CN101201278A - System for monitoring curved surface interlaminar extrusion pressure based on array type ultra-thin submissive force sensor - Google Patents
System for monitoring curved surface interlaminar extrusion pressure based on array type ultra-thin submissive force sensor Download PDFInfo
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Abstract
The invention relates to an inter-curved surface layer extrusion pressure monitoring system based on an array-type ultrathin compliant force sensor, and belongs to the technical field of precise measurement. The system comprises an array-type sensor consisting of an array-type ultrathin compliant force sensing probe and a front end circuit; a reference source; a collection module; a computer comprising an interface card and a data processing unit; and a power supply module. The power supply module is connected with the sensor and the collection module. The reference source is connected with the array-type sensing probe through line multi-route electronic simulation switches. The front end circuit is connected between the array-type sensing probe and the collection module. The interface card is connected with the row and line multi-route electronic simulation switches, respectively. The invention has the characteristics of simple structure, high antijamming capability, high accuracy of measurement, and capability of on-line monitoring of data processing in real time. The invention can monitor the extrusion pressure between face layers on line in real time.
Description
Technical field
The invention belongs to the precision measurement technical field, specially refer to the precision measurement apparatus of extruding force between two lth layers, be used for the real time on-line monitoring of commercial production and medical-therapeutic treatment of human body rehabilitation course mean camber interlayer extruding force.
Background technology
Along with the progress of science and technology and the development of production, the shape of some substantial equipment key components and parts becomes and becomes increasingly complex, and more and more higher to its processing and assembling and positioning accuracy requirement, thereby also just high more to measuring requirement.The part of class such as plane and surface of revolution shape is widely used in national defence and the various daily life product, and the processing of these parts, installation, measurement and condition monitoring have often increased difficulty because of the restriction that is subjected to some specific conditions such as space structure size and measured material medium.
The detection of extruding force and monitoring are difficult problems that needs to be resolved hurrily in the scientific research task research between lth layer, its objective is the interlayer extruding force of measuring between two planes or curved surface, are characterized in that the gap between the two sides is very little, as the hundreds of micron; The shape more complicated is as plane or curved surface; The on-line monitoring time was long, as 2 years etc.The extruding force measurement has extremely special meaning for the reliability of installation accuracy, material property and the long preservation of assessment apparatus etc. between lth layer, along with the development of sensing and measuring technique proposes.At present, on-line measurement and the long term monitoring about extruding force between lth layer yet there are no report.
The measurement of extrusion stress has a lot of methods, as foil gauge, piezoelectricity, pressure drag and optical fiber etc.At the actual conditions of extruding force stress measurement, since the space structure of measurand and the restriction of request for utilization, the necessary measuring method that adopts flexible, ultra-thin and dot matrix.Because the gap very little (being generally the hundreds of micron) between installed surface, common method for measuring stress is no longer suitable.
Utilizing the piezoresistive effect of conductive black filled silicon rubber material to carry out the detection of power, is a kind of ultra-thin, flexible detection technique, is highly suitable under the situation of little bulk and complicated shape to use.Carbon black filled silicon rubber belongs to the filled type polymer composite, people just studied its characteristic from the 60 to 70's of last century, mainly concentrate on the research of mechanical property enhancing, conduction, thermal conduction characteristic, and on thermoswitch, obtained application.
At present, the report of using conductive rubber sensor array test contact stress has been arranged abroad, measured but main application fields is the tactile sensing device of robot, and concentrate in the perception that stressed distribution is a body form.Finger is gone up the detection of stressed distribution when adopting compliant conductive rubber sensor array to robot gripping's object as the electronic communication university (University of Electro-Communication) of Japan, and detection system comprises that mainly sensor array, modules such as excitation sweep circuit, signal condition and Acquisition Circuit and data processing and demonstration form.Its measuring principle is constantly to encourage corresponding sensing unit by line scanning and extract pressure signal (a kind of touch sensor A Tactile SensorSheet Using Pressure Conductive Rubber With Electrical-Wires Stitched Method that makes the lead-in wire electrode that adopts based on conductive rubber, IEEE sensor periodical the 4th volume the 5th phase ENSORS JOURNAL October in 2004, VOL.4, NO.5, OCTOBER 2004).The zero potential scan method has been adopted in this application, and every row are respectively with an A/D sampling; Adopted and made the gold plated lead electrode; Sensor is connected on the input end of amplifier.On the whole, this system can finish robot finger's stressed distribution tests, also can't finish accurate measurement and cost height, and performance is stable inadequately.
