TWI380034B - Capacitive touch panel and inspection method thereof - Google Patents

Description

Nine, the invention description: [Technical field of the invention] The present invention relates to a capacitive touch panel and a detection method thereof, and is not related to a capacitive touch panel which can be detected in a process and its measurement [Prior Art] 】 In the lingering capacitive touch panel, the color illuminator and the sensing structure are set on the same substrate, and because the color filter & film needs to use a two-sided process, the sensing structure There may be a problem that the filter process f is broken or shorted. Although the flawy touch panel can be detected at the time of product inspection, it has already wasted the manufacturing cost of the touch panel and occupies the original use of other qualified touch panels. The production line, which in turn reduces the utilization rate of the production line. Therefore, there is a need to propose a method for finding defective touch panels in the process to avoid influencing subsequent processes to increase manufacturing costs and reduce capacity utilization. SUMMARY OF THE INVENTION One object of the present invention is to provide a capacitive touch panel. Another object of the present invention is to provide a method of detecting a capacitive touch panel. According to a specific embodiment, the method for detecting a capacitive touch panel of the present invention comprises: first, preparing a capacitive touch panel semi-finished product, comprising a layered substrate, a plurality of rows of first-sensing pads, and a plurality of rows of second sensing Pad, interface pad and a reference voltage winding. Wherein, each row of the first sensing pads is arranged in parallel on a layered substrate along a first direction, and each row of the first sensing pads comprises a plurality of electrodes 1380034

The sensing mat is connected in series, a first end connecting portion and a second end connecting portion. Each row of second sensing pads is arranged in parallel along a second direction on the layered substrate, the first direction is different from the first direction, and each row of second sensing pads comprises a plurality of electrically connected series The sensing pad and the two end connections. The plurality of rows of second sensing pads are interleaved with the plurality of rows of first sensing pads. The interface connection pad is formed on the f-shaped substrate, the interface connection pad includes a plurality of first connection pads and a plurality of second terminals, and the first connection pads electrically connect the plurality of rows of first sense pads The second connection pads are electrically connected to the plurality of rows of second sensing electrodes. The reference voltage winding is formed on the layered button, the wire quasi-voltage winding surrounds the plurality of rows and the plurality of rows of the second bust, the reference voltage is wound and a bridge is wrapped to bypass the plurality of rows of L The second end connecting portion and the second inferior material are still connected. $External, Definition - The cut-off line is used on the substrate for detecting the break line to surround the plurality of rows of first sense electrodes, the plurality of rows of the facets, and the reference voltage winding. And then, the plurality of rows of first sensing electrodes are connected to the layered base via the adjacent second ends of the nf electrical'_line __ lines

However, 'excluding the capacitive touch panel with the defective area is not allowed to be distinguished, the broken wire row _ other implementations in the defective area of the multi-row: the first touch-sensing pad or root; ===== The capacitive touch panel of the present invention is the capacitive touch panel of the present invention. S S1 7 Ϊ 380034 = stomach, the second end connecting portion extends to the edge by the winding; and the electric H line S bypasses the second end connecting portions in a bridging manner. g. The capacitive touch panel of the present invention is not further understood by having the advantages and the drawings of the present invention.

[Embodiment]

