• 专利附录
  • 专利说明
  • 权利要求
  • 类似技术
  • 同族专利
  • 引用文献
  • 法律状态
  • 优先权
    • 专利摘要:
    An electrodeless apparatus for determining a function of the electrical charge condition in a flowable liquid media containing electrical charge influencing species comprising a tubular flow path member, said flow path member having electrically insulating walls, an open end and a closed end, said flow path being so disposed that it may be substantially filled with said liquid, a reciprocating member whose outer wall is electrically insulating disposed within said flow path member, said reciprocating member having a transverse cross-sectional configuration such that said reciprocating member fits adjacent but spaced from said electrically insulating walls of said flow path member, means for admitting predetermined amounts of flowable material to said flow path member, sensory means disposed on the non-wetted side of said flow path member for developing a signal proportional to a desired ion activity by electrostatic or inductive coupling, and means coupled to said sensory means for amplifying any electrical signal induced across said sensory means.
    公开号:SU1736349A3
    申请号:SU884356849
    申请日:1988-10-06
    公开日:1992-05-23
    发明作者:Мур Зек
    申请人:Зета Мэнэджмент Лтд (Фирма)；
    IPC主号:
    专利说明:

    The invention relates to measuring the effects of the phenomenon of an electrical double layer in heterogeneous electrochemical equilibrium states, namely to an electrodeless device that can be used to obtain quantitative information about the influence of the electrical double layer in heterogeneous electrochemical systems, in an outflow potential system and / or in the current flow system.
    A device is known for continuously measuring the electrical charge density of absorbed material from a stream of a treated medium.
    However, working with this device is difficult and requires special trained personnel.
    A device for determining the state of an electrical charge in a fluid two-phase liquid medium is known, which contains a sensor cell installed on the process tank with an electrical signal processing unit.
    However, this device does not effectively determine the state of electric charge, does not completely destroy all potential galvanic interference and does not provide reliable
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    protection against the corrosive action of reactive chemicals
    The purpose of the invention is to increase the efficiency of the determination.
    The drawing shows a device for determining the electric charge.
    The device for determining the state of electric charge contains installed on the process tank, for example, pipe 1, cell 2 for analysis and a sensor with an electric signal processing unit 3. Cell 2 is made in the form of a dielectric 4 connected to the pipeline 1 with an open end, the second end5 of which is made deaf. A continuous rod 6 of a dielectric is mounted in the cylinder 4 with a gap to its inner walls, which passes through the open end of the cylinder and is fixed on the cam 7 with the possibility of reciprocating along the axis of the cylinder 4. On the outer side of the cylinder there is an electrostatic or an inductive sensor part 8 for picking up an electrical signal. The cylinder 4 is surrounded by a Farad cage 9. If necessary, the rod 6 is supplied with guides (not shown). The electrostatic or inductive part 8 of the sensor is connected by wires 10 and 11c by block 3, which, in turn, is connected by an electrically conductive line 12 to a cam 7 of the electric motor. All stationary elements of the cell are stabilized by an inert supporting medium 13 made of a material with low conductivity and dielectric properties. Unit 3 preferably contains an amplifier, a synchronous demodulator or a detector and a voltage-to-current converter for sending a signal to a display (not shown). The composition of the piston, cylinder and medium 13 preferably consists of either one or a composition of the following materials: polyhalogenated polymers and copolymers, polyseudohalogenated polymers and copolymers, polyurethanes, silica, oxides and hydroxides of silica, silicates, nitrides, carbides, borates and borides, metal oxides and hydrates, resins, including vinyl ester resins, polymeric hydrocarbons.
    The device works as follows.
    The rod 6 performs a reciprocating movement using a cam 7 triggered from an electric motor. Preferably, the rod 6 reciprocates at a low speed, for example, at speed
    about four cycles per second. Fluid enters the hole at the upper end of cylinder 4 as the rod moves upward and is displaced as the rod moves downward. The entire volume of fluid is contained in pipeline 1 and cylinder 4. Thus, a permanently controlled fluid two-phase medium, which usually consists of heterogeneous non-conductive solid particles suspended in an electrolyte solution, is introduced through an annular opening between the rod and the open end of the cylinder 4 At each stroke of the rod, a new fluid sample is taken from the flowing or flowing stream. The movement of the rod and the geometry of the annular space are precisely controlled so as to regulate the pressure drop through the annular space of the measuring cell between the rod and the walls of cylinder 4. The mechanical forces generated by the rod force the moving liquid phase (containing the same counter-ions) to pass through the stationary solid phase,
    consisting of absorbed suspended solids of opposite polarity of charge on the wetted surface of the walls of the cylinder 4.
    With each stroke of the rod 6 movable
    counterions (oppositely charged ions) are alternately grouped at opposite ends of the annular space of the measuring cell. The total charge
    appearance with mechanically displaced solution ions is of sufficient size to form a measurable electric force field between the opposite ends of the measuring cell. The conductors of the electrostatic part of the sensor are located in the field of the induced force, but are isolated by the fluid of the cylinder 4. An electromotive force is formed between the conductors, which is proportional to
    the magnitude of the accumulated mechanically displaced charge and has enough energy to facilitate the formation of the measured signal. One can be located in the mentioned force field.
    or more conductors.
    When a part of the sensor is executed to remove the inductive signal after physical displacement, as a result of the action of the rod 6 of mobile counterions, the motion of identical charges is determined in the form of electric current. In this case, in the immediate vicinity of cylinder 4, a correctly oriented and correctly positioned electromagnetic coil containing many turns is installed. Unit 6 processes the signals formed in the external coil, which, ultimately, converts them into a response signal proportional to the charge and velocity of the moving ion in the annular space of the measuring cell.
