M344522 八、新型說明: 【新型所屬之技術領域】 本創作係關於一種觸控面板之感測結構,特別是關於 一種電容式觸控面板之感測結構以及包含此種感測結構之 觸控面板。 【先前技術】 ^ 目前的各式電子裝置以廣泛應用觸控技術作為其輸入 方式,藉此,使用者只要以手指或觸控筆輕壓顯示面板, 即可閱頃資訊或進行資訊的傳輸與處理,可省去傳統電子 裝置上必須配置之按鈕、鍵盤或滑桿。 觸控面板依其感測原理的不同主要可分為電阻式、電 容式、紅外線式與超音波式等,其中紅外線式與超音波式 觸控面板係於螢幕之X軸與Y軸的一側設置紅外線或超音 波發射源,並在另一側安裝接收源,當使用者接觸螢幕時, 紅外線或超音波的運動即受到干擾,經由測量與確認受到 φ,干擾的位置座標即完成觸控輸入。電阻式觸控面板係由上 下兩組氧化錮錫(Indium Tin Oxides,ITO)導電薄膜疊合而 成,利用壓力而使上下電極導通後,經由控制器測知面板 的電壓變化而計算接觸點位置以進行輸入。至於電容式觸 控面板則由表面鍍製有氧化金屬之透明玻璃所構成,由其 四個角落提供電壓並於玻璃表面形成均勻電場,利用使用 者手指與電場之間的靜電反應所產生的電容變化來檢測輸 入座標。 電容式觸控面板具有防塵、防火、防刮以及高解析度 M344522 等優點,然其容易受到靜電或濕度的影響而造成動作或觸 控位置的誤判;因此,為提升電容式觸控面板的靈敏度, 其於結構與對應電路的設計上難度較高,故於成本上尚有 待突破之處。 習知之電容式觸控面板的感應電極係由複數感應結構 排列而成之感應陣列,其中各感應結構多以ITO設計為具 有規則形狀(例如··鑽石形)之單元,且單元之間僅以單 一導線予以電性連接。在這樣的設計中,容易因導線的問 題而使感應結構的電性連接中斷,進而導致斷路;此外, 由於習知感應陣列係由複數平面型感應結構所組成,除耗 費電極材料外,也會降低觸控面板的透光率而影響其性能。 職是之故,申請人經悉心試驗與研究,並一本鐵而不 捨之精神,提出本案「電容式觸控面板之感測結構及觸控 面板」。本創作採新穎之感測結構的設計,並配合雙重導& 之架橋連接,可避免感應結構因單一導線故障而導致電路 中斷,且可減少ΠΌ的使用而降低其阻值,並提升觸控 板之透光性。M344522 VIII. New description: [New technical field] The present invention relates to a sensing structure of a touch panel, in particular to a sensing structure of a capacitive touch panel and a touch panel including the same . [Prior Art] ^ At present, various electronic devices use touch technology as their input method, so that users can read information or transmit information by simply pressing the display panel with a finger or a stylus. The processing can eliminate the buttons, keyboard or slider that must be configured on the traditional electronic device. Touch panels are mainly classified into resistive, capacitive, infrared, and ultrasonic based on their sensing principles. Infrared and ultrasonic touch panels are attached to one side of the X and Y axes of the screen. Set the infrared or ultrasonic emission source and install the receiving source on the other side. When the user touches the screen, the movement of the infrared or ultrasonic wave is disturbed. The measurement and confirmation are subject to φ, and the interference coordinate position is the touch input. . The resistive touch panel is formed by laminating two sets of indium tin oxide (ITO) conductive films. After the upper and lower electrodes are turned on by pressure, the position of the contact point is calculated by the controller detecting the voltage change of the panel. To enter. As for the capacitive touch panel, it is composed of transparent glass coated with oxidized metal on the surface, and the voltage is supplied from four corners thereof to form a uniform electric field on the surface of the glass, and the capacitance generated by the electrostatic reaction between the user's finger and the electric field is used. Change to detect the input coordinates. Capacitive touch panels have the advantages of dustproof, fireproof, scratch-resistant and high-resolution M344522. However, they are susceptible to static electricity or humidity, causing misjudgment of motion or touch position. Therefore, to improve the sensitivity of capacitive touch panels. It is difficult to design the structure and the corresponding circuit, so there is still a need to break through the cost. The sensing electrodes of the conventional capacitive touch panel are arrays formed by a plurality of sensing structures, wherein each of the sensing structures is designed with ITO as a unit having a regular shape (for example, diamond shape), and only A single wire is electrically connected. In such a design, it is easy to interrupt the electrical connection of the sensing structure due to the problem of the wire, thereby causing an open circuit; in addition, since the conventional sensing array is composed of a plurality of planar sensing structures, in addition to the electrode material, Reduce the light transmittance of the touch panel and affect its performance. For the sake of the job, the applicant has carefully tested and researched it and proposed the "sensing structure and touch panel of the capacitive touch panel" in this case. This design adopts the design of the novel sensing structure and cooperates with the double-guide & bridge connection to avoid circuit interruption caused by the single-wire fault of the sensing structure, and can reduce the resistance of the device and reduce the resistance, and improve the touch. The transparency of the board.