Quasi-voltage winding is limited to God's detailed description of the invention and please refer to Figure- and Figure 2. BRIEF DESCRIPTION OF THE DRAWINGS Figure 1 is a flow chart showing a method of detecting a capacitive touch panel according to a first embodiment of the present invention. 2 is a partial schematic view of a semi-finished capacitive touch panel according to the first embodiment, that is, the capacitive touch panel semi-finished product may include a plurality of capacitive touch panels, and FIG. 2 only shows an area including a capacitive touch panel. Its boundaries are represented by chain lines. According to the first embodiment, as shown in step S100, the method for detecting a capacitive touch panel of the present invention comprises first preparing a capacitive touch panel semi-finished product, as shown in FIG. The capacitive touch panel semi-finished product comprises a layered substrate 12, a plurality of rows of first sensing pads 14 (only one of which is indicated), a plurality of rows of second sensing electrodes 16 (only one of which is indicated), an interface connecting pad 18 and a reference voltage Winding 20. ^ The first sensing 塾 14 of the mother row is arranged in parallel along the first direction D1 on the layered substrate 12, and each row of the first sensing pads μ comprises a plurality of electrically connected sensing pads 14a (only labeled a) a first end connecting portion 14b and a second end connecting portion 14c. The first row of sensing electrodes 16 are arranged in parallel along the second direction D2 on the layered substrate 12. Each row of second sensing pads 16 includes a plurality of electrically connected sensing pads 16a (only one of which is labeled And the two end connections are in the first embodiment, the second direction D2 is perpendicular to the first direction D1, and the plurality of rows of second sensing pads 14 are staggered and insulated from the plurality of rows of first sensing pads 16. The touch position can be positioned by using the staggered IS] 8 sensing pads 14a, 16a. Therefore, in the actual product design, the first direction D1 is not perpendicular to the second direction D2, and only needs to be between each other. It is sufficient to form a lost angle (for example, a diamond-shaped staggered arrangement). The interface connection pad 18 is formed on the layered substrate 12, and the interface connection pad 18 includes four first connection pads 18a (only one of which is labeled) and a total of eight first connection pads 18b on both sides of the first connection pad 18a ( The first connecting portion 1 of the plurality of rows of the first sensing pads 14 electrically connected to the first connecting pads 18a is electrically connected to the second connecting port 18b via the plurality of rows of second sensing The end connection portion 16b of the crucible 16 is electrically connected to the plurality of rows of second sensing pads 16. The reference voltage winding 2〇 is formed on the layered button I2, and the first ring/seat pad 14 The plurality of rows of second sensing pads 16 have a reference voltage winding 2〇 and include a plurality of bridge portions 2Ga (only two of which are shown) to bypass the second end connection portion 14e of the plurality of rows of first turns 14 and The end connection portion of the plurality of rows of second pads 16 is removed. ^ The cutting line CL is defined on the layered button I2 (after the dummy wire is used to cut off to form a capacitive touch panel) As shown in Fig. 8, the j control panel 1). The cutting line CL surrounds the plurality of rows of the first sensing 塾 14, the second row of the sensation lining 16, the interface connecting 塾 18, and the scale winding 2 如. Step S102 is shown The capacitive touch of the present invention includes and includes a first-in-one 14-phase via the phase-to-wire W1, the first winding W1 =

Formed on a layered substrate, as shown in Figure 2. Next, U ίί (2) 5 2 6 simultaneously measures the electrical connection state of the first row of the first sensing pads 16 of the plurality of rows of the first sensing pads, such as the step & detecting method, when the electrical connection (four) is measured Exceeding - two determines the plurality of rows of first sensing 塾 14 or the plurality of rows of first defects or open circuit defects, as shown in the step art. There is a short, not limited to the recording of electricity - shop, also 彳 ===== capacitors. In the first embodiment, before the measurement (that is, before step Si〇4), the detection method further includes a plurality of second windings W2 (only one of which is indicated) via The first connection pad 18a and the second connection pad 18b connect the plurality of rows of second sensing & pads 14 in series with the plurality of rows of second sensing pads 16, wherein the second winding W2 is formed on the layered base across the cutting line CL. On the material 12, the measurement contacts n and T2 are taken out from the interface connection. The measured contact point X2 can measure the series resistance of the plurality of rows of the first sensing pads 14 and the plurality of rows of second sensing pads 16. When the resistance value of the equivalent measurement is too large, it is judged that there is a disconnection defect in principle; and the resistance value of the equivalent measurement is too small, and in principle, a short-circuit defect can be judged. Further, the series resistance value of the plurality of rows of the first sensing pads M and the plurality of rows of the second sensing electrodes 16 is not a fixed value based on the consideration of manufacturing variations, but is a range, that is, the aforementioned standard range. The rail also has to directly contact the first connecting port 18b with a probe of a measuring connector to perform the aforementioned measurement 'the aforementioned second winding W2! Yes, the f field is formed in the connection _ without f forming on the layer The connection relationship between the substrate η and the two windings W2 can be processed and determined in the measuring device connected to the quantity=connector, and the measuring elastic can be further increased: S Τί multi-row The measuring pad 14 and the plurality of rows of second sensing pads κ S are electrically connected to determine the electrical connection state of the plurality of rows of first senses in the first sense. Or, the method of measuring the roots (following and measuring separately), and determining the multi-row first-sensing center of the two measurements; 16 electrical connection status. ^ /, 忑 « «月 and see Figure 2 and Figure 3. Figure 3 is the part of the semi-finished capacitive touch panel of the system; If:, the body embodiment then shows the shredded 17 ΛΪ ® 'the towel is convenient, except for the difference, the main land is in the n-domain and τ It. And the first specific implementation line, that is, each row of the first capacitive touch panel is a double-wound pull connection. (4) The electrical H塾1 connection portion i6b is connected to the interface and the capacitive touch panel of FIG. For a single winding pull 380034 ί H guide 16 only - a joint of the age of the face connection pad 18 = sexual connection. In FIG. 3, 'two of the second sensing pads 16 of each row, see FIG. 2' are respectively defined as a third end connecting portion 16c (ie, the left end connecting portion 16b in FIG. 2) and a thin end connection. The portion 16d (i.e., right = end = portion 16b in Fig. 2) is electrically connected to the second port 塾i8b of the third end connecting portion 18 of the second sensing pad 16. In addition, because the 苐- specific implementation of the single winding wire, the age of the surface connection 118 2, the number of pads m can also be correspondingly reduced 'required' [the amount is also reduced. want

