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    • 1. 发明专利
    • METHOD AND DEVICE FOR CARRYING ROBOT FOR CLEANING BASE OF WATER TANK INTO AND OUT OF WATER STORAGE TANK
    • JPH05195562A
    • 1993-08-03
    • JP2575392
    • 1992-01-16
    • EBARA CORPYOKOSUKA TOWN
    • SAITO YUTAKASATO YOSHIOTAKITA SHIGEO
    • B08B9/08E03B11/14
    • PURPOSE:To improve the efficiency of cleaning by a method wherein a temporary floor is installed onto the top face of an obstruction just under a manhole, a lifting box is mounted through a gangplank and a cleaning robot is lowered onto the tempo rary floor from the manhole, moved laterally and brought down up to the base of a water storage tank by the lifting box. CONSTITUTION:When an obstruction such as a protective frame is positioned just under a manhole 2 and a robot 11 for cleaning a base cannot be lowered up to the base, the robot 11 for cleaning the base of a water tank is brought down and placed onto a temporary floor 10, and the robot 11 is self-advanced and introduced into a lifting box 9. A wing bolt 17 is removed and a gangplank 12 and the lifting box 9 positioned onto the temporary floor 10 are detached, a winch 5 is rotated in the direction of rewinding of a rope 6, and the rope 6 is delivered and the lifting box 9 is lowered up to the base of a water storage tank 1. The robot 11 is self-advanced after the lifting box 9 completely reaches the base, and discharged onto the base of the water storage tank from the lifting box 9. The which 5 is turned in the direction of winding of the rope 6, and the emptied lifting box 9 is lifted up upward and the base of the water storage tank 1 is cleaned by the robot 11.
    • 2. 发明专利
    • Seawater desalination system and energy recovery apparatus
    • 海水淡化系统和能源回收装置
    • JP2014136186A
    • 2014-07-28
    • JP2013005576
    • 2013-01-16
    • Ebara Corp株式会社荏原製作所
    • TAKAHASHI YOSHIMIZUGOTO AKIRASHINODA MASAOTAKITA SHIGEO
    • B01D61/06B01D61/02C02F1/44
    • Y02A20/131
    • PROBLEM TO BE SOLVED: To provide an energy recovery apparatus capable of constituting a chamber using an inexpensive ready-made article having a large flow amount and an inside diameter of 8 inches (200 mm) or less while making use of the characteristics of a piston-free type energy recovery chamber and capable of increasing a treating flow amount.SOLUTION: An energy recovery apparatus comprises: a plurality of cylindrical chambers 20-1, 20-2 and 20-3 having spaces to store concentrated seawater and seawater inside and arranging longitudinal directions to be vertical; concentrated seawater ports P1 being arranged at the lower part of each chamber and supplying and discharging the concentrated seawater; seawater ports P2 being arranged at the upper part of each chamber and supplying and discharging the seawater; and concentrated seawater supplying and discharging valves 6 connected to the concentrated seawater ports supplying and discharging the concentrated seawater. In the concentrated seawater supplying and discharging valves 6, supplying and discharging ports CP are branched and connected to the concentrated seawater ports P1 of a plurality of the chambers 20-1, 20-2 and 20-3.
