CN102799298B - There is the contact panel driving method of anisotropic material and device and touch panel module - Google Patents

There is the contact panel driving method of anisotropic material and device and touch panel module Download PDF

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CN102799298B
CN102799298B CN201110151929.0A CN201110151929A CN102799298B CN 102799298 B CN102799298 B CN 102799298B CN 201110151929 A CN201110151929 A CN 201110151929A CN 102799298 B CN102799298 B CN 102799298B
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conducting end
combination
contact panel
comprised
signal intensity
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CN102799298A (en
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黄俊龙
郑建勇
陈柏仰
施博盛
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Innolux Shenzhen Co Ltd
Innolux Corp
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Innolux Shenzhen Co Ltd
Innolux Display Corp
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Abstract

The present invention openly has the driving method of the contact panel of anisotropic material and device and touch panel module.The method comprises the steps.One contact panel with anisotropic material is provided, its side with anisotropic material film has multiple first conducting end of row, and opposite side has row multiple second conducting end relative with these first conducting end, defines a touch area between these first and second conducting end.At least two adjacent first conducting end of foundation contact panel and its at least two relative and adjacent the second conducting end comprise a combination of at least two conducting end and comprise multiple combinations of combining of whole conducting end, carry out drive actions respectively to the conducting end comprised in these combinations simultaneously.

Description

There is the contact panel driving method of anisotropic material and device and touch panel module
Technical field
The invention relates to a kind of driving method and device of contact panel, and relate to especially a kind of there is the contact panel of anisotropic material driving method and device and touch panel module.
Background technology
Along with man-computer interface more easy with need fast, contact panel has become the bridge of man-machine communication of new generation now, replaces keyboard, mouse and be widely used on various electronic product in a large number, especially the product such as smart mobile phone, panel computer, e-book.But the indium needed for the critical material-transparent conductive film in contact panel is rare metal, and price volalility rises and falls large, so novel conductive material becomes the problem of the concern of technological development.
Such as, so educational circles and industry are developed and are utilized other handy material, anisotropic material, as CNT (carbonnanotube, CNT), as the basic material of contact panel.The advantage of CNT does not need the processing procedures such as etch patterning, can make by more easy processing procedure.Such as carbon nanotube thin film capacitance type touch-control panel.
And drive the above-mentioned contact panel with anisotropic material to still have one of problem to be solved, be exactly the resolution problem of the coordinate identification of touch point.Specifically, the relation of the CNT orientation of carbon nanotube thin film and produce very large resistance anisotropy, the resolution causing the Building X vertical with CNT orientation to mark to recognize is very high, but the very low problem of the resolution recognized is marked in the Building Y parallel with CNT orientation.
Summary of the invention
This exposure provides has the driving method of the contact panel of anisotropic material and the embodiment of device and a kind of touch panel module about a kind of.One embodiment of driving method carries out drive actions based on combining to the different conducting end of the conducting end group in multiple conducting end of contact panel the conducting end comprised simultaneously, can assist or reach: the calculating of the detection of touch point or the coordinate of touch point and output, and its resolution can be increased.
According to an embodiment, propose a kind of driving method with the contact panel of anisotropic material, the method comprises the steps.One contact panel with anisotropic material is provided, this side with anisotropic material film has multiple first conducting end of row, and opposite side has row multiple second conducting end relative with these first conducting end, defines a touch area between these first and second conducting end.Comprise a combination of at least two conducting end according at least two adjacent first conducting end of this contact panel and its at least two relative and adjacent the second conducting end and comprise multiple combinations of a combination of whole conducting end, respectively drive actions being carried out to the conducting end comprised in these combinations simultaneously.