Based on the same measurement mechanism as the first embodiment, prior to the measurement, the detection method further includes routing the second sensing pad 16 through the adjacent fourth end connection portion 16d to the third winding W3. Electrically connected in series, the third winding is formed on the layered substrate 12 (not shown in FIG. 3) across the cutting line CL. It is a dream that the plurality of rows of first sensing pads 14 and the plurality of rows of second sensing pads 16 are also the same, connected in series and can be measured via the measuring contacts. The supplementary description of 疋' in the first-specific implementation of the relevant instructions for the connection of the connector interface to achieve measurement, is also applicable here, and will not be described again.

See Figure 2 and Figure 4 for details. Figure 4 is a partial schematic view showing a semi-finished product of a capacitive control panel according to a third embodiment, wherein the layered substrate U is not shown and labeled. The difference from the first embodiment is that the plurality of rows of first sensing electrodes 14 and the first row of first sensing electrodes 16 are respectively measured, so that the windings of the interface connecting pads 18 will be different from the second windings. W2. In a third embodiment, the detecting method includes connecting the plurality of rows of first sensing pads 14 in series via the first connection pad 18 with at least one fourth winding W4, and pulling out the measurement contacts. And connecting the plurality of rows of first sensing pads 16 in series via a plurality of fifth windings W5 via the second connection, and pulling out the measurement contacts τγι, τγ2. The fourth winding W4 ^ fifth winding W5 is formed on the layered substrate 跨越 across the cutting line CL. Therefore, in step s1〇4, the resistance of the plurality of rows of first sensing pads 14 can be measured via the measuring contacts τχι, 11 1380034 TX2, and the plurality of rows of the first sensing pads 14 are measured via the measuring contacts ΊΎ1 and ΊΎ2. The resistance of the second sensing pad 16 is. It is to be noted that, in the first embodiment, the relevant description for measuring the joint contact interface connecting pad 18 for measuring is also applicable here and will not be described again. Please also refer to Figure 3, Figure 4 and Figure 5. FIG. 5 is a partial schematic view showing a semi-finished product of a capacitive touch panel according to a fourth embodiment, wherein the layered substrate 12 is not shown and labeled. The difference from the second embodiment is that the plurality of rows of first sensing pads 14 and the plurality of rows of second sensing electrodes 16 are respectively measured, so that the windings of the interface connecting pads 18 will be different from the second windings. W2, this case is equivalent to the difference between the second embodiment and the first embodiment. The difference from the third embodiment is that the capacitive touch panel shown in FIG. 4 is a double-wound pull cable, and the capacitive touch panel shown in FIG. 5 is a single-wound pull cable, which is equivalent to the second The specific embodiment is different from the first embodiment. Therefore, in the third specific embodiment, the ϋ detection method further includes connecting the plurality of rows of the first-sensing pads M in series with at least one sixth winding W6 via the first connection pad 18a, and pulling out the wires. Points TX1, TX2; and the plurality of rows of second sensing turns 10, via the adjacent end connecting portion 16d to the seventh winding W7 (corresponding to the third winding in Figure 3, 3, banded in series; The at least one eighth winding, the line W8 is connected in series by the second connection 塾l8b^ the plurality of rows of the second cymbal 16 and pulls the measurement of the contact top, τ γ2. The sixth winding W6 and the seventh slow line W7 And the first person winding is formed on the layered substrate 12 across the CL. Thereby, in step s1〇4, the resistance of the plurality of rows of the first sensing 塾14 can be measured by the measuring point TXb TX2. The measuring contacts TYi and TY2 measure the resistance of the plurality of rows of second sensing electrodes 16 , and the second embodiment of the second embodiment is related to measuring the connector contact interface port 8 to achieve measurement. Please refer to FIG. 6. Figure 6 is a partial schematic view of a control panel semi-finished product according to a fifth embodiment, wherein the layered substrate 12 is not shown. The difference in the body embodiment is that the plurality of rows of second sensing pads & 12 Ϊ 380034 are measured by their capacitance, not their resistance, so the winding of the interface connection pad 18 is also different. In a specific embodiment, the detecting method further comprises: comprising at least one ninth winding W9 connecting the plurality of rows of second sensing electrodes 14 in series via the first connecting pad 18a and pulling out the measuring contact point Ding Bu τ χ 2 The tenth windings • W10 respectively connect the odd rows (the top-down order) of the second sensing pads 16 in parallel via the second connection pads 18b, and pull the measurement contacts TY3 from the tenth windings W10; The even rows of the