    • 要解决的问题:提供能够使用具有大的流量和内径为8英寸(200mm)或更小的便宜的现成制品构成室的能量回收装置,同时利用活塞的特性 能量回收装置包括:多个圆柱形室20-1,20-2和20-3,其具有在其内部存储集中海水和海水的空间,并且排列 纵向方向垂直; 浓缩海水口P1布置在每个室的下部,并供给和排出浓缩海水; 海水口P2布置在每个室的上部并供给和排出海水; 和集中的海水供应和排出阀6连接到集中海水口供应和排出浓缩海水。 在集中的海水供给排出阀6中,供给排出口CP分支并与多个室20-1,20-2,20-3-3的浓缩海水口P1连接。
    • 3. 发明专利
    • Intra-pipe cooler
    • 内管冷却器
    • JP2013142322A
    • 2013-07-22
    • JP2012002610
    • 2012-01-10
    • Ebara Corp株式会社荏原製作所
    • MAEKAWA YOSHIHIROETO FUMINOBUTAKITA SHIGEOMATSUDA KEIJI
    • F01P3/20F28D1/06
    • PROBLEM TO BE SOLVED: To provide an intra-pipe cooler as a reformed body of an assembly of heat conduction tubes and liquid chamber of a conventional intra-pipe cooler, in which the pump lifted liquid flows into the region where the heat conduction tubes in a cooler casing are arranged, thereby efficiently cooling a high-temperature engine cooling liquid from an engine.SOLUTION: An assembly 20 of heat exchanger tubes and liquid chamber formed by connecting an inlet side liquid chamber 21 with an outlet side liquid chamber 22 through a plurality of heat conduction tubes 23 is installed in the casing in such an arrangement that the pump lifted liquid 4 flows in the region surrounded by the heat exchanger tubes from the inlet side liquid chamber 21 to the outlet side liquid chamber 22, and a high-temperature cooling liquid from the engine is introduced to the inlet side liquid chamber, and heat exchange takes place between the high-temperature cooling liquid and the pump lifted liquid 4 while the high-temperature cooling liquid flows to the outlet side liquid chamber through the heat conduction tubes 23. In this intra-pipe cooler, the inlet side liquid chamber 21 has a side plate where the heat conduction tubes 23 are connected, and the inner end (arcuate face 21a) of that surface of the side plate which faces the outlet side liquid chamber 22 across the flow of the pump lifted liquid 4 is shaped as such a curved surface that the pump lifted liquid 4 easily flows into the region where the heat conduction tubes 23 are arranged.
    • 要解决的问题:提供一种管内冷却器作为传统管内冷却器的导热管和液室的组件的重整体,其中泵提升的液体流入其中导热管的区域 布置冷却器壳体,从而有效地冷却来自发动机的高温发动机冷却液。解决方案:通过将入口侧液体室21与出口侧液体室22连接而形成的热交换器管和液体室的组件20通过 多个导热管23以这样的布置的方式安装在壳体中,使得泵提升液体4在由热交换器管包围的区域中从入口侧液体室21流出到出口侧液体室22, 来自发动机的高温冷却液被引入到入口侧液室,并且在高温冷却液和泵提升液体4w之间进行热交换 高温冷却液通过导热管23流到出口侧液体室。在该管内冷却器中,入口侧液体室21具有连接导热管23的侧板,内侧 通过泵提升液体4的流动,侧板的面向出口侧液体室22的表面的端部(弓形面21a)成形为这样一个弯曲表面,使泵升起的液体4容易地流入到 布置导热管23。
    • 4. 发明专利
    • Membrane separation apparatus and method of operating the same
    • 膜分离装置及其操作方法
    • JP2010063976A
    • 2010-03-25
    • JP2008231159
    • 2008-09-09
    • Ebara Corp株式会社荏原製作所
    • ISHIWATARI TAKAYUKITAKITA SHIGEO
    • C02F1/44B01D61/06B01D61/08B01D61/12
    • Y02A20/131
    • PROBLEM TO BE SOLVED: To provide a membrane separation apparatus and a method of operating the same which can recover energy of high-pressure concentrated water discharged from a reverse osmosis membrane cartridge with high efficiency, can optimally control the whole power consumption of the membrane separation apparatus, and can stably supply the required flow rate of diluted water with optimum control while securing appropriate water quality.
      SOLUTION: The membrane separation apparatus is provided with a supply seawater bypass line 15 for joining raw water pressurized by a positive displacement energy recovering device 5 with high-pressure raw water flowing through a high-pressure line 10 using the energy recovering device 5, a booster pump 6, a temperature sensor 43, and a controller 7 for controlling the flow rate of supply raw water. The controller 7 controls the flow rate of the raw water supplied to the reverse osmosis membrane cartridge 4 so as to obtain the preset diluted water flow rate Q
      1 , by using raw water temperature detected by the temperature sensor 43, the membrane characteristics of a reverse osmosis membrane 4a of the reverse osmosis membrane cartridge 4 on temperature, a relationship between the concentration of solutes in the raw water and reverse osmosis, and a relationship between the performance curves of a high-pressure pump 3 and the booster pump 6.