According to another embodiment, propose a kind of drive unit with the contact panel of anisotropic material, it comprises: a control module and a sensing cell.Control module, in order to control the drive actions that has the contact panel of anisotropic material, comprise a combination of at least two conducting end according at least two adjacent first conducting end of this contact panel and its at least two relative and adjacent the second conducting end and comprise multiple combinations of a combination of whole conducting end, discharging after respectively the conducting end comprised in these combinations being charged simultaneously simultaneously.Sensing cell, when the conducting end comprised in this control module is to these combinations each is discharged, in order to detect the signal intensity of the conducting end comprised in this combination simultaneously.
According to another embodiment, propose a kind of touch panel module, it comprises one and has the contact panel of anisotropic material and the drive unit as above-described embodiment, and this drive unit therewith contact panel couples, in order to drive this contact panel.
Accompanying drawing explanation
For above-mentioned purpose of the present invention, feature and advantage can be become apparent, below in conjunction with accompanying drawing, the specific embodiment of the present invention is elaborated, wherein:
Fig. 1 illustrates the schematic diagram conducting end in an embodiment of a contact panel with anisotropic material being carried out to drive actions.
Fig. 2 A illustrates the motion track of two touch points under drive actions illustrated in Figure 1, and wherein the Building X mark of two motion tracks is different and Building Y mark change direction is identical.
Fig. 2 B illustrates the relation of a signal intensity with the mark change of touch point Building Y this conducting end being detected to gained under drive actions illustrated in Figure 1.
Fig. 2 C illustrates the actual motion track of a touch point and the discrepant situation of motion track tool calculating gained.
Fig. 3 A at least two conducting end illustrated in the embodiment of above-mentioned contact panel carry out the schematic diagram of drive actions.
Fig. 3 B illustrates the motion track of two touch points under the drive actions illustrated at Fig. 3 A, and wherein the Building X mark of two motion tracks is different and Building Y mark change direction is identical.
The relation that Fig. 3 C changes with touch point Building Y mark a signal intensity of this two conducting end detection gained under illustrating the drive actions illustrated at Fig. 3 A.
Fig. 4 illustrates a kind of embodiment of driving method of contact panel.
Fig. 5 A illustrates the schematic diagram one of at least two the first conducting end being combined into row cutting action.
Fig. 5 B illustrates the schematic diagram one of at least two the second conducting end being combined into row cutting action.
Fig. 5 C illustrates the schematic diagram one of at least two first conducting end and one of one of these relative at least two the second conducting end being combined into row cutting action.
Fig. 5 D illustrates the schematic diagram another of at least two the first conducting end being combined into row cutting action with another one of these relative at least two the second conducting end.
Fig. 5 E illustrates the schematic diagram one of at least two the first conducting end and at least two the second conducting end being combined into row cutting action.
Fig. 6 illustrates another embodiment of a kind of driving method of contact panel.
Fig. 7 A-7C illustrates the schematic diagram of several embodiments of the signal intensity detecting this little conducting end.
Fig. 8 is a kind of calcspar of an embodiment of touch panel module.
Fig. 9 is the embodiment combination of conducting end being made to the drive singal of drive actions.
Main element symbol description:
10: contact panel
80: touch panel module
100: there is anisotropic material film
190,600: touch area
700: capacitive digital converter
800: drive unit 810: control module
811: scanning element 813: processing unit
820: sensing cell
P1-1 to P1-N: the first conducting end
P2-1 to P2-N: the second conducting end
A, B, R: track
CP: the track calculating gained
TP1-TP4: touch point
SA, SB, SA ', SB ': curve
S410, S420: step
C: charging action D: discharging action
S: sensor operation
Embodiment
The a kind of of this exposure is below provided to have the driving method of the contact panel of anisotropic material and the embodiment of device.One embodiment of driving method based on carrying out drive actions to adjacent at least two conducting end simultaneously, relative at least two conducting end are carried out simultaneously to the mode that drive actions and above-mentioned conducting end all carry out drive actions simultaneously.So, it can be assisted or reach: the calculating of the detection of touch point or the coordinate of touch point.Also the resolution improving the coordinate detecting touch point gained can be helped.