second sensing pads 16 are respectively connected in parallel by the eleventh winding W11 via the second connection pads 18b, and the measuring contacts TY4 are pulled out from the eleventh winding W11. The ninth winding W9, The tenth winding w1〇 and the eleventh line φ WU are both formed on the layered substrate 12 across the cutting line CL. By this, in step S104, the detecting method still passes the measurement contacts TX1, TX2. Measure the resistance of the plurality of rows of first sensing pads μ, but the measurement of the electrical connection state of the plurality of rows of first sensing electrodes 16 is via the measurement contact point τγ3, TY4 is measured by measuring the parasitic capacitance of the plurality of rows of first sensing pads μ. When the measured parasitic capacitance value exceeds the standard range (for example, the difference from a standard value is two), the multi-row second sense is expressed. The test pad 16 has a circuit breaker defect or a short circuit defect. It is to be noted that the measurement architecture in the fifth embodiment can also be applied to a capacitive touch panel of a single-wound cable, as shown in Figure 7. Figure 7 shows each A row of second Φ sensing turns 16 is only electrically connected to the second connection 塾i8b by the one end connecting portion 16b, and is in the form of a single winding wire. In the first embodiment, the measuring contact interface is connected. The pad 18 is related to the measurement, and is also applicable here and will not be described again. After the capacitive touch panel is detected, it is cut from the capacitive touch panel blank (or from the layered substrate 12) along the cutting line CL. Taking the first specific embodiment as an example, the cut capacitive touch panel 1 is shown in FIG. The edge 22 of the capacitive touch panel 1 corresponds to the cutting line CL' on the layered substrate 12. Therefore, both the first winding W1 and the first winding W2 are cut, so that the function of the winding connection disappears. From the appearance, each row of the first sensing 塾 14 ts] 13 1380034 j, 14C extends to the edge 22, or the first, &gt; 〇 line W1 extends to the edge 22; , M 曰 second remote rt 6 days to 1 1 first connection pad 18a and the remaining part of the winding, ί w, ri Γ-ϊ: w, edge 22. In other words, effective heart testing should not, outside = low manufacturing costs, increased capacity utilization and increased production yield. Similarly, in the other foregoing specific embodiments, the capacitance required to move along the cutting line CL_board 1 = surrounding area = indication == two ίί ΐ In particular, please refer to _7 and Figure 9. A schematic diagram of a capacitive touch panel. Each row of the second 忒=6=connecting portion 16b (shown in FIG. 7) is defined as the third end 9 end connecting portion 16d, which is similar to the second embodiment i ϊ ιλι' in the figure ninety, the third end The connection portion i6e refers to the end connection portion 16b that is electrically connected to the second. Therefore, in this architecture, the f 2 connection 16C and the fourth end connection portion 16d are intersected by the end connection portion 16b 1=·&amp; 哲二ί is still the second sense 每一16 of each row via its one end connection portion 16b It is electrically connected to the second port 18b. It is added that the capacitance of the present invention is not limited to the reference voltage winding, depending on the design of each product. Please also refer to Figure 8 and Figure 10. A schematic diagram of a capacitive touch panel that does not have a reference winding according to a specific embodiment is shown. The capacitive touch panel is modified based on the capacitive touch panel 1 of the first embodiment. The only difference is that the capacitive touch iS] 14 1380034 f panel 1' does not have the reference electric house winding. The electric power of the reference electric display line 2G is not &lt;^^^. In other words, the detection method of the detection is detected. Therefore, using the detailed layout of the present invention can be referred to the above specific details and formed, so that the detection in the process can be realized: the process - the process of avoiding the invalid process outside the process: =: in the process, the detection time is greatly reduced The second η square j can be implemented with the change of time 'so that the feasible detection of the process is changed to the ❹ΐ ^ π pin imi6 — respectively, or the resistance or capacitance check is performed at the same time. As shown in Figure IX, check = 18 alone for the first row of the first sense of 14 ^ ^ ^ ^ face with the soil: the moon, the law far more than the traditional detection method has two choices, and can touch the new check the results. </ RTI> </ RTI> </ RTI> <RTIgt; </ RTI> <RTIgt; </ RTI> <RTIgt; </ RTI> <RTIgt; </ RTI> <RTIgt; </ RTI> <RTIgt; It is within the scope of the patents of the present invention. Therefore, the patent scope of the invention is based on (4) the pure material energy = 1380034 [Simplified illustration] A flow chart showing a method for detecting a panel according to the present invention. Receiving partial schematic view of the touch. Semifinished FIG capacitive touch panel according to a first embodiment of the system shown in accordance with a second two and