      COPYRIGHT: (C)2010,JPO&INPIT
    • 要解决的问题:为了提供能够以高效率从反渗透膜筒排出的高压浓缩水的能量回收的膜分离装置及其操作方法,可以最佳地控制整个功率消耗 膜分离装置,并且能够在确保适当的水质的同时以最佳的控制稳定地供给所需的稀释水流量。 解决方案:膜分离装置设置有供给海水旁通管线15,用于将由正位移能量回收装置5加压的原水与流过高压管线10的高压原水接合,使用能量回收装置 5,增压泵6,温度传感器43和用于控制供给原水的流量的控制器7。 控制器7通过使用由温度传感器43检测到的原水温度来控制供给到反渗透膜滤芯4的原水的流量,从而获得预设的稀释水流量Q 1 反渗透膜滤芯4的反渗透膜4a的膜特性,原料水中的溶质浓度与反渗透之间的关系以及高压泵3的性能曲线和 增压泵6.版权所有(C)2010,JPO&INPIT
    • 5. 发明专利
    • Power recovery system
    • 电力恢复系统
    • JP2009103109A
    • 2009-05-14
    • JP2007277991
    • 2007-10-25
    • Ebara Corp株式会社荏原製作所
    • TAKITA SHIGEOSHINODA MASAOYAMANAKA TAKASHIGOTO AKIRAJINNO HIDEKI
    • F01D15/08
    • B01D61/06C02F1/441C02F2103/08C02F2209/42Y02A20/131Y02W10/30
    • PROBLEM TO BE SOLVED: To provide a power recovery system which reduces total energy consumption in an industrial processing process or a fluid-refining process including delivery of fluid under a high pressure. SOLUTION: The power recovery system is provided with a high-pressure pump 5, a reverse osmosis membrane cartridge 8, a positive-displacement piston pump 23, and a power-recovery pump turbine 18. The high-pressure pump 5 pressurizes supplied raw water, and the reverse osmosis membrane cartridge 8 produces processed water by performing membrane processing of high pressure water discharged from the high-pressure pump 5 by a reverse osmosis membrane 10. The positive-displacement piston pump 23 pressurizes the supplied raw water by making use of the pressure of the concentrated water which has been discharged from the reverse osmosis membrane cartridge 8 without being processed by the reverse osmosis membrane 10. The power-recovery pump turbine 18 increases the pressure of the pressurized water which has been pressurized by the positive-displacement piston pump 23, and makes the pressurized water merge with the high-pressure water discharged from the high-pressure pump 5. The pressurized water generated in the system is made a power source of the power-recovery pump turbine 18. COPYRIGHT: (C)2009,JPO&INPIT
    • 要解决的问题:提供一种功率恢复系统,其降低工业加工过程或流体精炼过程中的总能量消耗,包括在高压下输送流体。 解决方案:电力回收系统设有高压泵5,反渗透膜滤芯8,正排量活塞泵23和动力回收泵涡轮机18.高压泵5加压 供给原水,反渗透膜滤芯8通过利用反渗透膜10进行从高压泵5排出的高压水的膜处理来生成加工水。正排量活塞泵23对供给的原水进行加压, 利用已经从反渗透膜滤芯8排出的浓缩水的压力,而不用反渗透膜10进行处理。动力回收泵涡轮机18增加已经被反渗透膜8加压的加压水的压力 正排量活塞泵23,并使加压水与从高压泵5排出的高压水合并 在系统中产生的水被制成动力回收泵涡轮机18的电源。版权所有(C)2009,JPO&INPIT
    • 7. 发明专利
    • Flow control method and flow control device using gate
    • 流控制方法和流控制装置使用门
    • JP2012225049A
    • 2012-11-15
    • JP2011093454
    • 2011-04-19
    • Ebara CorpEbara Densan Ltd株式会社荏原製作所株式会社荏原電産
    • TAKITA SHIGEONUMANO KENICHIROSHINODA TEPPEI
    • E02B7/20
    • PROBLEM TO BE SOLVED: To provide a flow control method and a flow control device using a gate which can achieve a stable flow control quickly even in any form of outflow by identifying a target opening with respect to a target flow rate at the time of free outflow and submerged outflow in flow control by the outflow at the gate bottom edge.SOLUTION: In a flow control method using a gate in which a flow rate in a river channel and a water passage is controlled by the outflow at the gate bottom edge, a secondary side water depth hof a gate 1 with respect to a target flow rate is predicted and set according to flow-down characteristics of the river channel and the water passage, and the gate opening is controlled by using the gate operation opening calculated by using the measured value of a primary side water depth hof the gate 1, the predicted set value of the secondary side water depth hof the gate 1, and the target flow rate, as a target value.