In order to embodiment that this exposure is described and the relation of resolution of coordinate detecting touch point gained, at this, first problem that resolution doing the identification that drive actions produces for single conducting end has error is discussed.
Fig. 1 illustrates an embodiment of a contact panel with anisotropic material, wherein illustrates to carry out drive actions to a conducting end of contact panel.Contact panel 10 has anisotropic material film 100 as carbon nanotube film.Such as, contact panel comprises one and has anisotropic material film 100 and a base material, has anisotropic material film 100 and is arranged on base material.Such as, CNT (CNT) film is directly pasted on the transparent substrate and makes; Its CNT used is with the Single Walled Carbon Nanotube (SWCNT) of CVD synthesis, is coated on PET base material, becomes carbon nanotube thin film after making CNT slurry.In addition, more upper top cover (coverlens) can be added in carbon nanotube thin film.
Due to the characteristic of anisotropic material film 100, contact panel 10 is at the upper resistance larger because of tool of a first direction (or being called X-direction), therefore be essentially non-conductive, and at the upper resistance less because of tool of a second direction (or being called Y-direction), therefore in fact there is electric conductivity.The X-direction of side with anisotropic material film 100 has multiple first conducting end P1-1 to P1-N (hereinafter abbreviated as P1) of row, and opposite side has multiple second conducting end P2-1 to P2-N (hereinafter abbreviated as P2) of row, these second conducting end P2 have in anisotropic material film 100 with relative being arranged on of these the first conducting end P1 in the Y direction, that is such as the second conducting end P2-1 is relative with the first conducting end P1-1.The touch-control action defining a touch area 190 between first conducting end P1 and the second conducting end P2, with the input action allowing user make touch-control, such as, press, pull and so on.
A conducting end to contact panel 10 illustrated in Figure 1 carries out drive actions, such as to the first conducting end P1-K, discharge again after first charging, remaining conducting end then can make it as ground connection, connect end current potential or a suspension joint, wherein, the first conducting end of drive actions and the second conducting end of correspondence thereof are being carried out in K representative.As indicated by the dashed line in figure 1, the phenomenon of the leakage current wherein also representated by tool arrow occurs the equipotential line of the electrostatic field formed when the first conducting end P1-K is full of electricity.
Drive actions is further again, can when discharging, and carrying out detection action, such as, is the signal intensity utilizing capacitive digital converter (Capacitance-to-Digitalconverter) to detect the first conducting end P1-K, thus produces corresponding numerical value.As Fig. 2 A shows, create a touch point TP1, move along track A near the first conducting end P1-K, namely Building X is marked constant and is moved up near the second conducting end P2-K along the Y direction; The signal intensity that corresponding ground can detect marks the relation of change as shown in the curve S A in Fig. 2 B with the Building Y of touch point TP1.Another touch point TP2 produces between the first conducting end P1-K and P1-(K+1) again, moves along the track B parallel with track A, and the signal intensity of detection is represented by curve S B with the Building Y mark variation relation of touch point TP2.Curve S A and the SB of comparison diagram 2B are known, and touch point distance the first conducting end P1-K is nearer, and signal intensity is stronger, and vice versa; But for the numerical value of same signal intensity, but can be different because of touch point Building X mark, and produce different numerical value.As can be seen here, the signal intensity of the first conducting end P1-K is utilized can to cause error to the Building Y target change estimating touch point.Such as shown in Fig. 2 C, when a touch point TP3 along the track R (solid line) of reality turn right advance time, according to the signal intensity detected as calculated after path CP but become curve as shown by dashed lines as fluctuation change.So the resolution making the coordinate of the touch point that drive actions draws for single conducting end has serious error.
And according to this exposure, carry out drive actions at least two adjacent conducting end, can effectively improve above-mentioned problem.Fig. 3 A is the schematic diagram at least two conducting end P1-3 in the embodiment of contact panel 10 and P1-4 being carried out to drive actions.In figure 3 a, by the equipotential line between two the first conducting end P1-3 and P1-4 charging simultaneously, comparatively that shown in Figure 1 is mild in the X direction.So on the touch area between the first conducting end P1-3, P1-4, the second conducting end P2-3 and P2-4, create equipotential line Y-direction having gradient.
