会员体验
专利管家(专利管理)
工作空间(专利管理)
风险监控(情报监控)
数据分析(专利分析)
侵权分析(诉讼无效)
联系我们
交流群
官方交流:
QQ群: 891211   
微信请扫码    >>>
现在联系顾问~
热词
    • 3. 发明授权
    • 초음파 유량계의 영점조정 방법 및 초음파 진동자 사이의 거리 측정방법
    • 调整超声波流量计超声波换能器零点和测量距离的方法
    • KR101534665B1
    • 2015-07-07
    • KR1020130162323
    • 2013-12-24
    • (주)씨엠엔텍
    • 황상윤
    • G01F1/66G01F25/00
    • 본발명은초음파유량계에서의영점조정방법및 초음파진동자사이의거리를측정하기위한방법에관한것이다. 본발명에따른영점조정방법에서는적어도한 쌍의초음파진동자쌍이설치된유량계를사용하여수행되는것으로서, 유체의진행경로상상류측진동자에서초음파를발사한후 초음파진동자들사이에서 2번의반사를거쳐하류측진동자에수신될때까지의제1시간과, 역으로하류측진동자에서초음파를발사하여 2번의반사를거쳐상류측진동자에서수신될때까지의제2시간을측정하고, 반사과정없이각각상류측에서하류측으로, 그리고하류측에서상류측으로초음파를발사및 수신하여제3시간과제4시간을측정한후, 연산과정을통해상류에서하류로초음파가전파될때와하류에서상류로초음파가발사될때의영점시간차를산출하고, 이값을이용하여콘트롤러에보정값을설정하는방식으로영점을정확하게조절한다. 본발명에따른거리측정방법에서는연산단계에서구해진값을이용하여초음파진동자들사이의거리를정확하게측정할수 있다.
    • 4. 发明公开
    • 초음파 센서 및 이를 이용한 초음파 유량계
    • 使用耐腐蚀传感器和超声波流量计
    • KR1020120063231A
    • 2012-06-15
    • KR1020100124323
    • 2010-12-07
    • (주)씨엠엔텍
    • 김규석
    • G01F1/66G01F15/14G01F15/00
    • PURPOSE: An anti-corrosion sensor and ultrasonic flow meter using the same are provided to prevent a corrosion generation in a cross section of a measuring pipe punched by a direct construction by attaching a sacrificial anode in the inner circumference of a saddle. CONSTITUTION: An ultrasonic flow meter using an anti-corrosion sensor comprises a housing(50), an ultrasonic vibrator(70), and a sacrificial anode(80). The housing composed of conductive materials is installed in a measuring pipe of an ultrasonic flow meter. An inner space par is formed inside the housing. The ultrasonic vibrator installed in the inner side of the housing is electrically connected to a power source and vibrates, thereby transmitting and receiving the ultrasonic waves. The sacrificial anode is joined to the housing and formed with a material in which an ionization tendency is larger than a material of the measuring pipe.
    • 目的:提供一种使用其的防腐蚀传感器和超声波流量计,以通过在鞍座的内周安装牺牲阳极来防止在通过直接结构冲压的测量管的横截面中产生腐蚀。 构成:使用防腐蚀传感器的超声波流量计包括壳体(50),超声波振动器(70)和牺牲阳极(80)。 由导电材料构成的壳体安装在超声波流量计的测量管中。 在壳体内部形成内部空间标准杆。 安装在壳体内侧的超声波振子与电源电连接并振动,由此发送和接收超声波。 牺牲阳极接合到壳体并形成有电离倾向大于测量管材料的材料。
    • 5. 发明公开
    • 유관 두께/내경 측정장치
    • 一种测量管道厚度和内径的设备
    • KR1020110041663A
    • 2011-04-22
    • KR1020090098598
    • 2009-10-16
    • (주)씨엠엔텍
    • 황상윤
    • G01B17/02G01F1/66
    • PURPOSE: A pipe thickness/inner-diameter measuring device is provided to accurately measure the flow rate of fluid in a pipe by reflecting the thickness and inner diameter of the pipe. CONSTITUTION: A pipe thickness/inner-diameter measuring device(100) comprises an inserting rod(10) and a contact member(20). The inserting rod is formed with long length. The inserting rod is inserted into a through hole on the pipe. The inserting rod comprises a measuring unit(12), on which scales for measuring length are indicated. The contact member is coupled to the inserting rod to be able to change a position between an inserting position and a measuring position. The contact member comprises a body(21) and a contact unit(22). The body is formed in a bar shape. The contact unit is protruded from the body in one direction.
