Liquid dosing apparatus
    52.
    发明授权

    公开(公告)号:US10239671B2

    公开(公告)日:2019-03-26

    申请号:US13864299

    申请日:2013-04-17

    Abstract: An apparatus and means of repeatedly dispensing controlled doses of liquid comprising a resiliently squeezable container for containing a liquid detergent composition; a cap operably connected to said container, the cap comprising a nozzle for expelling the liquid out of the container; a dosing chamber operably connected to the cap, wherein the dosing chamber comprises a base having a discharge opening therein, sidewalls extending upwardly along the perimeter of said base and at least one inlet opening located proximal the sidewalls; at least one timer aperture located proximal to the discharge opening; a plunger, provided in the dosing chamber and moveable relative to the chamber so as to advance upon squeezing of the container, up to a blocking position; a valve retaining means located below the base; a valve provided in the valve retaining mean wherein the valve is movable from an open position, allowing liquid flow through the discharge opening, and a closed position, where the valve blocks the discharge opening; wherein the liquid is a shear thinning liquid and the shear thinning liquid has a viscosity of greater than 150 mPa·s measured at 10s−1 at 20° C.

    Flow distribution measurement of a liquid spray stream

    公开(公告)号:US10233886B2

    公开(公告)日:2019-03-19

    申请号:US15028091

    申请日:2014-09-04

    Inventor: Marco Maragliulo

    Abstract: A measurement device for measuring a flow distribution of a liquid spray stream which has been atomized by a nozzle may comprise: a sensing wire; at least one further sensing wire; an electric power supply; a measurement unit; and a second grid of parallel sensing wires. The sensing wires may be positioned within a spray volume of the liquid spray stream and arranged in parallel with respect to each other to form grids of parallel sensing wires. The electric power supply unit may supply an electric current to the sensing wires. The measurement unit may measure an ohmic resistance change of the sensing wires. The first axis defined by the parallel sensing wires of the first grid and a second axis defined by the parallel additional sensing wires of the second grid may enclose a slanted angle.

    Drop and drip measurement
    54.
    发明授权

    公开(公告)号:US10094694B2

    公开(公告)日:2018-10-09

    申请号:US14951256

    申请日:2015-11-24

    Abstract: According to some embodiments of the present invention there are provided a method for calculating a volume of an individual falling drop of liquid by analyzing electromagnetic radiation (EMR) reception, the method comprising projecting electromagnetic radiation (EMR) from an EMR source, measuring the EMR using at least one EMR sensor when the EMR is partially interfered with by a drop falling between the EMR source and the EMR sensor, calculating a plurality of widths parallel to a vertical axis of the drop, each one of the plurality of widths is calculated according to a reception of a time correlated measured portion of the EMR, and calculating a volume of the drop by combining the plurality of widths and a velocity of the drop when the drop is falling between the EMR source and the EMR sensor.

    Apparatus for determining a value that represents the amount of a liquid and its use

    公开(公告)号:US10012626B2

    公开(公告)日:2018-07-03

    申请号:US14968963

    申请日:2015-12-15

    Inventor: Ralf Bernhard

    Abstract: An apparatus for determining a value that represents an amount of liquid in a vessel, wherein the vessel is configured to be a tube or a cuvette. The vessel for the liquid is basically transparent, with at least one radiation unit, that is arranged alongside the longitudinal axis of the vessel and that radiates light into the vessel, as well as at least one light detector with at least one light receiver that is assigned to the radiation unit and that receives the light that is coming through the vessel and forwards it to the light detector. The apparatus comprises a data processing unit that determines the value that represents the amount of the liquid in the vessel from the light that was detected by the light detector. The apparatus is characterized in that the light detector detects the sum total of the light that was radiated through the vessel and was received by all light receivers. Furthermore, the invention relates to the use of the apparatus in an analyzer.

    TEMPORAL BASED MEASUREMENT SYSTEM PROVIDING REAL TIME TRACKING

    公开(公告)号:US20180100751A1

    公开(公告)日:2018-04-12

    申请号:US15713599

    申请日:2017-09-22

    Abstract: A measurement system for providing real-time tracking. The measurement system includes a system tracking measurement unit, a system tracking processing unit, and a user interface device for receiving data corresponding to one or more system conditions over an electronic communications channel, the user interface device including a display. The system tracking measurement unit calculates temporal flow data when the orientation of one or more objects corresponds to an event trigger value and transmits the data to the system tracking processing unit. The system tracking processing unit determines one or more tracking parameters based on the temporal flow data. In addition, the system tracking processing unit determines one or more system conditions based on the one or more tracking parameters. The system tracking processing unit transmits data corresponding to the system conditions for display on a user interface device.

    METHOD OF INSPECTING GAS SUPPLY SYSTEM, METHOD OF CALIBRATING FLOW CONTROLLER, AND METHOD OF CALIBRATING SECONDARY REFERENCE DEVICE

    公开(公告)号:US20180073911A1

    公开(公告)日:2018-03-15

    申请号:US15702824

    申请日:2017-09-13

    Abstract: A method according to an aspect includes a first step of connecting a reference device to the other end of a connecting pipe, a second step of supplying a gas from one flow controller into piping, a third step of acquiring measured values of a first pressure gauge and a first thermometer, a fourth step of supplying a portion of the gas in piping into a tank, a fifth step of acquiring measured values of the first pressure gauge and the first thermometer or measured values of a second pressure gauge and a second thermometer, and a sixth step of using a Boyle-Charles' law to calculate a volume of the piping on the basis of the measured values acquired in the third step, the measured values acquired in the fifth step, and a volume of a closed space including a space in the tank when the third valve is closed.

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