【新型内容】 本創作之第一構想在於提供一種觸控式面板之感夠社 構,其具有雙重導線之橋接結構,可避免感測電路因單— 導線故障而中斷。[New content] The first idea of this creation is to provide a touch-sensitive panel with a structure that has a double-wire bridge structure to avoid interruption of the sensing circuit due to single-wire failure.
本創作之第二構想在於提供一種觸控式面板,其感漁J 結構係由排列規則之複數網狀感測單元所形成,藉以減'少 感測結構中透明導電層材料之使用以提升觸控面板的透S 7 M344522 性,並降低阻抗。The second idea of the present invention is to provide a touch panel, wherein the sensing J structure is formed by a plurality of mesh sensing units arranged in a regular manner, thereby reducing the use of the transparent conductive layer material in the sensing structure to enhance the touch. The control panel is S 7 M344522 and reduces impedance.
%排列於弟一方向上且電連接至該第二連接線之兩第二網 狀感測結構。 根據本創作^ 早元所形成,其τ| 一第二連接線,$ 根據上述構想,其中該等第一網狀感測結構與該等第 二網狀感測結構係由金屬製成。 根據上述構想,其中該等第一網狀感測結構與該等第 二網狀感測結構係由一氧化銦錫(lndiuin Tin Oxide,ΙΤΟ) 層形成。 根據本創作之構想,所提供之觸控式面板的感測結構 _,係由複數感測單元所形成,各該等感測單元包括:一第一 連接線與至少一第二連接線,其分別延伸於一第一方向與 一第二方向,其中該第一方向與該第二方向不同,且該第 一連接線與所述至少一第二連接線係形成一橋接結構;一 第一感測單元對,其包含電連接於該第一連接線且相鄰排 列於該第一連接線兩側之兩第一網狀感測結構;以及一第 一感測單元對’其包含電連接於該第二連接線且相鄰排列 於該第二連接線兩側之兩第二網狀感測結構。 根據上述構想,其中該等第一網狀感測結構與該等第 8 M344522 二網狀感測結構係由金屬製成。 二網由f二,等第—網狀感測結構與該等第 声形成。 糸由乳化銦錫(Indium Tin Oxide,ΙΤΟ) 包括根作之構想,所提供之觸控式面板之感測結構 圖形化為:配第:表面;-第-電極層’其經 狀㈣.表面之—第—部分上之複數島 -ϊ面之i緣層,其覆蓋於各該等島狀結構上而使該第 該絕緣層與該第一表面之該第電盍: y與該第二電極層係分別由複數網狀電:、= 包括根據觸控;面板之感測結構 咏 、另弟表面,一弟一電極居,甘a% is arranged on the younger side and electrically connected to the two second mesh sensing structures of the second connection line. According to the present invention, the τ| a second connecting line, according to the above concept, wherein the first mesh sensing structures and the second mesh sensing structures are made of metal. According to the above concept, the first mesh sensing structures and the second mesh sensing structures are formed of a layer of indium tin oxide (ITO). According to the concept of the present invention, the sensing structure of the touch panel is formed by a plurality of sensing units, each of the sensing units including: a first connecting line and at least a second connecting line, And extending in a first direction and a second direction, wherein the first direction is different from the second direction, and the first connecting line and the at least one second connecting line form a bridging structure; a pair