Part of the schematic. The semi-finished product of the capacitive touch panel of the example is shown in the figure of the third part. A capacitive touch panel semi-finished product according to an embodiment is shown in the figure of the fourth summer. "Capacitor Touch Panel Semi-finished Product of the Embodiment Figure 6 is a schematic diagram showing part of the fifth part.

Figure 7 is a partial schematic view showing another part. A semi-finished product of a capacitive touch panel that has been consistently applied. Figure 8 is a schematic view of the capacitor panel of the first embodiment. Capacitor has a fresh winding of the economy of Hungary. [Main component symbol description] 16 Ϊ380034

l, r: capacitive touch panel 12: layered substrate 16: second sensing pad 20: reference voltage winding 14a, 16a: sensing pad 14c: second end connecting portion 16c: third end connecting portion 18a: First connection pad 20a. Bridge portion D1: first direction Ή, T2, TX Bu TX2, TY1 W1: first winding W3: third winding W5: fifth winding W7: seventh winding W9: ninth Winding W11: Η-winding 14: first sensing pad 18: interface connecting pad 22: edge 14b: first end connecting portion 16b: end connecting portion 16d: fourth end connecting portion 18b: second connecting pad CL : cutting line D2 : second direction, TY2, TY3, TY4 : measuring contact W2 : second winding W4 : fourth winding W6 : sixth winding W8 : eighth winding W10 : tenth winding S100~S106: Implementation steps IS] 17

Claims (1)

