Ink flow velocity detector
    22.
    发明公开
    Ink flow velocity detector 有权
    Tintenstrahldrucker mittintenflussgeschwindigkeitsmessgerät

    公开(公告)号:EP2075552A2

    公开(公告)日:2009-07-01

    申请号:EP08022323.3

    申请日:2008-12-22

    Inventor: Sugahara, Hiroto

    CPC classification number: G01F1/28 B41J2/175 G01L1/044 G01L1/24 G01L1/26

    Abstract: A flow velocity detector for detecting a flow velocity of a fluid flowing through a flow passage is provided, the flow velocity detector including a flow passage-forming section which defines the flow passage; a stress light-emitting section which is arranged at the flow passage-forming section to receive a stress having a magnitude depending on the flow velocity of the fluid and which emits a light of which amount corresponds to a change of the received stress; and a light-receiving sensor which receives the light emitted by the stress light-emitting section. The flow velocity of the fluid is detected based on an amount of the light received by the light-receiving sensor to generate a detection signal. Accordingly, the structure is simple and small-sized, and the flow velocity of the fluid can be detected at low cost.

    Abstract translation: 提供了一种用于检测流过流路的流体的流速的流速检测器,所述流速检测器包括限定所述流路的流路形成部; 应力发光部,其布置在所述流路形成部处,以接收具有取决于流体的流速的大小的应力,并且发射与所述接收应力的变化相对应的光量的光; 以及光接收传感器,其接收由应力发光部发出的光。 基于由光接收传感器接收的光量来检测流体的流速,以产生检测信号。 因此,结构简单,体积小,可以低成本地检测流体的流速。

    LOAD SENSOR AND MANUFACTURING METHOD OF THE SAME
    23.
    发明公开
    LOAD SENSOR AND MANUFACTURING METHOD OF THE SAME 审中-公开
    LASTSENSOR UND HERSTELLUNGSVERFAHRENDAFÜR

    公开(公告)号:EP1788371A1

    公开(公告)日:2007-05-23

    申请号:EP05760115.5

    申请日:2005-07-14

    CPC classification number: G01L1/044 G01L1/2206 Y10T29/49103

    Abstract: An object of the present invention is to provide a low cost load sensor while securing compact dimensions, high reliability and quality, and also to provide a manufacturing method of the load sensor. To this end, there is provided a load sensor provided with a thin-plate-like sensor plate 5 and plural strain gauges 21a to 22d attached to the sensor plate 5, wherein both ends of the sensor plate 5 in one axis direction thereof serve as fixing parts for fixing the sensor plate 5 to an arbitrary object, while the center point C of the sensor plate 5 serves as a transmission part for transmitting a displacement or a load to the sensor plate 5, wherein the strain gauges 21a to 22d are arranged in positions which are point symmetrical with respect to the center point C, and gauge pairs are constituted by making pairs of the strain gauges 21a to 22d which are arranged in point symmetrical positions electrically connected in parallel or in series with each other, and wherein the respective gauge pairs are electrically connected in series with each other to constitute a bridge circuit with the strain gauges 21a to 22d.

    Abstract translation: 本发明的目的是提供一种低成本的负载传感器,同时确保紧凑的尺寸,高可靠性和高质量,并且还提供负载传感器的制造方法。 为此,设置有安装有传感器板5的薄板状传感器板5和多个应变计21a〜22d的负载传感器,传感器板5的一个轴方向的两端作为 传感器板5的中心点C用作将传感器板5的位移或载荷传递到传感器板5的传递部分,其中应变仪21a至22d布置在传感器板5中, 在相对于中心点C点对称的位置中,并且量规对通过使彼此并联或串联连接的点对称位置配置的一对应变计21a〜22d构成,其中, 相应的量规对彼此串联电连接以构成具有应变计21a至22d的桥接电路。

    OPTISCHE VORRICHTUNG ZUM MESSEN DES DRUCKES ODER DER KRAFT
    24.
    发明公开
    OPTISCHE VORRICHTUNG ZUM MESSEN DES DRUCKES ODER DER KRAFT 有权
    光学装置用于测量压力或力