As the test mode of Fig. 2 A, under Fig. 3 B is shown in the drive actions shown in Fig. 3 A, two touch point TP1, TP2 move along track A and B respectively.And the present embodiment hypothesis K=3, then Fig. 3 C illustrates the relation of a signal intensity with the Building Y mark change of touch point this two conducting end P1-3 and P1-4 being detected to gained under the drive actions shown in Fig. 3 A, wherein the Building Y mark of the first conducting end is assumed to be 0, and the Building Y mark of the second conducting end is assumed to be a certain integer.In fig. 3 c, curve S A ' and SB ' corresponds to two touch point TP1 and TP2 respectively.When Building Y mark less (namely more near this two first conducting end) of touch point, curve S A ' and SB ' can be considered overlapping; When touch point Building Y mark comparatively large (namely more away from this two first conducting end), curve S A ' and SB ' is still variant, but compared to Fig. 2 B, this difference reduces.
So, if to the action that two second conducting end P2-3 and P2-4 first charge and discharge, and detect in discharging action, then conducting end P2-3 and P2-4 detects the relation of a signal intensity with the Building Y mark change of two touch point TP1 and TP2 of gained, can be similar to the above case, namely more near two second conducting end P2-3 and P2-4 (i.e. touch point Building Y mark larger) then the change curve of signal intensity be tending towards overlapping, more leave this two conducting end (namely touch point Building Y is marked less) then the change curve of signal intensity still have some differences.
It can thus be appreciated that, in order to try to achieve the Building Y mark of more accurate touch point, the conducting end that can respectively organize at least two first and at least two the second conducting end respectively carries out drive actions simultaneously, thus tries to achieve the Building Y mark of touch point with interpolation or other calculation modes according to the right numerical value of the multiple signal intensities detected.Please refer to shown in Fig. 4, propose a kind of embodiment of driving method of contact panel, it can be assisted or reach: the calculating of the detection of touch point or the coordinate of touch point.It is as follows that the method comprises step: as shown in step S410, provides a contact panel with anisotropic material, contact panel as shown in Figure 1.As shown in step S420, at least two adjacent first conducting end of foundation contact panel and its at least two relative and adjacent the second conducting end comprise a combination of at least two conducting end and comprise multiple combinations of combining of whole conducting end, carry out drive actions respectively to the conducting end comprised in these combinations simultaneously.
Multiple combinations described in above-mentioned steps S420 such as comprise following combination.One combination of one combination of at least two the first conducting end as shown in Figure 5A and at least two the second conducting end as shown in Figure 5 B.One of these at least two first conducting end as shown in Figure 5 C combine with one of one of these relative at least two the second conducting end and another the combination of another and these relative at least two the second conducting end of these at least two the first conducting end as shown in Figure 5 D.At least two the first conducting end as shown in fig. 5e and a combination of at least two the second conducting end.In certain embodiments, can drive these conducting end of combinations thereof respectively according to different secondary ordered pairs simultaneously, such as, first carry out the drive actions of the combination as Fig. 5 E, more then inserting needle to other drive actions as 5A-5D figure.
In addition, in one embodiment, step S420 such as comprises: discharge after charging to these conducting end comprised in these combinations respectively simultaneously simultaneously; This embodiment can utilize one drive circuit to be realized.
Again in another embodiment, in the step s 420, when these conducting end comprised in combining each these are discharged simultaneously, more detect the signal intensity of these conducting end comprised in this combination; The detection action of this embodiment can utilize a sensing circuit to be such as that electric capacity digital conversion circuit is realized.Such as two combinations shown in Fig. 5 A and Fig. 5 B, can detect that signal intensity is to assist the Building Y mark of the touch point of trying to achieve in the touch area that these conducting end are formed.Such as two combinations shown in Fig. 5 C and Fig. 5 D, can detect that signal intensity is to assist the Building X mark of the touch point of trying to achieve in the touch area that these conducting end are formed.Such as the combination shown in Fig. 5 E, the background value of the signal intensity in the touch area that these conducting end are formed can be detected, to assist the use of X and the Building Y mark of trying to achieve at touch point.
