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    • 31. 发明专利
    • Water meter system
    • 水表系统
    • JP2006275589A
    • 2006-10-12
    • JP2005091506
    • 2005-03-28
    • Aichi Tokei Denki Co Ltd愛知時計電機株式会社
    • YAMADA TERUOITOIGAWA NOBORUTANAKA YUTAKASATO YOSHIHISAMORI KAZUHISASAITO MAKOTO
    • G01F1/00E03B7/07G01F15/18
    • PROBLEM TO BE SOLVED: To provide a water meter system capable of making an overall length shorter than that of a water meter system provided with a conventional water-stop part. SOLUTION: By the water meter system 100 of this form of implementation, since a movable tube body 30A functions as a water-stop part when the movable tube body 30A is arranged at a water-stop position, service water does not flow inside the movable tube body 30A from both the upstream side and the downstream side from the water meter 20A. It is thereby possible to remove the water meter 20A without causing leakage of service water from an intermediate metal fixture 10A. Since the movable tube body 30A functioning as a water-stop part is arranged inside a meter reception part 11A, an overall length is shortened in comparison with a conventional water meter system in which a water-stop part, a meter reception part, and a water pipe are arranged in a lateral row in the direction of connection. COPYRIGHT: (C)2007,JPO&INPIT
    • 要解决的问题:提供一种能够使整体长度短于具有常规止水部件的水表系统的水表系统的水表系统。 解决方案:通过这种实现形式的水表系统100,由于当可动管体30A布置在止水位置时,可移动管体30A用作止水部分,所以服务水不流动 从水表20A的上游侧和下游侧的可动管体30A的内部。 从而可以从水中心金属固定装置10A排出水而不会使服务水泄漏。 由于用作止水部的可动管体30A配置在计量接收部11A的内部,因此与以往的水表系统相比,总体长度缩短,其中,在水位检测系统中,将停水部,仪表接收部和 水管沿连接方向排列成横排。 版权所有(C)2007,JPO&INPIT
    • 32. 发明专利
    • Water meter system
    • 水表系统
    • JP2006275588A
    • 2006-10-12
    • JP2005091505
    • 2005-03-28
    • Aichi Tokei Denki Co Ltd愛知時計電機株式会社
    • YAMADA TERUOTANAKA YUTAKASATO YOSHIHISAMORI KAZUHISASAITO MAKOTO
    • G01F1/00G01F1/115G01F1/58G01F1/66
    • PROBLEM TO BE SOLVED: To provide a water meter system capable of making attachment and removal operations of water meters more efficient than before. SOLUTION: By this form of implementation, since it is possible to simultaneously open and close both end part channels 12 and 13 of upstream-side and downstream-side of a water meter 20A by the one operation of moving a movable member 30A between first and second positions, it is possible to perform attachment and removal operations of the water meter 20A more efficiently than before. Since the movable member 30A functions as a water-stop part when the movable member 30A is arranged at a water-stop position to prevent service water from flowing inside the movable member 30A from both the upstream side and the downstream side from the water meter 20A, the discharge of service water from an intermediate metal fixture 10A is prevented after the removal of the water meter 20A. COPYRIGHT: (C)2007,JPO&INPIT
    • 要解决的问题:提供能够使水表的附着和拆卸操作比以前更有效的水表系统。 解决方案:通过这种实施方式,由于可以通过移动可移动部件30A的一个操作来同时打开和关闭水表20A的上游侧和下游侧的两个端部通道12和13 在第一和第二位置之间,可以比以前更有效地执行水表20A的附接和移除操作。 由于可移动部件30A在可动部件30A配置在停水位置时起到止水部的作用,从而能够防止维护水从水表20A的上游侧和下游侧向可动部件30A内流动 在去除水表20A之后,防止来自中间金属固定装置10A的使用水的排放。 版权所有(C)2007,JPO&INPIT
    • 33. 发明专利
    • Ultrasonic flowmeter
    • 超声波流量计
    • JP2005338055A
    • 2005-12-08
    • JP2005025045
    • 2005-02-01
    • Aichi Tokei Denki Co Ltd愛知時計電機株式会社
    • TANAKA YUTAKASATO YOSHIHISA
    • G01F1/66
    • PROBLEM TO BE SOLVED: To provide an ultrasonic flowmeter having high reliability and capable of improving accuracy in measurement.