of measuring units comprising two first mesh sensing structures electrically connected to the first connecting line and adjacently arranged on both sides of the first connecting line; and a first sensing unit pair 'which comprises an electrical connection The second connecting line is adjacent to the two second mesh sensing structures on both sides of the second connecting line. According to the above concept, the first mesh sensing structures and the eighth M344522 two mesh sensing structures are made of metal. The second network is formed by f2, the equal-network sensing structure and the first sound. InIndium Tin Oxide (Indium Tin Oxide, ΙΤΟ) Including the idea of rooting, the sensing structure of the touch panel provided is: pattern: surface; - first electrode layer 'the warp shape (four). surface a plurality of island-surface i-edge layers overlying each of the island structures such that the first insulating layer and the first surface of the first electrode: y and the second The electrode layer is composed of a plurality of meshes: , = including according to the touch; the sensing structure of the panel, the other brother's surface, a brother and an electrode, and a
It部份與—第二部份,其中該第—部份“於^ -表面上,-絕緣層,其位於該第—電極層 上;複數灌孔,位於該絕緣層中並貫穿其&,^ = 二部份係位於該絕緣層上並經由該等ΐ孔而 配置於該絕緣層上且與該第一電極声圖::化為部分 極二建1: 二電極層係分別由複數網狀電 根據上述構想,其中該等網狀電極結構係由金屬製成。 根據上述構想,其中該等網狀電極結構係由 錫(Indium Tin Oxide,ITO)層形成。 乳化銦 M344522 另-方面’根據本創作之構想所提供之電容式觸控面 板模組包含:一基板,其具有一第一表面與—第二表面. 一第一電極層,其位於該基板之該第一表/面上且^含複數 第一網狀電極結構,該等第一網狀電極結構係彼此間隔排 列且延伸於一第一方向;一絕緣層,其覆蓋於各該等第一 電極結構上;一第二電極層,其位於該絕緣層上且包含複 數第二網狀電極結構’該等第二網狀電極結構係彼此間隔 排列並延伸於一第二方向;一連接層,其由至少一導電結 •構所形成且電連接該第一電極層與該第二電極層;以及二 •黑框(BlackMatrix,BM)層,其位於該基板之二第二表面 上,其中該第一方向與該第二方向係彼此不同且與該專框 層之位置對應。 β… 根據上述構想,所提供之電容式觸控面板模組更包括 一濾光層,其位於該黑框層上。 舉據上述構想,其中該等第一電極結構與該等第二電 極結構係由複數金屬線所形成。 根據上述構想,其中該第一電極層與該第二電極層係 選自一氧化銦錫層與一金屬層其中之一。 、在本創作中,係採用由金屬層或ΙΤΟ層經圖樣化而形 成電容式觸控面板之網狀感測結構,且其具有雙重導線之 橋接結構;此外,本創作之感測結構係與觸控面板之濾光 層及黑框,整合於同一基板上,可簡化面板結構、減少基 板之使用量’並進而提高觸控面板之透光率及降低其阻值。 本案得藉由下列圖式及詳細說明,俾得以令讀者更深 入了解: M344522 【實施方式】 雖然本創作將參閱含有本創作較佳實施例之所附圖式 予以充份描述,但在此描述之前應瞭解熟悉本行之人士可 修改在本文中所描述之發明,同時獲致本創作之功效。因 此,須瞭解以下之描述對熟悉本行技藝之人士而言為一廣 • 泛之揭示,且其内容不在於限制本創作。 * 請參閱第一圖,其係根據本創作之電容式觸控面板之 • 一較佳實施例截面圖,用以示意說明本創作之電容式觸控 面板及其感測電極。如第一圖所示,本創作之電容式觸控 面板10主要係由基板1〇〇以及疊合於基板1〇() 一侧之第一 感測電極110、絕緣層120與第二感測電極130建構而成, 在基板100的另一侧上係形成有一黑框層(Black Matrix, BM) 140與一彩色渡光層(Color Filter,CF) 150,其中該 第一感測電極110係由平行延伸於同一方向上之複數感測 結構110a、110b與110c所構成,且其與第二感測電極13〇 的延伸方向並不相同,而絕緣層120係覆蓋於該等感測結 構110a、110b與110c上,由此形成具有島狀絕緣體(Isiand • Type)之感測陣列。 