Please refer to another embodiment of the driving method of a kind of contact panel illustrated in Figure 6.As shown in Figure 6, type of drive can comprise: first scan one by one first and second relative conducting end according to the mode as 5C and 5D figure, utilizes size thus the touch area, target place one, Building X 600 finding out a touch point TP4 that signal intensity detected.Type of drive utilizes the mode as 5A and 5B figure and 5E to drive again then.
In addition, in certain embodiments, for the combination shown in such as Fig. 5 A or Fig. 5 B, when detecting the signal intensity of these conducting end comprised in this combination, can reach by different modes.Such as shown in Fig. 7 A, for the combination of these at least two the first conducting end (P1-1 to P1-N), indivedual signal intensity detecting these conducting end comprised in this combination simultaneously.Such as shown in Fig. 7 A, two the first conducting end P1-K, P1-(K+1) are carried out individually to the detection of signal intensity by use two capacitive digital converter 700 simultaneously.Again such as shown in Fig. 7 B, for the combination of these at least two the first conducting end (P1-1 to P1-N), detecting signal intensity when these conducting end of comprising are coupled in this combination, such as, is by making two adjacent conducting end be coupled to a capacitive digital converter to carry out detection signal strength.Again such as shown in Fig. 7 C, for the combination (when such as having the first conducting end P1-1 to P1-N of three or more) of these at least two the first conducting end P1-1 to P1-N, detecting step comprises: detect this combination at least both couple time signal intensity.In the practice of anticipating as seen in figure 7 c, there are many implementations, such as, in 3 the first conducting end P1-1 to P1-N, select two groups of P1-K, P1-(K+1) and detect these two groups other signal intensities simultaneously.Such as shown in Fig. 7 C, by making two capacitive digital converter to carry out detecting the signal intensity of news three the first conducting end.In the example of above-mentioned 7A or 7C figure, two numerical value wherein obtained by two capacitive digital converter 700 can be made such as addition process thus obtain corresponding numerical value in the process of postorder.
In addition, Fig. 8 is a kind of calcspar of an embodiment of touch panel module.In fig. 8, touch panel module 80 comprises a contact panel 10 and drive unit 800.All conducting end of contact panel 10 are all coupled to drive unit 800, such as, be through flexible circuit board or printed circuit board (PCB).Drive unit 800 comprises control module 810 and a sensing cell 820.Control module 810, in order to control the drive actions to contact panel 10, can realize each embodiment of type of drive described above.Sensing cell 820 coordinates the drive actions of control module 810, in time detects the signal intensity of these conducting end, to produce corresponding numerical value.In some implementations, drive unit 800, according to the output numerical value of sensing cell 820, can produce the coordinate of the touch point that touch area 190 senses according to this, or the parameter that other touch-controls are relevant.
Control module 810 can realize by different modes, such as, comprise one scan unit 811 and a processing unit 813.In one embodiment, control module 810 carries out drive actions, the action of simultaneously discharging after charging while carrying out combining one of these conducting end to contact panel 10.
Again such as processing unit 813 such as according to above-mentioned 5A-5E figure several combination or further according to embodiment as shown in Figure 6, gated sweep unit 811 makes these scanning elements 811 carry out discharging after driving is charged to these conducting end of combinations thereof respectively simultaneously simultaneously.Again such as example, Figure 9 shows that control module 810 or scanning element 811 are to the combination of these conducting end, such as above-mentioned as 5A to 5E figure the combination of illustrating, make an embodiment of the drive singal of drive actions.Drive singal exports each conducting end so far combined, wherein represent during high levels and charging action (being representative in fig .9 with C) is carried out to the conducting end of a combination, represent during low level and discharging action (being representative in fig .9 with D) is carried out to the conducting end of this combination.When the conducting end comprised in combining each these is discharged simultaneously, sensing cell 820 carries out detection action (being representative in fig .9 with S) to these conducting end comprised in this combination, to detect signal intensity and to be converted to numerical value according to this.Sensing cell 820 such as comprises one or more capacitive digital converter 700, such as, carry out with 7A, 7B or 7C figure or similar manner the signal intensity detecting these conducting end.
