센서용 매립형 필터 컴포넌트들을 갖는 어댑터
    151.
    发明公开
    센서용 매립형 필터 컴포넌트들을 갖는 어댑터 审中-实审
    传感器采用埋入式过滤器组件的适配器

    公开(公告)号:KR1020170108023A

    公开(公告)日:2017-09-26

    申请号:KR1020177021011

    申请日:2016-01-26

    Abstract: 본발명은센서소자 (35) 로부터출력인터페이스 (67) 로물리적변수 (20) 에종속하는전기신호를출력하는상기출력인터페이스 (67) 및상기센서소자 (35) 를갖는센서 (28) 용컴포넌트 (65) 에관한것으로서, 이는센서소자 (35) 로부터전기신호 (42) 를수신하고출력인터페이스 (67) 에전기신호 (42) 를전도하는적어도하나의제 1 신호경로 (70), 및제 1 신호경로 (70) 와는상이하고, 전기신호 (42) 를출력인터페이스 (67) 에전도하는제 2 신호경로 (70) 를갖는회로를포함하고, 제 1 신호경로 (70) 또는제 2 신호경로 (70) 의액티비티는센서 (28) 에서의컴포넌트 (65) 의포지션에의존한다.

    Abstract translation: 本发明可应用于诸如输出接口67的组件,用于将取决于物理变量20的电信号从传感器元件35输出到输出接口67以及具有传感器元件35的传感器28的组件 其包括至少一个第一信号路径70,用于接收来自传感器元件35的电信号42并将电信号42传导至输出接口67, (70)与第一信号路径(70)不同并且具有用于将电信号(42)传导到输出接口(67)的第二信号路径(70) 部件28的活动取决于部件65在传感器28中的位置。

    마이크로 센서 패키지
    154.
    发明公开
    마이크로 센서 패키지 有权
    微传感器包装

    公开(公告)号:KR1020180029654A

    公开(公告)日:2018-03-21

    申请号:KR1020160118019

    申请日:2016-09-13

    Abstract: 본발명은마이크로센서패키지에관한것으로써, 특히, 센서전극이형성된기판에는다수개의포어가상하방향으로관통되게형성되며, 상기기판의하면에는본딩부가형성되고, 상기센서전극패드아래에있는상기포어의내부에는상기센서전극패드와상기본딩부를전기적으로연결하는연결부가형성되어, 경박단소마이크로센서패키지를제공할수 있고, 내외부에서와이어본딩없이프린트기판(PCB)에실장시킬수 있는마이크로센서패키지에관한것이다.

    Abstract translation: 公开了一种微传感器组件。 具体而言,公开了一种微传感器封装,其被配置为使得具有传感器电极的基板形成有多个垂直贯穿其中的孔,基板的下表面形成有接合部分,并且传感器电极焊盘下方的孔设置 其中具有各自的连接部分,所述连接部分电连接传感器电极焊盘和结合部分,由此可以提供轻便,小巧且紧凑的微传感器封装,并且可以将微传感器封装安装到印刷电路板 引线键合。

    에너지 하비스터로 구동되는 멤스 센서를 이용한 예후 진단시스템
    155.
    发明公开
    에너지 하비스터로 구동되는 멤스 센서를 이용한 예후 진단시스템 无效
    使用由能量捕获器驱动的MEMS传感器的预处理系统

    公开(公告)号:KR1020090102494A

    公开(公告)日:2009-09-30

    申请号:KR1020080027970

    申请日:2008-03-26

    Applicant: (주)켄트

    CPC classification number: B81B7/02 B81B2201/02 B81B2201/037 G08C19/00

    Abstract: PURPOSE: A prognosis system using MEMS sensors driven by an energy harvester is provided to use vibration energy generated in machine equipment as the driving energy of a sensor or a sensor module. CONSTITUTION: A prognosis system using MEMS sensors driven by an energy harvester comprises a MEMS sensor, a wireless sensor unit(409), an energy harvest and a base station(411). The MEMS sensor unites with objects. The wireless sensor unit receives the sensor signal of the analog type from one or more MEMS sensors and signal-processes the sensor signal and converts the sensor signal into the digital signals. The sensor signal converted into the digital signal is produced as packet data. The produced packet data are wirelessly transmitted to the base station. The energy harvest converts the vibration energy of the objects and supplies driving energy to operate one or more among the MEMS sensors and the wireless sensor unit. The base station receives and synthesizes the packet data. The base station analyzes the synthesized packet data and drives prognosis diagnosis based on the analyzed data and produces the prognosis diagnosis result.