      SOLUTION: In this ultrasonic flowmeter 10, as a sensor storing thin part 26 is raised from an end part wall 14, the sensor storing thin part 26 is separated from the end part wall 14, and a thickness dimension of the sensor storing thin part 26 can be easily controlled. Thus the accuracy in thickness dimension of a thin bottom wall 25 with which a vibrational face 36 of an ultrasonic sensor 30 is closely kept into contact, can be improved. As the thin bottom wall 25 is thinned in comparison with the whole end part wall 14, a distance from the vibration face 36 of the ultrasonic sensor 30 to the liquid can be shortened in comparison with a conventional one where the ultrasonic sensor is mounted on an outer face of a pipe of approximately uniform thickness through a bracket, the attenuation of ultrasonic wave can be reduced, and the measuring accuracy can be improved.
      COPYRIGHT: (C)2006,JPO&NCIPI
    • 要解决的问题:提供一种具有高可靠性且能够提高测量精度的超声波流量计。 解决方案:在该超声波流量计10中,作为传感器存储薄部26从端部壁14升起,传感器存储薄部26与端部壁14分离,并且传感器的厚度尺寸存储 薄部分26可以容易地控制。 因此,可以提高超声波传感器30的振动面36紧密保持接触的薄底壁25的厚度尺寸的精度。 由于与整个端部壁14相比,薄的底壁25变薄,所以与现有技术相比,可以缩短从超声波传感器30的振动面36到液体的距离, 通过支架的大致均匀厚度的管的外表面可以减小超声波的衰减,并且可以提高测量精度。 版权所有(C)2006,JPO&NCIPI
    • 35. 发明专利
    • Ultrasonic flowmeter
    • 超声波流量计
    • JP2011099692A
    • 2011-05-19
    • JP2009252918
    • 2009-11-04
    • Aichi Tokei Denki Co Ltd愛知時計電機株式会社
    • TANAKA YUTAKASATO YOSHIHISAGOMYO TOMOOYAMAGUCHI TAKESHI
    • G01F1/66
    • PROBLEM TO BE SOLVED: To provide an ultrasonic flowmeter free from enclosure noise. SOLUTION: In this ultrasonic flowmeter 10, a measurement body 30 is divided into a first body constituent 61 including one ultrasonic sensor 50, and a second body constituent 62 including the other ultrasonic sensor 50, with the first and second body constituents 61 and 62 fixed in and combinedly held by outer sleeves 11, respectively. Since a gap G1 for ultrasonic wave transmission prevention is provided between combining surfaces of the first and second body constituents 61 and 62, the enclosure noise propagating through a pipe wall of a measurement pipe 31 is suppressed or eliminated. This allows the prevention of deterioration in measurement accuracy owing to the enclosure noise. COPYRIGHT: (C)2011,JPO&INPIT
    • 要解决的问题:提供无外壳噪音的超声波流量计。 解决方案:在该超声波流量计10中,测量体30被分成包括一个超声波传感器50的第一主体部件61和包括另一个超声波传感器50的第二主体部件62,第一和第二主体部件61 和62分别固定在外套11上并组合在一起。 由于在第一和第二主体部件61和62的组合表面之间设置用于防止超声波传播的间隙G1,所以抑制或消除了通过测量管31的管壁传播的外壳噪声。 这允许由于外壳噪声而防止测量精度的劣化。 版权所有(C)2011,JPO&INPIT
    • 36. 发明专利
    • Flowmeter and method of measuring flow rate
    • 流量计和流量测量方法
    • JP2010256075A
    • 2010-11-11
    • JP2009103998
    • 2009-04-22
    • Aichi Tokei Denki Co Ltd愛知時計電機株式会社
    • TANAKA YUTAKASUGIURA YOJIRO
    • G01F1/86G01F1/00G01F1/66G01F15/04