In actual applications extruding force between two lth layers is carried out the problem of real time on-line monitoring, need the distribution of composite measurement extrusion stress on installed surface, therefore, a plurality of sensors are fixed on the installed surface and place between two installed surfaces.So, also need further to improve for finishing the accurate test of extrusion stress between curved surface and detecting reliably and with long-term.
Summary of the invention
The objective of the invention is to be used to solve the problem of extruding force between two lth layers being carried out real time on-line monitoring, proposed a kind of based on extruding force monitoring system between the lth layer of array type ultra-thin submissive force sensor, have simple in structure, antijamming capability is strong, measuring accuracy is high, and can real time on-line monitoring the characteristics of data processing.
It is a kind of based on extruding force monitoring system between the lth layer of array type ultra-thin submissive force sensor that the present invention proposes, it is characterized in that, this system comprises the array-type sensor of being made up of array type ultra-thin submissive force sensing probe and front end circuit, reference source, acquisition module contains the computing machine and the power module of interface card and data processing unit; The annexation of each parts is:
Power module links to each other with acquisition module with sensor, output+5V and ± the 12V power supply provides required voltage for sensor and acquisition module;
Reference source links to each other by column selection multichannel electronic analog swtich and array-type sensor probe, for the array-type sensor spy provides+driving voltage of 2.5V;
Front end circuit is connected between array-type sensor probe and the acquisition module, with the extruding force signal access acquisition module of corresponding ranks point of crossing, conversion back;
This interface card selects the multichannel electronic analog swtich to link to each other with row, column respectively, selects the multichannel electronic analog swtich to finish the row, column scanning of sensor array in order to the control row, column;
Acquisition module connects to be expert at and selects between multichannel electronic analog swtich and the computing machine, the extruding force signal after the conversion is carried out mould/number conversion send into the data processing unit of computing machine and finish data read, measure sequential control and data processing, storage and demonstration.
Characteristics of the present invention and effect:
1, array-type sensor of the present invention adopts flexible printed circuit board technology (FPCB) machined electrode array and solid matter lead-in wire, sensor has advantages such as compliance is good, ultra-thin, range is big, precision is high, radioresistance, and the sensor array coil of ultra-thin complaisant can well be attached on the curved surface; Each road high conformity of sensor array, each sensor sensing element can be arranged arbitrarily, have improved the consistance of each sensitive element of array-type sensor and the temperature stability of sensor.
2, only with a cover sensor signal translation circuit and a modulate circuit,, the sensor array timesharing is inserted the sensor signal sample circuit, realized sampling all the sensors array by analog switch.Not only simplify the structure, improved the antijamming capability of system, and reduced the inconsistency that each road sensor is caused by circuit; Adopt the sample mode of time-sharing multiplex, avoided having improved the precision of sensor because sensor measurement point is many, the interference when the close multiple signals that bring of lead-in wire transmit simultaneously between each sensor signal;
3, system has simplicity of design, and antijamming capability is strong, and the processing of measurement data is waited characteristics accurately and fast, can realize the real time on-line monitoring to extruding force between two lth layers; The uncertainty of monitoring system is respectively 0.5% (not containing sensor) and 3% (containing sensor); All the sampling time of measuring point is not more than 1 second; Can show measurement data and result in real time.
Description of drawings
Fig. 1 is a system hardware pie graph of the present invention.
Fig. 2 is the row, column electrode structural chart of sensor array of the present invention.
Fig. 3 is a front end circuit array scanning schematic diagram of the present invention.
Fig. 4 is signal transformation of the present invention and modulate circuit figure.
Fig. 5 is a monitoring of software process flow diagram of the present invention.
Fig. 6 is application mode figure of the present invention.