    Abstract translation: 目的:提供使用由能量收集器驱动的MEMS传感器的预测系统,以将机器设备中产生的振动能量作为传感器或传感器模块的驱动能量。 构成:使用由能量收集器驱动的MEMS传感器的预测系统包括MEMS传感器,无线传感器单元(409),能量采集和基站(411)。 MEMS传感器与物体相结合。 无线传感器单元从一个或多个MEMS传感器接收模拟类型的传感器信号,并对传感器信号进行信号处理,并将传感器信号转换为数字信号。 转换成数字信号的传感器信号作为分组数据产生。 所生成的分组数据被无线发送到基站。 能量收集转换物体的振动能量并提供驱动能量以在MEMS传感器和无线传感器单元中操作一个或多个。 基站接收并合成分组数据。 基站分析合成分组数据,根据分析数据进行预后诊断,产生预后诊断结果。

    고감도 초소형 캔틸레버 센서 및 제조 방법
    156.
    发明公开
    고감도 초소형 캔틸레버 센서 및 제조 방법 失效
    高灵敏度微型CANTILEVER传感器及其制造方法

    公开(公告)号:KR1020030013130A

    公开(公告)日:2003-02-14

    申请号:KR1020010047464

    申请日:2001-08-07

    Abstract: PURPOSE: A high sensitivity micro cantilever sensor and a method for manufacturing the same are provided to reduce the size of a system by sensing an electric signal and obtain prompt response to sensing. CONSTITUTION: A high sensitivity micro cantilever sensor includes a cantilever, an upper substrate formed of one piezoelectric cell at the upper surface of the cantilever and the other piezoelectric cell at the lower surface of the cantilever, wherein the piezoelectric cells include a piezoelectric film(62) and electrodes(61,63) formed at the upper and lower surfaces of the piezoelectric film, a lower substrate(32) having a cavity(34) in regular depth, wherein the piezoelectric cell lower surface of the upper substrate is adhered to the surface of the lower substrate in which the cavity is formed.

    Abstract translation: 目的:提供高灵敏度微悬臂传感器及其制造方法,以通过感测电信号并获得对感测的迅速响应来减小系统的尺寸。 构成:高灵敏度微悬臂传感器包括悬臂,在悬臂的上表面由一个压电单元形成的上基板和在悬臂的下表面处的另一个压电单元,其中压电单元包括压电薄膜(62 )和形成在压电膜的上表面和下表面的电极(61,63),具有规则深度的空腔(34)的下基板(32),其中上基板的压电单元下表面粘附到 形成空腔的下基板的表面。

    고감도 초소형 캔틸레버 센서 및 그 제조방법
    157.
    发明公开
    고감도 초소형 캔틸레버 센서 및 그 제조방법 失效
    高灵敏度微型CANTILEVER传感器及其制造方法

    公开(公告)号:KR1020030013129A

    公开(公告)日:2003-02-14

    申请号:KR1020010047463

    申请日:2001-08-07

    Abstract: PURPOSE: A high sensitivity micro cantilever sensor and a method for manufacturing the same are provided to reduce the size of a system by sensing an electric signal, speed up response rate by executing driving and sensing at the same time, and improve sensing property. CONSTITUTION: A high sensitivity micro cantilever sensor includes a cantilever, an upper substrate formed of one or two piezoelectric cells including a piezoelectric film(36) at the lower surface of the cantilever and electrodes(35,37) formed at the upper and lower surfaces of the piezoelectric film, a lower substrate(32) having a cavity(34) in regular depth, wherein the piezoelectric cell lower surface of the upper substrate is adhered to the surface of the lower substrate in which the cavity is formed.