    • 目的:提供管厚度/内径测量装置,通过反映管道的厚度和内径来精确地测量管道中流体的流量。 构成:管厚度/内径测量装置(100)包括插入杆(10)和接触构件(20)。 插入杆长度较长。 插入杆插入到管道上的通孔中。 插入杆包括测量单元(12),在其上指示用于测量长度的刻度。 接触构件联接到插入杆以能够改变插入位置和测量位置之间的位置。 接触构件包括主体(21)和接触单元(22)。 身体形成条形。 接触单元在一个方向上从身体突出。
    • 6. 发明公开
    • 건식 초음파 유량계
    • 非浸入式超声波流量计
    • KR1020100115562A
    • 2010-10-28
    • KR1020090034196
    • 2009-04-20
    • (주)씨엠엔텍한국건설기술연구원전자부품연구원
    • 황상윤송병훈
    • G01F1/66G01N29/024
    • G01F1/662G01P5/24
    • PURPOSE: A non-intrusive ultrasonic flowmeter is provided to accurately calculate the flow rate of the fluid even if the temperatures of the fluid, a fluid pipe and a housing are changed. CONSTITUTION: A non-intrusive ultrasonic flowmeter(100) comprises housings(10), ultrasonic oscillators(20), an auxiliary housing(30), an ultrasonic sensor(40), and a controller. The housings are connected to the outer wall of a fluid pipe, in which the fluid flows, to be spaced in a direction in which the fluid flows. The ultrasonic oscillators are connected to the housing, receive and send the ultrasonic wave in a direction interacting with the flow direction of the fluid. The auxiliary housing is connected to the outer wall of the fluid pipe. The ultrasonic sensor is connected to the auxiliary housing, receives and sends the ultrasonic wave in a direction orthogonal to the fluid pipe. The controller is electrically connected to a pair of ultrasonic oscillators and the ultrasonic sensor.
    • 目的:提供一种非侵入式超声波流量计,即使流体,流体管和壳体的温度发生变化,也能精确地计算流体的流量。 构成:非侵入式超声波流量计(100)包括壳体(10),超声波振荡器(20),辅助壳体(30),超声波传感器(40)和控制器。 壳体连接到流体管道的外壁,流体管道的外壁在流体流动的方向上间隔开。 超声波振荡器连接到壳体,在与流体的流动方向相互作用的方向上接收和发送超声波。 辅助壳体连接到流体管道的外壁。 超声波传感器连接到辅助壳体,在与流体管正交的方向上接收并发送超声波。 控制器电连接到一对超声波振荡器和超声波传感器。
    • 7. 发明公开
    • 초음파 수신시점 설정방법
    • 一种确定超声波接收点的方法
    • KR1020100111480A
    • 2010-10-15
    • KR1020090029930
    • 2009-04-07
    • (주)씨엠엔텍
    • 서진석
    • G01F23/296G01H17/00
    • G01F23/296G01D21/02G01H17/00G01P5/24
    • PURPOSE: A method for determining the receiving point of an ultrasonic wave is provided to enable the flow rate and the flow velocity of the fluid to be accurately measured by the accurate setting on the receiving point of an ultrasonic wave. CONSTITUTION: A method for determining the receiving point of an ultrasonic wave is as follows. A first detected level is set, which exists on one of a positive phase and a negative phase(S10). A second detected level is set, which exists on the other phase and has a difference from a zero level which is smaller than the difference between the first detected level and the zero level(S20). It is determined by the monitoring of the amplitude of an electric pulse packet whether the electric pulse packet crosses the second detected level(S30). After the crossing, it is determined whether the electric pulse packet of the opposite phase of the second detected level crosses the first detected level(S50).
    • 目的:提供一种用于确定超声波接收点的方法,以通过超声波接收点上的精确设置来精确地测量流体的流速和流速。 构成:用于确定超声波的接收点的方法如下。 设置第一检测电平,其存在于正相和负相中的一个上(S10)。 设置第二检测电平,其存在于另一相位上,并且具有与零电平的差值,该零电平小于第一检测电平与零电平之间的差值(S20)。 通过监视电脉冲包的幅度来确定电脉冲包是否超过第二检测电平(S30)。 在交叉之后,确定第二检测电平的相反相位的电脉冲分组是否超过第一检测电平(S50)。
    • 8. 发明公开
    • 건식 초음파 유속측정장치
    • 非侵入式超声波电流表
    • KR1020100109232A
    • 2010-10-08
    • KR1020090027733
    • 2009-03-31
    • (주)씨엠엔텍한국수자원공사
    • 황상윤박주영
    • G01P5/24G01P5/00
    • G01P5/245A61H23/0245G01F1/667
    • PURPOSE: A non-intrusive ultrasonic wave fluid velocity measuring device is provided to smoothly measure a fluid velocity when the temperature of a fluid is changed. CONSTITUTION: A pair of ultrasonic wave oscillators(20) are combined with a housing(10). The ultrasonic wave generates or receives an ultrasonic wave. A controller is electrically connected to a pair of ultrasonic oscillators and measures a first taken time and a second taken time. The controller measure a fluid velocity by using a difference between the first time and the second time. The first taken time is a period from the ultrasonic transmission time point of an upstream side ultrasonic wave oscillator to the receiving time point of a downstream ultrasonic oscillator.