Embodiment
The present invention proposes reaches embodiment in conjunction with the accompanying drawings based on extruding force monitoring system between the lth layer of array type ultra-thin submissive force sensor and is described in detail as follows:
Composition of the present invention as shown in Figure 1, this system comprises the array-type sensor of being made up of array type ultra-thin submissive force sensing probe and front end circuit, reference source, acquisition module contains the computing machine and the power module of interface card and data processing unit; Each functions of components and annexation are:
Power module links to each other with acquisition module with sensor, output+5V and ± the 12V power supply provides required voltage for sensor and acquisition module;
Reference source links to each other by column selection multichannel electronic analog swtich and array-type sensor probe, for the array-type sensor spy provides+driving voltage of 2.5V;
Front end circuit is connected between array-type sensor probe and the acquisition module, with the extruding force signal access acquisition module of corresponding ranks point of crossing, conversion back;
This interface card selects the multichannel electronic analog swtich to link to each other with row, column respectively, selects the multichannel electronic analog swtich to finish the row, column scanning of sensor array in order to the control row, column;
Acquisition module connects to be expert at and selects between multichannel electronic analog swtich and the computing machine, the extruding force signal after the conversion is carried out mould/number conversion send into the data processing unit of computing machine and finish data read, measure sequential control and data processing, storage and demonstration.
Each parts of the present invention and embodiment are respectively described below:
Array type ultra-thin submissive force sensing probe of the present invention mainly by adopt with the conductive black powder as conductive phase, with silicon rubber as the conductive polymer composite of insulation phase composition as sensitive membrane; The row, column electrode strip that utilizes flexible printed circuit board technology to make respectively on film substrate reaches the solid matter cable of the signal lead composition that links to each other with each electrode strip and forms, this sensitive membrane hot pressing is between the row, column electrode strip, sensitive membrane constitutes a sensing unit with the position, a point of crossing of the row-column electrode bar that intersects, all the sensitive membrane of electrode crossings and this position is formed M * N array-type sensor, and wherein M, N are positive integer and M 〉=N.
The present embodiment structure as shown in Figure 2, row electrode strip 21 and column electrode bar 22 are produced in the up and down double-layer films substrate, also have corresponding row contact conductor cable 23, column electrode lead cable 24 and pigtail splice 25,26 separately on film substrate.Between the row, column electrode strip, sensitive membrane constitutes a sensing unit with the position, a point of crossing of the row-column electrode bar that intersects with sensitive membrane hot pressing, and all the sensitive membrane of electrode crossings and this position is formed 3 * 3 array-type sensors.
The sensor gross thickness of present embodiment is 130 μ m, and lead portion length is 110mm, and 3 * 3 sensing units distribute on the area of 35mm * 40mm.Adopting same process can prepare area is 400 * 700mm
2Array type ultra-thin submissive force sensor.
Front end circuit of the present invention comprises that a M road row selects electronic analog swtich and a N road column selection electronic analog swtich, and conversion and modulate circuit adopt by M * N preposition resistance, M * N sensing unit and M the resistive feedback circuit that operational amplifier is formed; The annexation of each components and parts of this circuit is: each sensing unit forms feedback resistance by output terminal and the negative input that signal wire is connected across operational amplifier; The negative input of each preposition resistance one termination operational amplifier, the other end connects reference voltage Vref by the column selection switch; The output signal Vout that the output terminal of operational amplifier selects switch output to be directly proportional with extruding force by row, positive input ground connection.
Front end circuit embodiment of the present invention is described as follows as shown in Figure 3 and Figure 4:
The front end circuit of present embodiment comprises that mainly column selection multichannel electronic analog swtich Kc and row select multichannel electronic analog swtich Kr, the resistive degeneration circuit unit array that conversion and modulate circuit adopt resistance R _ f 11～Rf33 and the operational amplifier A 1～A3 by preposition resistance R d11～Rd33, sensing unit to form; The annexation of each parts is (is example with first sensing unit): output terminal and negative input that sensing unit Rf11 is connected across operational amplifier A 1 form feedback resistance; The negative input of preposition resistance R d11 one termination operational amplifier A 1, the other end connects reference voltage Vref by column selection K switch c1; The output signal Vout that the output terminal of operational amplifier A 1 selects K switch r1 output to be directly proportional with extruding force by row, positive input ground connection.The connection of other sensing unit is with identical therewith.