1380034 Modified on June 22, 2011 Page 10, Patent Application Range: 1. A method for detecting a capacitive touch panel, comprising: ._ (a) preparing a capacitive touch panel semi-finished product, comprising: a layered substrate; ' 第一 第一 第一 第一 ' ' 每一 每一 每一 每一 每一 每一 每一 每一 每一 每一 每一 每一 每一 每一 每一 第一 第一 第一 第一 第一 第一 第一 第一 第一 第一 第一 第一 第一 第一 第一 第一 第一 第一 第一 第一 第一 第一 第一Electrically connected sensing pads, a first end connecting portion and a second end connecting portion; a plurality of rows of second sensing pads, each row of second sensing pads being arranged in parallel in a second direction The second direction is different from the first direction, and each row of the second sensing pads comprises a plurality of electrically connected sensing pads and two end connecting portions, wherein the plurality of rows of second sensing pads Interlaced with the plurality of rows of first sensing pads; an interface connecting pad formed on the layered substrate, the interface connecting pad comprising a plurality of first connecting pads and a plurality of second connecting pads, the first The connecting pads are electrically connected to the first end connecting portions of the plurality of rows of first sensing pads, and the second connecting pads Electrically connecting the plurality of rows of second sensing pads; and a reference voltage winding formed on the layered substrate, the reference voltage • windings surrounding the plurality of rows of first sensing pads and the plurality of rows of second senses The test pad 'the reference voltage is wound and includes a plurality of bridges to bypass the second end connection portions of the plurality of rows of first sensing pads and the end connection portions of the plurality of rows of second sensing pads, Defining a cut line on the layer of the substrate for detecting and cutting to form a capacitive touch panel, wherein the cut line surrounds the plurality of rows of first sensing pads, and the plurality of rows of second sensing y a pad, the interface connection pad, and the reference voltage winding; (b) electrically connecting the plurality of rows of first sensing pads to each other via the adjacent second end connection portions by a first winding, the first winding The line is formed on the layered substrate across the cutting line; 18 June 22, 2011, the correction replacement page is connected to the same time or separately, and the second sensing pad is electrically connected. · When the multi-connected S state is measured beyond a standard range, the defect is judged. "Miscellaneous or the plurality of rows of second sensing pads have a short-circuit defect or a detection method as claimed in the patent application (four) 1 tear, and the step-by-step includes: 3. The second winding material is the fourth contact material, the second connection 塾f The first row-sensing pad is connected in series with the plurality of rows of second sensing pads, wherein the second winding wire is formed on the layered substrate across the cutting line. As described in claim 2 The detecting method, wherein each of the two end connecting portions is defined as a third end connecting portion and a third end connecting portion of the second end connecting portion and the first first connecting portion respectively And the detecting method further comprises: electrically connecting the plurality of rows of second sensing pads to each other via the adjacent fourth end connecting portions by a second j, wherein the third winding is formed across the cutting line The method of detecting the layered material according to claim 1, further comprising: connecting the plurality of rows of first sensing turns in series via the first connecting pads by at least one fourth winding At least a fourth winding is formed on the layered substrate across the _ line; The second connection pads connect the plurality of rows of second sensing pads in series, wherein the 117 fifth windings are formed on the layered material across the cutting line; and wherein the step (c) is via the first The connection pad measures the resistance of the plurality of rows of the first sensing pads, and measures the resistance of the plurality of rows of the second sensing pads via the second connection pads. The detection method according to claim 1 of the patent application scope The two end connecting portions of each row of the second sensing pads are respectively defined as a third end connecting portion and a fourth end connecting portion, and the third end connecting portions of the plurality of rows of second sensing pads Do not connect with the second serial record such as the revised replacement page of the 380034 AL 〇 6 6 380 , , , , , , , , , , , , , , , , , , , , 380 380 380 380 380 380 380 至少 至少 至少 至少 至少 至少 至少 至少 至少 至少The first node is formed on the layered substrate in a first row; the first winding is formed on the cutting line across the cutting line; the fourth end connecting portion adjacent to the first line is a first line Forming the layer across the cutting line to form the layer in the layer of the second sensing substrate and the line across the cutting line The emperor step (4) measures the resistance of the first connection port via the resistance of the first connection, and the resistance of the paddle/the pad is measured by the first connection. 6. For the detection method described in item i of the patent scope, enter the joint = 塾 the multi-"sensing layered coffin. The ninth, the line spanning the cutting line is formed in the φ step "The shirt-connector 塾如ϋ 7, a capacitive touch panel comprising: a layered substrate; a plurality of rows of first-sensing 塾, each row of first sensing ridges disposed along the first column along the first layer On the substrate, the first sensing pads of each row comprise two: a sensing tantalum in series, a - end connection, and a second end connection 20 1380034. Aligning the second sensing pads, each row of second sensing pads is arranged in parallel along a second direction on the layered substrate, the second direction is different from the first direction, and each row of second sensing The pad includes a plurality of electrically connected sensing pads and two end connecting portions, wherein the plurality of rows of second sensing pads are staggered and insulated from the plurality of rows of first sensing pads; An interface connection pad is formed on the layered substrate, the interface connection pad includes a plurality of first connection pads and a plurality of second connection pads, and the first connection pads are electrically connected to the plurality of rows L and at least two The second connection pads are electrically connected to the at least two end connection portions of the plurality of rows of second sensing pads; and a quasi-voltage winding ' is formed on the layered substrate, The reference voltage winding surrounds the multi-layer x and the second row of the shirt row, the reference 22 line ^!: includes a plurality of bridges to bypass the first end connection portion of the plurality of rows of first sensing electrodes The end of the plurality of rows of the second sensing pads is connected to the capacitive touch panel of the seventh aspect of the invention, wherein the connection portion of the towel is defined as - "three end = part = 9, fourth. The first connection end of the plurality of rows of second sensing pads is electrically connected to the second connection ports. 4 brothers one% connected. The capacitive touch panel of the eighth aspect of the present invention, wherein the fourth end connecting portions of the plurality of rows//, 'they are electrically connected to the second connecting electrodes, respectively. The _ row η, touch = 连 = intersection = direction is the vertical direction, the second direction is the horizontal ^ face plate - the first party 21