    Abstract translation: 目的:提供高灵敏度微悬臂传感器及其制造方法,以通过感测电信号来减小系统的尺寸,同时通过执行驱动和感测来加快响应速度,并提高感测特性。 构成:高灵敏度微悬臂传感器包括悬臂,由一个或两个压电单元形成的上基板,包括在悬臂的下表面处的压电膜(36)和形成在上表面和下表面的电极(35,37) ,具有规则深度的空腔(34)的下基板(32),其中上基板的压电单元下表面粘附到形成有空腔的下基板的表面。

    마이크로 채널과 마이크로 채널내 유체와 직접 접촉하는센서와 히터를 구비하는 구조물 및 그 제조 방법
    158.
    发明公开
    마이크로 채널과 마이크로 채널내 유체와 직접 접촉하는센서와 히터를 구비하는 구조물 및 그 제조 방법 失效
    具有微通道的结构以及与微通道内流体直接接触的传感器和加热器及其制造方法

    公开(公告)号:KR1020030010980A

    公开(公告)日:2003-02-06

    申请号:KR1020010045688

    申请日:2001-07-28

    Inventor: 박호준 임근배

    Abstract: PURPOSE: A structure having a micro channel, and a sensor and heaters directly contacting with fluid inside the micro channel, and a method for manufacturing the same are provided to reliably measure physical characteristics of the fluid flowing in the micro channel in real time. CONSTITUTION: A structure having a micro channel(50) includes a semiconductor substrate(48) having a predetermined length of groove for forming a micro channel, and a glass substrate(40) of which one side is joined with the groove-formed surface of the semiconductor substrate, a sensor(44) directly measuring physical characteristics of fluid flowing in the micro channel, a plurality of local heaters(46) directly heating the fluid at a random position in the micro channel, and a main heater(42) installed at a circumference of the micro channel.

    Abstract translation: 目的:提供具有微通道的结构,以及与微通道内的流体直接接触的传感器和加热器及其制造方法,以可靠地测量在微通道中流动的流体的物理特性。 构成:具有微通道(50)的结构包括具有用于形成微通道的预定长度的槽的半导体衬底(48),以及玻璃衬底(40),其一侧与沟槽形成表面 所述半导体衬底,直接测量在所述微通道中流动的流体的物理特性的传感器(44),在所述微通道中的随机位置直接加热所述流体的多个局部加热器(46)以及安装在所述微通道中的主加热器 在微通道的圆周处。

    멤스 디바이스 제조 방법
    159.
    发明公开
    멤스 디바이스 제조 방법 审中-实审
    制造MEMS装置的方法

    公开(公告)号:KR1020170129402A

    公开(公告)日:2017-11-27

    申请号:KR1020160060050

    申请日:2016-05-17

    Abstract: 본발명은멤스디바이스제조방법및 이에의해제조되는멤스디바이스에관한것으로, 보다상세하게는구조물절연막을이용한보이드패턴의형성후, 희생층을증착함으로써, CMOS 호환성있는공정에의해종래와같은하부전극의박리현상이전혀발생되지않으며, 스핀온 절연막(SOD) 또는스핀온 글래스(SOG)를통한스핀증착에따라하부패턴에영향을받지않으면서평탄화가가능하며, 비아홀의형성시, 클리닝(cleaning) 공정을더 수행하여후속증착공정에서의오염을원천적으로방지할수 있는멤스디바이스제조방법및 이에의해제조되는멤스디바이스에관한것이다.

    Abstract translation: 本发明涉及一种制造MEMS器件的方法和由此制造的MEMS器件,并且更具体地涉及一种通过使用结构绝缘膜在形成空隙图案之后沉积牺牲层来制造MEMS器件的方法, 根据通过旋涂绝缘膜(SOD)或旋涂玻璃(SOG)的旋转沉积,可以在不受下层图案影响的情况下进行平坦碳化,在形成通孔时, 本发明涉及一种制造MEMS器件的方法和由此制造的MEMS器件。

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