    公开(公告)号:EP1417466A1

    公开(公告)日:2004-05-12

    申请号:EP02754492.3

    申请日:2002-08-02

    CPC classification number: G01L23/16 G01L1/044 G01L9/0077 G01L11/02

    Abstract: The invention relates to optical devices for measuring pressure or force, comprising an electromagnetic radiation source, and a pressure membrane or a spiral spring which has a surface that at least partially reflects the electromagnetic rays of the electromagnetic radiation source. The inventive devices are especially characterized in that they allow, inter alia, measurement of even the slightest pressure changes of fluids and other flowable materials in the stationary and/or flowing state or even the slightest mechanical deformations on spiral springs. In order to do this, the rays of an electromagnetic radiation source are incident on the at least partially reflective surface of the pressure membrane or spiral spring. At least one section of a stationarily located body or of a stationarily located body having a reflective layer is disposed in the path of the reflected rays, upstream of a photodetector for said rays, and projects into said rays. A mechanical modification causes the reflected rays to be absorbed, diffracted, reflected again and/or split to a higher or lesser extent by the body.

    MAGNETIC NANOCOMPOSITE SENSOR
    25.
    发明申请
    MAGNETIC NANOCOMPOSITE SENSOR 审中-公开
    磁性纳米复合传感器

    公开(公告)号:WO2016067197A1

    公开(公告)日:2016-05-06

    申请号:PCT/IB2015/058274

    申请日:2015-10-27

    Abstract: A magnetic nanocomposite device is described herein for a wide range of sensing applications. The device utilizes the permanent magnetic behavior of the nanowires to allow operation without the application of an additional magnetic field to magnetize the nanowires, which simplifies miniaturization and integration into microsystems. In5 addition, the nanocomposite benefits from the high elasticity and easy patterning of the polymer-based material, leading to a corrosion-resistant, flexible material that can be used to realize extreme sensitivity. In combination with magnetic sensor elements patterned underneath the nanocomposite, the nanocomposite device realizes highly sensitive and power efficient flexible artificial cilia sensors for flow measurement or tactile sensing.

    Abstract translation: 本文描述了用于各种感测应用的磁性纳米复合器件。 该器件利用纳米线的永久磁性行为允许操作而不施加附加的磁场来磁化纳米线,这简化了微型系统的集成和微型化。 此外,纳米复合材料受益于聚合物基材料的高弹性和易于图案化,导致可用于实现极高灵敏度的耐腐蚀的柔性材料。 结合在纳米复合材料下图案化的磁性传感器元件,纳米复合器件实现了高灵敏度和功率效率的柔性人造纤维传感器,用于流量测量或触觉感测。

    PRINTED CIRCUIT BOARD WITH AN ELASTICALLY DEFORMABLE FORMED SENSOR REGION
    26.
    发明申请
    PRINTED CIRCUIT BOARD WITH AN ELASTICALLY DEFORMABLE FORMED SENSOR REGION 审中-公开
    具有灵活的可变形受过训练的传感器面积电路板

    公开(公告)号:WO2010105800A8

    公开(公告)日:2011-05-05

    申请号:PCT/EP2010001647

    申请日:2010-03-16

    Abstract: The invention relates at first to a printed circuit board (5; 5'), having a delimited and, compared to the rest of the printed circuit board (5; 5'), an elastically deformable formed sensor region (6; 6'), which is exposed to a variable to be measured, and having a circuit disposed at least partially on the printed circuit board (5; 5') for measuring the degree and/or the direction of the deformation of the sensor region (6; 6') with the help of electrical variables, wherein in the sensor region (6; 6') a resistance (9) with a resistance value, which changes upon mechanical deformation, is disposed. A printed circuit board, the body thereof which transmits or applies the bending force does not require any special shaping, e.g. external tappet or the like, is achieved by the sensor region (6; 6') having a ridge (10; 16).

    Abstract translation: 本发明首先涉及到一印刷电路板(5; 5“)具有限定的,并且与所述印刷电路板的其余部分(5; 5”)是可弹性变形的形状的传感器部(6; 6“),其被暴露于被测的量,以及与 “布置在电路用于测量所述传感器区域的变形的程度和/或方向(6; 6通过电气量的装置),其中所述传感器区域;至少部分在所述电路板(5)”(6; 6“)是一个电阻器( 9)被布置成与在所述改变电阻值的机械变形。 一种印刷电路板,其中在该弯曲力被传送或被施加体没有特别的形状,外挺杆或其中需要等被这样实现在传感器部分(6; 6“)的脊(10; 16)