In addition, when one of drive unit 800 pairs of conducting end are combined into row cutting action, remaining these conducting end then can make it as ground connection, connect an electronegative potential or suspension joint.
In one embodiment, the numerical value that control module 810 or processing unit 813 can export according to sensing cell 820 again further calculates, to export the coordinate of touch point.
In addition, drive unit 800 can with integrated circuit as microcontroller, microprocessor, digital signal processor, Application Specific Integrated Circuit (ASIC, ApplicationSpecificIntegratedCircuit) or element can programmed logic lock array (FPGA, FieldProgrammableGateArray) or logical circuit implement.Except exporting as except the drive singal of Fig. 9, in other embodiments, as long as the other forms of drive singal reaching above-mentioned drive actions all can according to this as realizing drive unit 800.
As mentioned above, the driving method of the contact panel with anisotropic material and some embodiments of device and touch panel module have been proposed.Because the conducting end respectively organized at least two first and at least two the second conducting end respectively carries out drive actions simultaneously, the equipotential line comparatively uniformly with gradient can be produced, so the resolution of the coordinate values of touch point can be increased in X-direction and Y-direction.Again owing to driving the conducting end of multiple combination in driving process, therefore some embodiments can be assisted or reach: the calculating of the detection of touch point or the coordinate of touch point and output, and can increase its resolution.
Although the present invention discloses as above with preferred embodiment; so itself and be not used to limit the present invention, any those skilled in the art, without departing from the spirit and scope of the present invention; when doing a little amendment and perfect, therefore protection scope of the present invention is when being as the criterion of defining with claims.

Claims (15)

1. a driving method for contact panel, comprising:
One contact panel (10) with anisotropic material is provided, wherein one of this contact panel has anisotropic material film (100), this side with anisotropic material film (100) has multiple first conducting end (P1-1 ~ P1-N) of row, and opposite side has row multiple second conducting end (P2-1 ~ P2-N) relative with described first conducting end (P1-1 ~ P1-N), defines a touch area (190,600) between described first conducting end (P1-1 ~ P1-N) and described second conducting end (P2-1 ~ P2-N);
Comprise a combination of these at least two the first conducting end, one of a combination, these at least two the first conducting end of these at least two the second conducting end and one of one of these relative at least two the second conducting end according at least two adjacent first conducting end (P1-1 ~ P1-N) of this contact panel and its at least two relative and adjacent the second conducting end (P2-1 ~ P2-N) and combine and comprise multiple combinations that one of whole conducting end combines, respectively drive actions is carried out to each conducting end comprised in described combination simultaneously.
2. the driving method of contact panel as claimed in claim 1, it is characterized in that, respectively the step that the conducting end comprised in described combination drives simultaneously is comprised: discharge after respectively the described conducting end comprised in described combination being charged simultaneously simultaneously.
3. the driving method of contact panel as claimed in claim 2, it is characterized in that, in this step that the conducting end comprised in respectively to described combination drives simultaneously, when discharging to the described conducting end comprised in each this combination simultaneously, more detect in this combination the signal intensity of each conducting end comprised.
4. the driving method of contact panel as claimed in claim 2, it is characterized in that, this step of simultaneously discharging after simultaneously charging to the described conducting end comprised in described combination respectively comprises:
Discharge after one of these at least two first conducting end are charged with one of these relative at least two second conducting end simultaneously simultaneously;
Discharge after another with these relative at least two the second conducting end of another of this at least two the first conducting end is charged simultaneously simultaneously;
Discharge after these at least two first conducting end are charged simultaneously simultaneously;
Discharge after these at least two second conducting end are charged simultaneously simultaneously; And
Discharge after these at least two first conducting end and this at least two the second conducting end are charged simultaneously simultaneously.