    • 要解决的问题:提供一种使用闸门的流量控制方法和流量控制装置,其即使以任何形式的流出也能够快速地获得稳定的流量控制,通过相对于目标流速识别目标开度 通过浇口底部边缘的流出,流量控制中的自由流出和淹没流出的时间。 解决方案:在使用闸门的流量控制方法中,通过闸门底部边缘处的流出来控制河道和水道中的流量,二次侧水深h 2 ,并且通过使用由 使用门1的初级侧水深h 1 的测量值,次级侧水深h 2 < / SB>,目标流量作为目标值。 版权所有(C)2013,JPO&INPIT
    • 8. 发明专利
    • REMOTE CONTROL DEVICE FOR DRAINAGE INSTALLATION
    • JP2000144878A
    • 2000-05-26
    • JP31780798
    • 1998-11-09
    • EBARA CORP
    • NUMANO KENICHIROOGUCHI TAKAFUMITAKITA SHIGEOYOKOYA YOSHIKAZU
    • E02B7/20E03F7/00
    • PROBLEM TO BE SOLVED: To provide a remote control device for a drainage installation, whereby equipment can be quickly operated in a simple manner and at a proper timing for operation of the equipment in the drainage installation. SOLUTION: A key station 110 has a selection part 117 for selecting one of a natural drain operation part 111 for instructing sub-stations 120 for natural drain in accordance with only a water level difference, a forcible drain operation part 112 for instructing them for forcible drain with a pump and an automatic drain operation part 113 for instructing them for automatic drain operation to automatically operate both natural drain and forcible drain in accordance with a water level. Each of the sub-stations 120 includes a natural drain operation instructing circuit 121 for outputting instructions to a drainage installation to control the operation of equipment in predetermined order after receiving natural drain operation instructions from the key station, a forcible drain operation instructing circuit 122 for outputting instructions to control the operation of the equipment in predetermined order after receiving forcible drain operation instructions and an automatic drain operation instructing circuit 123 for outputting instructions to automatically operate the equipment in the drainage installation in accordance with a water level after receiving automatic drain operation instructions.
    • 10. 发明专利
    • VALVE CONTROL METHOD IN POWER RECOVERY SYSTEM
    • JPH08144925A
    • 1996-06-04
    • JP30988494
    • 1994-11-18
    • EBARA CORP
    • MIWA TOSHIOCHOKAI KAZUOTAKITA SHIGEONUMANO KENICHIROMAJIMA ETSUYO
    • F03B15/04
    • PURPOSE: To enable it to get control over both main and sub control valve fully automated and unmanned as well as to make an efficient power recovery achievable. CONSTITUTION: Valve opening of a main control valve 14 is controlled according to the flow rate and pressure of a fluid, and the setting opening to be found out of a maximum limitation to the control range is detected, whereby a sub control valve 15 is controlled according to the flow rate and pressure of the fluid in taking account of the control range. Likewise, the valve opening of the main control valve 14 is controlled according to the flow rate and pressure of the fluid, and the control limitation is detected, whereby valve opening control of the main control valve 14 is stopped, and the sub control valve is controlled according to the flow rate and pressure, and when it is reached to the control limitation during control over the sub control valve 15, the control is stopped, putting it back to the control of the main control valve 14. In addition, an area, where each control of both these main and sub control valves 14 and 15 takes its charge, is prestored, detecting the flow rate and pressure of the fluid, and the optimum opening of these main and sub control valves 14 and 15 is found out of the detected flow rate and pressure, thereby controlling both these main and bus control valves to the optimum opening.