在此實施方式中,感測電極係直接形成於彩色遽光層 150之基板100上,且感測結構ll〇a、ll〇b與11〇c的位^ 係對應於黑框層140上的各BM區,由此形成具整合結構 之電容式觸控面板模組。 请參閱第二圖’其係根據本創作之電容式觸控面板之 另一較佳實施例截面圖,用以示意說明本創作之電容式觸 11 M344522 控面板及其感測電極的另一配置方式。如第二圖所示,本 創作之電容式觸控面板20係由基板200以及疊合於基板 200 —側之第一感測電極210、絕緣層220與第二感測電極 230建構而成,在基板200的另一侧上形成有一黑框層240 與一彩色濾光層250,其中該第一感測電極210與第二感測 電極230的延伸方向並不相同。 在此實施方式中,絕緣層220係形成於該第一感測電 極之一第一部份210a上並經圖樣化而具有複數灌孔 (Through_Hole) 210c,藉以導通第一電極層之第一部份 210a與第一電極層之第二部份210b,由此形成具有灌孔式 絕緣體(Through-Hole Type)之感測陣列。同樣地,感測 電極係直接形成於彩色濾光層250之基板200上,由此形 成具整合結構之電容式觸控面板模組。 在本創作中,第一感測電極與第二感測電極係由金屬 電極結構(例如:金屬導線)所形成,亦可以氧化錮錫(Indium Tin Oxide,IT0)透明電極層經圖樣化而形成感測電極之感 測結構,或是兩者搭配使用來作為本創作之感測電極。 請參閱第三圖,其係根據本創作之感測結構之一較佳 實施例上視圖。根據前述說明,本創作之感測結構係形成 於由R、G、B畫素触成之彩色縣層與黑框層之基板上, 且其排列位置係與黑框層對應;如第三圖所示,本創作之 感測結構係由複數感測單元3G所形成,各感測單元3〇主 要由-組第-連接線31a、3lb與一組第二連接線32&、奶 交錯建構而成,第-連接線31a、31b與第二連接線3^、 32b分別延伸於一第一方向(例如:χ軸方向)與一第二方 向(例如·· γ轴方向),在第—連接線31a、31b與第二連接 12 M344522 線32a、32b交會處則形成有一橋接結構33 ;橋接結構33 係由習知的製作程序以金屬層製作而成,以連接位於不同 層的感測結構。在此實施例中,感測單元30係由四個相同 的網狀感測結構3n、312、321與322架構而成,其中網狀 感測結構311、312係連接至第一連接線3la、31/,、並沿其 方向排列於橋接結構33兩侧,而另外兩個網狀感測結構 321、322則連接至第二連接線32a、32b,並沿其方向而排 列於橋接結才冓33 @兩侧,形成上下左右對稱之感測單元 赢30。前述感測單元30、連接線31a、31b與32&、32b、橋接 響結構33以及網狀感測結構3U、312、321、322係由金屬電 極結構(例如·金屬導線)所形成,亦可以ιτ〇透明電極 層經圖樣化而形成,當然,亦可採兩者搭配使用而形成。 、、在本創作中,網狀感測結構除以上述方式排列而形成 感測單元外,亦可排列為其他的對稱方式。請參閱第四圖, 其係根據本創作之感測結構之另一較佳實施例上視圖;如 第四圖所示,本創作之感測結構係由複數感測料4〇所形 成,各感測單元40主要由一組第一連接線41a、41b與一組 _.第二連接線42&、421)建構而成,第一連接線41&、411)與第 二連接線42a、42b分別延伸於一第一方向(例如:χ轴方 向)與一第二方向(例如:Υ軸方向),在第一連接線41a、 41b與第二連接線42a、42b交會處則形成有一橋接結構43; 連接線41a、41b與42a、42b以及橋接結構43係由習知的 製作程序以金屬層製作而成,橋接結構43係用以連接位於 不同層的感測結構。在此實施例中,感測單元4〇係由四個 網狀感測結構411、412、421與422架構而成,其中網狀感 測結構411、412係彼此相同而連接至第一連接線41a、41b 的兩侧,而另外兩個相同的網狀感測結構421、422則連接 13 M344522 至第二連接線42a、42b的兩側,形成一旋轉對稱之感測單 元40。同樣的,前述感測單元40、連接線4U、4lb與* 42&、 42b、橋接結構43以及網狀感測結構411、412、42'丨、422 係由金屬電極結構(例如:金屬導線)所形成,亦可以IT〇 透明電極層經圖樣化而形成,當然,亦可採兩者搭配使用 而形成。 ^本創作中,係、以新額之_感測結構來取代習知電 面板中單—平面武的麵結構,由此所製成之觸 i綠ί:有較高的透光性;在Ί較佳實_巾,係以金屬 此外,t成網狀結構’冑以大幅降低感測結構之電阻值。 γ轴方a於本創作之雜感測結構係由沿著面板之X轴與 屬連接佈於彩色濾光層之R、、G、B晝素四周的多條金 接線因热且合而成,因此,當感測結構的其中一條金屬連 使感測if效時,仍可藉由其他連接線進行電路的連接, 層或'I τΑ構的操作不會因而中斷。由於本創作採用由金屬 構,且复層經圖樣化而形成電容式觸控面板之網狀感測結 層及里有雙重導線之橋接結構,更與觸控面板之濾光 板之整、合於同一基板上,可簡化面板結構、減少基 里,並進而提高觸控面板之透光率及降低其阻值。 