5. the driving method of contact panel as claimed in claim 4, it is characterized in that, respectively to this step that the described conducting end comprised in described combination drives simultaneously, when the conducting end comprised in each described combination is discharged simultaneously, more detect in this combination the signal intensity of each conducting end comprised.
6. the driving method of contact panel as claimed in claim 5, it is characterized in that, for these at least two the first conducting end, detect in this combination the signal intensity of the described conducting end comprised for detecting individually the signal intensity of each conducting end comprised in described combination simultaneously.
7. the driving method of contact panel as claimed in claim 5, it is characterized in that, for these at least two the first conducting end, detect the signal intensity of the conducting end comprised in described combination for the signal intensity when conducting end comprised in this combination of detection is coupled.
8. the driving method of contact panel as claimed in claim 5, it is characterized in that, this combination for these at least two the first conducting end has plural first conducting end, and the step detecting the signal intensity of the conducting end comprised in this combination comprises: at least both signal intensities when being coupled detecting the conducting end comprised in this combination.
9. a drive unit for contact panel, comprising:
One control module (810), in order to control the drive actions that has the contact panel (10) of anisotropic material, a combination of these at least two the first conducting end is comprised according at least two adjacent first conducting end (P1-1 ~ P1-N) of this contact panel (10) and its at least two relative and adjacent the second conducting end (P2-1 ~ P2-N), one combination of these at least two the second conducting end, one combination of one of these at least two first conducting end and one of these relative at least two the second conducting end, with the multiple combinations of combining comprising whole conducting end, discharge after respectively the described conducting end comprised in described combination being charged simultaneously simultaneously, and
One sensing cell (820), when the described conducting end comprised in this control module (810) is to each described combination is discharged, in order to detect in this combination the signal intensity of each conducting end comprised simultaneously.
10. the drive unit of contact panel as claimed in claim 9, it is characterized in that, for these at least two the first conducting end, this sensing cell detects the signal intensity of the conducting end comprised in this combination for detecting individually the signal intensity of the conducting end comprised in this combination simultaneously.
The drive unit of 11. contact panels as claimed in claim 9, it is characterized in that, for these at least two the first conducting end, this sensing cell detects the signal intensity of the conducting end comprised in this combination for the signal intensity when conducting end comprised in this combination of detection is coupled.
The drive unit of 12. contact panels as claimed in claim 9, it is characterized in that, this combination for these at least two the first conducting end has plural first conducting end, when this sensing cell detects the signal intensity of the conducting end comprised in this combination, detect at least both signal intensities when being coupled of the conducting end comprised in this combination.
13. 1 kinds of touch panel modules, comprising:
One contact panel with anisotropic material; And
The drive unit of the contact panel as described in claim 9 to 12 any one, this drive unit and this contact panel couple, in order to drive this contact panel.
14. touch panel modules as claimed in claim 13, it is characterized in that, this contact panel mainly comprises:
One has anisotropic material film (100), and this has anisotropic material film and is arranged on a base material of this contact panel, wherein this side with anisotropic material film has described first conducting end, and opposite side has described second conducting end, between described first conducting end and described second conducting end, define a touch area.
15. touch panel modules as claimed in claim 13, it is characterized in that, this has anisotropic material film is carbon nanotube film.
CN201110151929.0A 2011-05-25 2011-05-25 There is the contact panel driving method of anisotropic material and device and touch panel module Active CN102799298B (en)

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TW201102887A (en) * 2009-07-15 2011-01-16 Innolux Display Corp Touch panel and method for driving same

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TW201102887A (en) * 2009-07-15 2011-01-16 Innolux Display Corp Touch panel and method for driving same

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