    • PROBLEM TO BE SOLVED: To provide a flowmeter for stably measuring a standard flow rate, etc. and a method of measuring a flow rate. SOLUTION: An ultrasonic flowmeter 10 measures a flow velocity V and temperature T1 of a gas in a measuring tube 13 by using first and second ultrasonic transmitter-receivers 14 and 15 while measuring hydrostatic pressure P1 of the gas in the measuring tube 13 by using a static pressure meter 17. A dynamic pressure P2 of the gas is calculated from the flow velocity V while a total pressure P3 is calculated by using the sum of the hydrostatic pressure P1 and the dynamic pressure P2. By using the measured or calculated actual total pressure P3, actual temperature T1, and actual total pressure P3, and a relational expression based on the Boyle-Charle's law, the actual flow velocity V is output by calculating a standard unit flow rate Qx and the standard flow rate Q. The flow rate Qx is of the gas flowing through a unit area in the measuring tube 13 at previously determined standard temperature T0 and standard total pressure P0. The flow rate Q is found by multiplying the flow rate Qx by the inside cross-section of the measuring tube 13. COPYRIGHT: (C)2011,JPO&INPIT
    • 要解决的问题:提供一种用于稳定地测量标准流量的流量计等以及测量流量的方法。 解决方案:超声波流量计10通过使用第一和第二超声波发射器 - 接收器14和15测量测量管13中的气体的流速V和温度T1,同时测量测量管13中的气体的静水压力P1 通过使用静压计17计算气体的动态压力P2,同时通过使用静水压力P1和动态压力P2的总和来计算总压力P3。 通过使用测量或计算的实际总压力P3,实际温度T1和实际总压力P3以及基于Boyle-Charle定律的关系式,通过计算标准单位流量Qx并输出实际流速V,输出实际流速V 标准流量Q.流量Qx是在预先确定的标准温度T0和标准总压力P0下流过测量管13中的单位面积的气体。 通过将流量Qx乘以测量管13的内部横截面来求出流量Q。版权所有:(C)2011,JPO&INPIT
    • 37. 发明专利
    • Ultrasonic flowmeter and manufacturing method therefor
    • 超声波流量计及其制造方法
    • JP2007205945A
    • 2007-08-16
    • JP2006026345
    • 2006-02-02
    • Aichi Tokei Denki Co Ltd愛知時計電機株式会社
    • TANAKA YUTAKA
    • G01F1/66
    • PROBLEM TO BE SOLVED: To provide an ultrasonic flowmeter improved in measuring precision, compared with one in the prior art, and a manufacturing method therefor.
      SOLUTION: In this ultrasonic flowmeter 10 of the present invention, a multicylindrical part is constituted of the first cylindrical body 12A, the second cylindrical body 13A, and a multiplex pipe 30 to extend a propagation distance of a casing propagation wave, and the casing propagation wave propagated through a meter housing 11 is received by an ultrasonic sensor 20 in a reception side, with a time lag from an ultrasonic wave (fluid propagation wave) propagated through a fluid. The casing propagation wave may be attenuated until it reaches the ultrasonic sensor 20 in the reception side. In addition, a sensor-to-sensor distance L1 is never fluctuated, because the first housing 12 is coupled to the second housing 13 by the multiplex pipe 30. A propagation time of the fluid propagation wave is thereby measured accurately to increase the measuring precision of a flow velocity of the fluid (for example, hydrogen gas and water), or a flow rate thereof, compared with one in the prior art.