    The expiration potential and the expiration current are electrical parameters and are also a function of the electric charge on non-conductive particles in a liquid medium. The current and outflow potential are proportional to this state of electrical charge and alternate with the same frequency with which the reciprocating movement of the rod 6 changes.
    Unit 3 processes the electrical AC signals in such a way that they eventually become direct current signals, which are a function of the states of electrical charge in a liquid medium.
    权利要求:
    Claims (1)
    [1]
    Apparatus of the Invention A device for determining the state of electric charge in a fluid two-phase liquid medium containing an analysis cell installed on the process tank, a sensor with an electrical signal processing unit, characterized in that, in order to increase the efficiency, the cell for analysis is made in the form of an open end to the technological capacity of the cylinder of a dielectric, the second end of which is made deaf, in the cylinder with a gap to its inner walls, a continuous rod is installed of the dielectric, which extends through the open end of the cylinder and fastened with the possibility of reciprocating movement along the cylinder axis, to the outer side of the cylinder is connected to a signal processing unit of the electric or electrostatic inductive sensor portion for removing the electrical signal.
    five
    four
    类似技术:
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    同族专利:
    公开号 | 公开日
    KR890007071A|1989-06-17|
    EP0311092A3|1990-08-01|
    EP0311092A2|1989-04-12|
    US4820990A|1989-04-11|
    JPH01187446A|1989-07-26|
    CA1298350C|1992-03-31|
    KR910002655B1|1991-04-27|
    引用文献:
    公开号 | 申请日 | 公开日 | 申请人 | 专利标题
    DE229928C|
    US2297640A|1940-01-17|1942-09-29|Colt S Mfg Co|Breech mechanism for automatic firearms|
    GB831692A|1956-11-15|1960-03-30|Wayne Kerr Lab Ltd|Improvements in or relating to the measurement of the electrical conductance of liquids|
    GB894264A|1960-03-01|1962-04-18|Wayne Kerr Lab Ltd|Improvements in or relating to apparatus for measuring electrical resistances of high magnitude|
    US3368145A|1966-03-04|1968-02-06|Dow Chemical Co|Apparatus for measuring charge condition within a solution|
    US4220921A|1979-01-15|1980-09-02|Hach Chemical Company|Conductivity probe for viscous liquids|
    US4220920A|1979-03-28|1980-09-02|The Foxboro Company|Electrodeless conductivity measuring system|
    US4297640A|1980-02-11|1981-10-27|The Dow Chemical Company|Apparatus for measuring the electric charge condition of non-conductive particles in a mildly conductive electrolyte|
    US4446435A|1982-05-06|1984-05-01|Process Development, Inc.|Ultrasonic streaming current detector|
    US4449101A|1982-05-06|1984-05-15|Process Development, Inc.|Jet wash for ultrasonic streaming current detector|
    JPH02502399A|1987-02-17|1990-08-02|DE3909851C2|1989-03-25|1991-12-19|Erwin 7815 Kirchzarten De Halstrup|
    US4961147A|1989-09-28|1990-10-02|Moore Zack J|Apparatus for measuring the electric charge condition of non-conductive particles in a liquid medium|
    US5129267A|1990-03-01|1992-07-14|Southwest Research Institute|Flow line sampler|
    US5156298A|1991-04-11|1992-10-20|Eastman Kodak Company|Method and apparatus for detecting a limit of the usable portion of a batch of fluent material flowing in a conduit|
    US5450005A|1993-07-21|1995-09-12|Peterson, Jr.; Thomas F.|Net charge measurement of dielectrics in ground potential equilibrium, as a function of time and temperature|
    EP0801731A4|1994-09-22|1998-12-16|Southwest Res Inst|Sampling and measuring device with calibrating piston|
    FR2733045B1|1995-04-11|1997-05-23|Ngo Trong Truc|METHOD AND DEVICE FOR MEASURING A PARAMETER OF STATE OF A QUANTITY OF ACCUMULATED IONIZED FLUID|
    US5707523A|1995-04-28|1998-01-13|Temple; Stephen R.|Dynamic vertical solids separator|
    EP0855590B1|1995-10-25|2003-02-19|Shionogi & Co., Ltd.|Particle measuring device for granule processing apparatus and particle measuring method|
    WO1998003863A1|1996-07-23|1998-01-29|Trong Truc Ngo|Method and device for measuring a state parameter of an amount of accumulated ionised fluid|
    US5945831A|1997-06-10|1999-08-31|Sargent; John S.|Volume charge density measuring system|
    US6107803A|1997-10-31|2000-08-22|Wang; Junli|Streaming current sensor|
    US7071684B2|2003-07-25|2006-07-04|Red Ko Volodymyr|Method of non-contact measuring electrical conductivity of electrolytes with using primary measuring transformer|
    US6995563B2|2004-02-17|2006-02-07|Invensys Systems, Inc.|Nonmetallic process connection|
    KR100677254B1|2004-09-25|2007-02-02|엘지전자 주식회사|Middle output plasma lighting system|
    WO2008089302A1|2007-01-17|2008-07-24|United States Of America As Represented By The Administrator Of The National Aeronautics And Space Administration|Wireless sensing system for non-invasive monitoring of attributes of contents in a container|
    US7845688B2|2007-04-04|2010-12-07|Savant Measurement Corporation|Multiple material piping component|
    CN108147512B|2017-12-13|2020-01-31|宁波清智环保科技有限公司|Sewage treatment system|
    法律状态:
    优先权:
    申请号 | 申请日 | 专利标题
    US07/107,290|US4820990A|1987-10-09|1987-10-09|Electrode-less detector|
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