    • 目的:提供一种非侵入式超声波流体速度测量装置,用于在流体温度改变时平滑地测量流体速度。 构成:一对超声波振荡器(20)与壳体(10)组合。 超声波产生或接收超声波。 控制器电连接到一对超声波振荡器,并且测量第一次花费时间和第二次花费时间。 控制器通过使用第一次和第二次之间的差来测量流体速度。 第一时间是从上游侧超声波振荡器的超声波发送时刻到下游超声波振荡器的接收时刻的期间。
    • 9. 发明公开
    • 초음파 유속측정방법 및 초음파 유량측정방법
    • 通过超声波测量流速的方法和通过超声波测量通量的方法
    • KR1020090061144A
    • 2009-06-16
    • KR1020070128019
    • 2007-12-11
    • (주)씨엠엔텍
    • 황상윤
    • G01F1/66
    • G01F1/662E03B7/072G01P5/24
    • A flow rate measuring method and a flux measuring method using ultrasonic waves are provided to measure the flow rate of fluid passing through the peripheral region of a fluid pipe without installation of additional ultrasonic flowmeter circuit. A flow rate measuring method using ultrasonic waves comprises a step of preparing ultrasonic flowmeter circuits separated from each other(M101), a step of measuring the flow rate of fluid passing through the line connecting ultrasonic oscillators(M102), a step of measuring the flow rate of fluid passing through the area surrounded with an outermost ultrasonic flowmeter line and the inner wall of a fluid pipe in which the ultrasonic wave is reflected(M103), and a step of setting the measured flow rate as a flow rate of the fluid passing through the straight line parallel with the outermost ultrasonic flowmeter line(M104).
    • 提供使用超声波的流量测量方法和通量测量方法来测量流过管道周边区域的流体的流量,而不需要附加的超声波流量计电路。 使用超声波的流量测量方法包括制备彼此分离的超声波流量计电路(M101)的步骤,测量通过连接超声波振荡器(M102)的线路的流体的流量的步骤,测量流量的步骤 通过最外层超声波流量计线所围绕的区域的流体的流量和超声波被反射的流体管的内壁(M103),以及将测定的流量设定为流体的流量的步骤 通过与最外层超声波流量计线(M104)平行的直线。
    • 10. 发明公开
    • 측정관 및 이를 이용한 회전형 초음파 유량계
    • 流量测量管和旋转型超声波流量计使用相同
    • KR1020090050780A
    • 2009-05-20
    • KR1020070117398
    • 2007-11-16
    • (주)씨엠엔텍
    • 황상윤
    • G01F1/66
    • G01F1/662E03B7/072G01P5/24
    • 본 발명은 초음파 유량계 및 초음파 유량계에 사용되는 측정관에 대한 것이다.
      본 발명에 따른 초음파 유량계는 내부를 통해 유체가 흐르도록 중공형으로 형성되며, 유체의 유속을 측정하기 위하여 유로에 설치되는 측정관과, 한 쌍으로 이루어져 측정관을 통해 흐르는 유체의 진행방향에 대하여 경사진 방향을 따라 서로 마주하도록 측정관의 상류측과 하류측에 각각 설치되며, 상호 대응하여 초음파를 수신 및 발신하는 초음파 진동자와, 초음파 진동자의 작동을 제어하며, 초음파 진동자로부터 전송된 신호를 이용하여 측정관을 통해 흐르는 유체의 유량을 측정하는 컨트롤러를 구비하며, 측정관은 상호 이격되어 유로에 각각 고정되게 설치되는 한 쌍의 고정관과, 초음파 진동자가 설치되며 한 쌍의 고정관 사이에 끼워져 고정관에 대하여 회전가능하게 결합되는 회전관을 포함하여 이루어진 것에 특징이 있다.
      초음파 진동자, 초음파 유속계