      COPYRIGHT: (C)2007,JPO&INPIT
    • 要解决的问题:提供与现有技术相比提高的测量精度的超声波流量计及其制造方法。 解决方案:在本发明的超声波流量计10中,多个圆柱形部分由第一圆柱体12A,第二圆柱体13A和多路管30构成,以延伸壳体传播波的传播距离, 通过仪表壳体11传播的壳体传播波被接收侧的超声波传感器20接收,并且从通过流体传播的超声波(流体传播波)的时间延迟。 壳体传播波可以被衰减直到其到达接收侧的超声波传感器20。 此外,由于第一壳体12通过多路复用管30耦合到第二壳体13,所以传感器到传感器的距离L1不会波动。由此精确地测量流体传播波的传播时间,以提高测量精度 与现有技术相比,流体的流速(例如,氢气和水)或其流量。 版权所有(C)2007,JPO&INPIT
    • 38. 发明专利
    • Ultrasonic flowmeter
    • 超声波流量计
    • JP2007047189A
    • 2007-02-22
    • JP2006317082
    • 2006-11-24
    • Aichi Tokei Denki Co Ltd愛知時計電機株式会社
    • NABESHIMA NORIYUKITANAKA YUTAKA
    • G01F1/66
    • PROBLEM TO BE SOLVED: To miniaturize a large-capacity ultrasonic flowmeter, to eliminate a measurement error due to channeling, to precisely measure a sectional average flow speed or a sectional average rate, and to improve stream lining.
      SOLUTION: Fluid flows in a direction marked by an arrow V in a double ring channel 7 between mutually coaxial cylindrical surfaces 5, 6. Ultrasonic waves are propagated along a spiral shown by a code 10 between ultrasonic sensors 8, 9. Both the sensors 8, 9 are located at positions separated by 180 degrees in terms of the angle at the circumference. The sectional average flow speed and the sectional average flow rate at a measurement region shown by hatching in Fig.1(b) are obtained. The channel 7 that is ten times longer than distance (h) between both the cylindrical surfaces 5, 6 straighten flow with improved flow.
      COPYRIGHT: (C)2007,JPO&INPIT
    • 要解决的问题:为了使大容量超声波流量计小型化,为了消除由于通道引起的测量误差,精确地测量截面平均流速或截面平均速率,并且改善流衬里。 解决方案:流体沿相互同轴的圆柱形表面5,6之间的双环形通道7中的箭头V所示的方向流动。超声波沿着超声波传感器8,9之间的代码10所示的螺旋传播。两者 传感器8,9位于围绕圆周角度分开180度的位置处。 获得图1(b)中阴影所示的测量区域的截面平均流速和剖面平均流速。 两个圆柱形表面5,6之间的距离(h)长十倍的通道7使流动改善流动。 版权所有(C)2007,JPO&INPIT
    • 39. 发明专利
    • Ultrasonic water meter
    • 超声波水表
    • JP2005189090A
    • 2005-07-14
    • JP2003430514
    • 2003-12-25
    • Aichi Tokei Denki Co Ltd愛知時計電機株式会社
    • TANAKA YUTAKA
    • G01F1/06G01F1/66
    • G01F1/662G01F15/185
    • PROBLEM TO BE SOLVED: To provide an ultrasonic water meter which reduces space for being attached to a water pipe with ensuring propagating distance of ultrasonic waves.
      SOLUTION: The ultrasonic water meter 60 is provided with a pair of ultrasonic transmitters/receivers 76, 76 at both tips of a nearly U-shaped curving water conduit 68. Ultrasonic waves transmitted/received between the two ultrasonic transmitters/receivers 76, 76 are allowed to transmit through tap water flowing through the curving water conduit 68, reducing space for being attached to a water pipe with ensuring propagating distance of ultrasonic waves. The curving water conduit 68 is formed in an angular U-shape in which lower ends of vertical linear sections 69, 69 are connected with a horizontal linear section 70, requiring less number of reflections of ultrasonic waves on the inner surface of the curving water conduit 68 compared to the one formed in a nearly U-shape with roundness.