The resistive degeneration circuit unit of present embodiment, as shown in Figure 4.This circuit is made up of the resistance R _ f of an amplifier (LM324), a preposition resistance R d and a sensing unit.Amplifier is the core parts of circuit, the enlargement factor of resistance R d and sensing unit resistance R _ f decision amplifier, and output Vout=(Rf/Rd) the * 2.5V of operational amplifier is directly proportional with the resistance of sensing unit.
The principle of work of this front end circuit is: Rf11～Rf33 is the single sensing unit in the sensor probe, and negative feedback end and output terminal that two end electrodes is connected on amplifier respectively form feedback resistance.Control circuit inserts each row by each row of column address signal polling respectively with reference voltage Vref, respectively exercise multiway analog switch each row of gating respectively by the row address polling simultaneously, guaranteed the output signal of each sensing unit of time sharing sampling like this, and do not crosstalked mutually between each unit.
Front end circuit of the present invention improves on the basis of traditional " voltage mirror method ", is used for the ultra-thin complaisant sensor probe based on conducting polymer composite.Because the surface resistivity of conducting polymer composite is 1.51 * 10
5Surface resistance between Ω mm, two adjacent sensitive elements reaches 1.2 * 10
6So Ω is the quick rubber surface transmission current of obstructed substantially exertin between adjacent sensing unit.Address signal control multichannel electronic analog swtich Kc makes selected row insert reference voltage Vref, and each row of sensor array all insert corresponding operational amplifier and form negative feedback.Wherein, the operational amplifier positive input terminal inserts reference voltage ground, and the negative feedback output of selected row forms the row signal and selects the multichannel electronic analog swtich to insert the voltage input end mouth of A/D converter by row.In A/D converter, high reference voltage level is+5V (certain limit is adjustable) that low reference voltage level is 0V.Like this, except selected sensing unit, all the other each ranks form equipotentials in the array resistors network, make with selected sensing unit parallel resistor network and can't form interference current.
Adopt this circuit, original n * n electronic switch passage can be reduced to n+n electronic switch passage (n is the row, column number), and realize linear output.
The sensor of present embodiment adopts solid matter cable extension line with being connected of front end circuit, and shank adopts flat connector.
Voltage reference module of the present invention for signal transformation and modulate circuit provide+2.5V is with reference to input, adopts the miniwatt reference source chip REF03 of AD company, input voltage is+5V that output voltage is+2.5V.
Data acquisition module of the present invention mainly comprises emitter follower of being made up of LM324 (voltage buffering) and the A/D translation circuit of being made up of ADC0820.The reference voltage of ADC0820 is designed to outside adjustable, with convenient resolution and the measuring accuracy that improves system under special circumstances.The collection sequential of ADC0820 is controlled by interface circuit by acquisition module and data processing unit.
The computing machine of present embodiment mainly comprises a PC, an ISA data interface card (Kr841 type) and be arranged on WindowsXP operating system in the PC, and the collection of signal and data processing module.
The overall procedure of the collection of computing machine and the realization of data processing module as shown in Figure 5, after program brings into operation, initialization information at first is set, comprises the parameters such as calibration coefficient of measuring date, time, temperature, humidity, sampling interval, measurement passage, measuring duration, each sensing unit; Then send channel address message loop scanning sensor array from low to high by the timed events driving of software, and realize the array output signal sampling by send sampling pulse triggering collection data to acquisition module according to the sampling interval of setting; Sample and calculate the extrusion stress value of current location according to nominal data immediately behind each channel signal and graphically show; When finishing, each passage scan cycle constantly judges whether to finish to gather according to the sampling time computation cycles control variable that is provided with, shut down procedure, if do not satisfy stop condition then continue the scanning array circle collection, otherwise, storage of measurement data and graphical final monitoring result, the end process of measurement of showing.The Virtual Instrument Development instrument Labwindows/CVI that said procedure adopts NI company to release is worked out with conventional method by the programming personnel as development platform.