    SENSOR FOR MEASURING A FORCE EXERTED UPON A SURFACE AND MEASURING METHOD THEREFOR
    27.
    发明申请
    SENSOR FOR MEASURING A FORCE EXERTED UPON A SURFACE AND MEASURING METHOD THEREFOR 审中-公开
    用于测量表面功率上的力的传感器及其测量程序

    公开(公告)号:WO2006042615A3

    公开(公告)日:2006-07-13

    申请号:PCT/EP2005010337

    申请日:2005-09-23

    Inventor: BRANDL MANFRED

    CPC classification number: B60N2/002 G01L1/044 G01L1/14

    Abstract: The aim of the invention is to determine a force (EK) exerted upon an elastic surface (OF). According to the invention, a spring (F), which is opposed to the force, exerts a counter force. A spring bar (FS) which is fixed to one end is rigidly connected to the spring or to the surface. In the event of the application of force, the other end produces a relative movement in relation to the sensor element (SE). The sensor element can be embodied in a simple manner as a magnetic coil, wherein the inside thereof displaces the end of the magnetic spring bar and the inductivity of the coil modifies.

    Abstract translation: 为了确定作用在屈服表面(OF)上的力(EK),提供了抵消恢复力的恢复力的悬架(F)。 固定地连接到悬架或者表面是弹簧杆(FS),其一端固定,另一端在力的作用下相对于传感器元件(SE)产生相对运动。 传感器元件可以以简单的方式形成为电磁线圈,其内部磁性弹簧杆的端部移动并由此改变线圈的电感。

    ULTRANANOCRYSTALLINE DIAMOND CANTILEVER WIDE DYNAMIC RANGE ACCELERATION/VIBRATION/PRESSURE SENSOR
    29.
    发明申请
    ULTRANANOCRYSTALLINE DIAMOND CANTILEVER WIDE DYNAMIC RANGE ACCELERATION/VIBRATION/PRESSURE SENSOR 审中-公开
    超声波金刚石锥体宽动态范围加速/振动/压力传感器

    公开(公告)号:WO0177694A9

    公开(公告)日:2002-12-27

    申请号:PCT/US0111460

    申请日:2001-04-05

    Abstract: An ultrananocrystalline diamond (UNCD) element formed in a cantilever configuration is used in a highly sensitive, ultra-small sensor for measuring acceleration, shock, vibration and static pressure over a wide dynamic range. The cantilever UNCD element (16) may be used in combination with a single anode, with measurements made either optically (20) or by capacitance (34). In another embodiment, the cantilever UNCD element (78) is disposed between two anodes (80, 82), with DC voltages (V1, V2) applied to the two anodes. With a small AC modulated voltage (90) applied to the UNCD cantilever element and because of the symmetry of the applied voltage and the anode-cathode gap distance in the Fowler-Nordheim equation, any change in the anode voltage ratio V1/V2 required to maintain a specified current ratio precisely matches any displacement of the UNCD lever from equilibrium. By measuring changes in the anode voltage ratio required to maintain a specified current ratio, the deflection of the UNCD cantilever element can be precisely determined. By appropriately modulating the voltages applied between the UNCD cantilever and the two anodes, or limit electrodes, precise independent measurements of pressure, uniaxial acceleration, vibration and shock can be made.

    Abstract translation: 在一个高灵敏度的超小型传感器中,采用悬臂结构形成的超微晶金刚石(UNCD)元件用于在宽动态范围内测量加速度,冲击,振动和静压力。 悬臂UNCD元件(16)可以与单个阳极组合使用,光学(20)或电容(34)进行测量。 在另一个实施例中,悬臂UNCD元件(78)设置在两个阳极(80,82)之间,其中DC电压(V1,V2)施加到两个阳极。 利用施加到UNCD悬臂元件的小的AC调制电压(90),并且由于Fowler-Nordheim方程中的施加电压和阳极 - 阴极间隙距离的对称性,所以要求的阳极电压比V1 / V2的任何变化 保持指定的电流比精确地匹配UNCD杠杆的任何位移与平衡。 通过测量维持指定电流比所需的阳极电压比的变化,可以精确地确定UNCD悬臂元件的偏转。 通过适当地调制在UNCD悬臂与两个阳极之间施加的电压或极限电极,可以精确地独立测量压力,单轴加速度,振动和冲击。

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