed via water splitting migrate in response to the electrical current and displace the salt ions in the respective AIX and CIX. The stack is flushed during the regeneration stage to remove the concentrated salt solution. During a deionization phase, the electrical current is terminated with influent fed to the stack for deionization. The salt ions in the influent are depleted via ion exchange as the influent contacts the AIX and CIX.
    • 不使用离子交换膜的电离方法和装置。 相反,诸如珠粒,纤维等的离子交换材料设置在相反极性电极之间的阴离子交换(AIX)材料和阳离子交换(CIX)材料的交替层中。 在再生阶段,在电极之间施加电流,沿着相邻的AIX和CIX材料之间的至少一个界面区域发生水分解。 通过水分解形成的H +和OH-离子响应于电流而迁移并置换相应的AIX和CIX中的盐离子。 在再生阶段将堆叠物冲洗以除去浓盐溶液。 在去离子阶段期间,电流被终止,流入物进料至堆叠以进行去离子。 当流入物接触到AIX和CIX时,流入物中的盐离子通过离子交换被耗尽。
    • 7. 发明申请
    • ELECTROCHEMICAL DESALINATION SYSTEM AND METHOD
    • 电化学脱盐系统及方法
    • US20110073487A1
    • 2011-03-31
    • US12570227
    • 2009-09-30
    • Ran NiuHai YangJohn H. BarberMin HURihua XiongWei CaiXin GaoYunfeng Liu
    • Ran NiuHai YangJohn H. BarberMin HURihua XiongWei CaiXin GaoYunfeng Liu
    • B01D57/00
    • C02F1/4691C02F2103/08C02F2201/46135C02F2201/4614C02F2209/005
    • An electrochemical desalination system includes a first and a second electrochemical device and a controller. The first and second electrochemical devices each comprises a electrochemical desalination module comprising at least one pair of electrodes and a compartment between each pair of electrodes for receiving an electrolyte solution. Each of the first and second electrochemical desalination devices comprises a plurality of successive operation cycles. Each cycle comprises a charging mode of operation for charging each pair of electrodes and for adsorbing ions in the electrolyte solution on the electrodes, and a discharging mode of operation for discharging the pair of electrodes and for desorbing ions from the pair of electrodes. The controller is configured to control the system that the first and second electrochemical desalination devices have interleaved charging and discharging modes of operation. One of the first and second electrochemical desalination devices is in a discharging mode and the at least one pair of electrodes release electrical current, while the other of the first and second electrochemical desalination devices is in a charging mode of operation and receives the electrical current released from said one of the first and second electrochemical desalination device.
    • 电化学脱盐系统包括第一和第二电化学装置和控制器。 第一和第二电化学装置各自包括电化学脱盐模块,其包括至少一对电极和用于接收电解质溶液的每对电极之间的隔室。 第一和第二电化学脱盐装置中的每一个包括多个连续的操作循环。 每个循环包括用于对每对电极进行充电并用于将电解质中的离子吸附在电极上的充电操作模式,以及用于对该电极放电和用于从一对电极解吸离子的放电模式。 控制器被配置为控制系统,第一和第二电化学脱盐装置具有交错的充放电操作模式。 第一和第二电化学脱盐装置之一处于放电模式,并且至少一对电极释放电流,而第一和第二电化学脱盐装置中的另一个处于充电操作模式并且接收释放的电流 从所述第一和第二电化学脱盐装置中的一个。
    • 9. 发明授权
    • Arrangement of ion exchange material within an electrodeionization apparatus
    • 离子交换材料在电去电离装置内的布置
    • US08241478B2
    • 2012-08-14
    • US12923229
    • 2010-09-10
    • John H. BarberDavid Florian Tessier
    • John H. BarberDavid Florian Tessier
    • B01D61/48
    • B01D61/48B01D2313/28B01D2321/22C02F1/4695C02F2201/46115
    • An electrodeionization apparatus is provided comprising an ion-concentrating compartment partially bounded by an anion permeable membrane and also partially bounded by a cation permeable membrane, and a first ion exchange material domain disposed within the ion-concentrating compartment, wherein the first ion exchange material domain is contiguous with at least a portion of an ion-concentrating compartment side surface of one of the anion permeable membrane and the cation permeable membrane, and is spaced apart from the other one of the one of the anion permeable membrane and the cation permeable membrane. In the case where the one of the anion permeable membrane and the cation permeable membrane, having the at least a portion of an ion-concentrating compartment side surface with which the first ion exchange material domain is contiguous, is an anion permeable membrane, the first ion exchange material domain is an anion exchange material predominant domain. In the case where the one of the anion permeable membrane and the cation permeable membrane, having the at least a portion of an ion-concentrating compartment side surface with which the first ion exchange material domain is contiguous, is a cation permeable membrane, the first ion exchange material domain is a cation exchange material predominant domain.
    • 提供了一种电去离子装置,其包括部分地由阴离子可渗透膜界定并且部分地由阳离子可渗透膜界定的离子浓缩室和设置在离子浓缩室内的第一离子交换材料区域,其中第一离子交换材料区域 与阴离子可渗透膜和阳离子可渗透膜之一的离子浓缩室侧表面的至少一部分相邻,并且与阴离子可渗透膜和阳离子可渗透膜中的另一个间隔开。 在具有离子浓缩室侧表面的至少一部分与第一离子交换材料区域相邻的阴离子可渗透膜和阳离子透过膜中的一个是阴离子可渗透膜的情况下,第一 离子交换材料域是阴离子交换材料主导域。 在具有离子浓缩室侧表面的至少一部分与第一离子交换材料区域相邻的阴离子可渗透膜和阳离子可渗透膜之一是阳离子可渗透膜的情况下,第一 离子交换材料域是阳离子交换材料的主导域。
    • 10. 发明申请
    • ELECTRICAL DEIONIZATION APPARATUS
    • 电动除尘装置
    • US20120145547A1
    • 2012-06-14
    • US12967628
    • 2010-12-14
    • John H. Barber
    • John H. Barber
    • B01D61/48
    • C02F1/4695B01J47/028B01J47/08B01J49/08B01J49/30C02F2001/46138C02F2303/16
    • Electrodeionization methods and apparatus wherein ion exchange membranes are not utilized. Instead, ion exchange materials such as beads, fibers, etc., are disposed in alternating layers of anion exchange (AIX) materials and cation exchange (CIX) materials between opposite polarity electrodes. In a regeneration stage, a current is applied across the electrodes with water splitting occurring along at least one of the interfacial areas between neighboring AIX and CIX materials. The H+ and OH− ions formed via water splitting migrate in response to the electrical current and displace the salt ions in the respective AIX and CIX. The stack is flushed during the regeneration stage to remove the concentrated salt solution. During a deionization phase, the electrical current is terminated with influent fed to the stack for deionization. The salt ions in the influent are depleted via ion exchange as the influent contacts the AIX and CIX.
    • 不使用离子交换膜的电离方法和装置。 相反,诸如珠粒,纤维等的离子交换材料设置在相反极性电极之间的阴离子交换(AIX)材料和阳离子交换(CIX)材料的交替层中。 在再生阶段,在电极之间施加电流,沿着相邻的AIX和CIX材料之间的至少一个界面区域发生水分解。 通过水分解形成的H +和OH-离子响应于电流而迁移并置换相应的AIX和CIX中的盐离子。 在再生阶段将堆叠物冲洗以除去浓盐溶液。 在去离子阶段期间,电流被终止,流入物进料至堆叠以进行去离子。 当流入物接触到AIX和CIX时,流入物中的盐离子通过离子交换被耗尽。