      COPYRIGHT: (C)2005,JPO&NCIPI
    • 要解决的问题:提供一种超声波水表,其在确保超声波的传播距离的情况下减少了附着在水管上的空间。

      解决方案:超声波水表60在几乎U形的弯曲水管道68的两个尖端处设置有一对超声波发射器/接收器76,76。在两个超声波发射器/接收器76之间发送/接收的超声波 ,76允许通过弯曲水导管68流过的自来水传输,确保超声波传播距离的减小空间以附着在水管上。 弯曲水管道68形成为角度U形,其中垂直线性部分69,69的下端与水平线性部分70连接,在弯曲水管道的内表面上需要较少数量的超声波反射 68与形成为具有圆形近似U形的相比。 版权所有(C)2005,JPO&NCIPI

    • 40. 发明专利
    • Ultrasonic flowmeter and hot water supply system
    • 超声波流量计和热水供应系统
    • JP2005098995A
    • 2005-04-14
    • JP2004229018
    • 2004-08-05
    • Aichi Tokei Denki Co Ltd愛知時計電機株式会社
    • TANAKA YUTAKA
    • G01F1/66G01K11/24G01K17/16
    • PROBLEM TO BE SOLVED: To provide an ultrasonic flowmeter capable of measuring the flow velocity and/or quantity of flow of a plurality of liquids of different temperatures in an installation space more compact than before and to provide a hot water supply system.
      SOLUTION: The ultrasonic flowmeter 10 is provided with a first measuring part provided for a first channel through which a liquid flows; a second measuring part provided for a second channel through which a liquid different from the liquid flowing through the first channel flows; a pair of ultrasonic transmitter/receivers, each being provided for the first measuring part and for the second measuring part and separately arranged on the upstream side and on the downstream side of the channels for transmitting and receiving ultrasonic waves in both directions of the forward direction along the flow of the liquids and the backward direction opposite to that of the flow; an operation part for computing the difference in the arrival times of ultrasonic waves in the forward direction and the backward direction between the pair of ultrasonic transmitter/receivers; and a switching means for alternately switching between the first measuring part and the second measuring part to connect to the operation part. Since it is possible to compute both measurement values (the velocity and quantity of flow and temperatures) on water at ordinary temperatures and measurement values on heated water formed by heating the water at normal temperatures in a common single arithmetic processing part 18 by the ultrasonic flowmeter 10, the size of the ultrasonic flowmeter 10 can be made smaller than that of a simple combination of two conventional vane-wheel type flowmeters and suppress its installation space smaller than before.
      COPYRIGHT: (C)2005,JPO&NCIPI
    • 解决的问题:提供一种能够在比以前更紧凑的安装空间中测量不同温度的多种液体的流速和/或流量的超声波流量计,并提供热水供应系统。 解决方案:超声波流量计10设置有第一测量部分,其设置用于液体流过的第一通道; 第二测量部分,设置用于流过第一通道的液体不同于液体的第二通道; 一对超声波发射器/接收器,分别设置在第一测量部分和第二测量部分上,并分别布置在通道的上游侧和下游侧,用于在正向的两个方向上发射和接收超声波 沿着液体的流动和与流动相反的向后方向; 用于计算超声波发射器/接收器之间的正向和反向的超声波到达时间的差的操作部分; 以及用于在第一测量部分和第二测量部分之间交替切换以连接到操作部分的切换装置。 由于可以通过超声波流量计在通常的单个运算处理部18中计算常温常压下的水的测量值(流速和温度的流量)和在常温下加热水所形成的加热水的测量值 如图10所示,可以使超声波流量计10的尺寸小于两个传统的叶轮式流量计的简单组合的尺寸,并且抑制其安装空间比以前更小。 版权所有(C)2005,JPO&NCIPI