Application mode of the present invention as shown in Figure 6.During real work, sensor 62 is attached to curved surface (comprising the plane) interlayer loading section 61 bottoms, contact with bearing part 64 by organic foam material 63, extruding force is changed being converted to resistance variations by sensitive element, and be connected with front end circuit by solid matter cable 65.Then, in front end circuit, the resistance variations signal of sensing unit is converted into voltage change signal, enters multiway analog switch, carry out analog to digital conversion, be converted to digital signal.At last, by shielded multiconductor cable, digital data transmission to computer data acquiring and processing unit, is corresponded to the extruding force value by calibration curve and monitoring algorithm with digital signal, and is presented on the monitoring terminal in real time.
Claims (3)
1. one kind based on extruding force monitoring system between the lth layer of array type ultra-thin submissive force sensor, it is characterized in that, this system comprises the array-type sensor of being made up of array type ultra-thin submissive force sensing probe and front end circuit, reference source, acquisition module contains the computing machine and the power module of interface card and data processing unit; The annexation of each parts is:
Power module links to each other with acquisition module with sensor, output+5V and ± the 12V power supply provides required voltage for sensor and acquisition module;
Reference source links to each other by column selection multichannel electronic analog swtich and array-type sensor probe, for the array-type sensor spy provides+driving voltage of 2.5V;
Front end circuit is connected between array-type sensor probe and the acquisition module, with the extruding force signal access acquisition module of corresponding ranks point of crossing, conversion back;
This interface card selects the multichannel electronic analog swtich to link to each other with row, column respectively, selects the multichannel electronic analog swtich to finish the row, column scanning of sensor array in order to the control row, column;
Acquisition module connects to be expert at and selects between multichannel electronic analog swtich and the computing machine, the extruding force signal after the conversion is carried out mould/number conversion send into the data processing unit of computing machine and finish data read, measure sequential control and data processing, storage and demonstration.
2. the system as claimed in claim 1 is characterized in that, described sensing probe mainly by adopt with the conductive black powder as conductive phase, with silicon rubber as the conductive polymer composite of insulation phase composition as sensitive membrane; The row, column electrode strip that utilizes flexible printed circuit board technology to make respectively on film substrate reaches the solid matter cable of the signal lead composition that links to each other with each electrode strip and forms, described sensitive membrane hot pressing is between the row, column electrode strip, sensitive membrane constitutes a sensing unit with the position, a point of crossing of the row-column electrode bar that intersects, all the sensitive membrane of electrode crossings and this position is formed M * N array-type sensor, and wherein M, N are positive integer and M 〉=N.
3. extruding force monitoring system between lth layer as claimed in claim 1, it is characterized in that, said front end circuit comprises that a M road row selects electronic analog swtich and a N road column selection electronic analog swtich, and conversion and modulate circuit adopt by M * N preposition resistance, M * N sensing unit and M the resistive feedback circuit that operational amplifier is formed; The annexation of each components and parts of this circuit is: each sensing unit forms feedback resistance by output terminal and the negative input that signal wire is connected across operational amplifier; The negative input of each preposition resistance one termination operational amplifier, the other end connects reference voltage Vref by the column selection switch; The output signal Vout that the output terminal of operational amplifier selects switch output to be directly proportional with extruding force by row, positive input ground connection.
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| CN200710178420A CN100585353C (en) | 2007-11-30 | 2007-11-30 | System for monitoring curved surface interlaminar extrusion pressure based on array type ultra-thin submissive force sensor |
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| CN102706419A (en) * | 2011-12-27 | 2012-10-03 | 罗煜 | Real-time vehicle overload monitoring system and monitoring method thereof |
| CN103048068A (en) * | 2013-01-15 | 2013-04-17 | 中国人民解放军总后勤部军需装备研究所 | Flexible sensing device for measuring head pressure and manufacture method thereof |
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| CN102706419A (en) * | 2011-12-27 | 2012-10-03 | 罗煜 | Real-time vehicle overload monitoring system and monitoring method thereof |
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