人士可林創作的較佳實施例之後,熟悉該項技術 可進行I插,瞭解,在不脫離下述申請專利範圍與精神下 施例的實施》t與改變,而本創作亦不受限於說明書之實 【圖式簡單說明】 M344522 第一圖為根據本創作之電容式觸控面板之一較佳實施 例截面圖,用以示意說明本創作之電容式觸控面板及其感 測電極; 第二圖係根據本創作之電容式觸控面板之另一較佳實 施例截面圖,用以示意說明本創作之電容式觸控面板及其 感測電極的另一配置方式; 第三圖係根據本創作之感測結構之一較佳實施例上視 圖;以及 第四圖係根據本創作之感測結構之另一較佳實施例上 視圖。 【主要元件符號說明】 10、20 電容式觸控面板 100、200 基板 110 、 110a〜110c 、 210a 〜210c 第一感測電極 120、220 絕緣層 130 、 230 第二感測電極 140 、 240 黑框層 150 、 250 彩色濾光層 30、40 感測單元 31a、31b、41a、41b 金屬連接線 32a、32b、42a、42b 金屬連接線 31 卜 312、32 卜 322 網狀感測結構 33、43 橋接結構 15 M344522 4η、412、42卜422 網狀感測結構 R'G'B 畫素 16It part and - the second part, wherein the first part "on the surface - the insulating layer is located on the first electrode layer; a plurality of filling holes are located in the insulating layer and penetrate through the & , ^ = two parts are located on the insulating layer and are disposed on the insulating layer via the pupils and are compared with the first electrode: a partial electrode is formed: a two-electrode layer is respectively composed of a plurality of layers According to the above concept, the mesh electrode structures are made of metal. According to the above concept, the mesh electrode structures are formed of an Indium Tin Oxide (ITO) layer. Emulsified Indium M344522 The capacitive touch panel module provided according to the concept of the present invention comprises: a substrate having a first surface and a second surface. a first electrode layer located on the first surface/surface of the substrate The first mesh electrode structure is spaced apart from each other and extends in a first direction; an insulating layer covering each of the first electrode structures; a second electrode layer on the insulating layer and comprising a plurality of second layers The second electrode structure is spaced apart from each other and extends in a second direction; a connecting layer formed by at least one conductive structure and electrically connecting the first electrode layer and the second An electrode layer; and a BlackMatrix (BM) layer on the second surface of the substrate, wherein the first direction and the second direction are different from each other and correspond to the position of the frame layer. According to the above concept, the capacitive touch panel module further includes a filter layer on the black frame layer. According to the above concept, the first electrode structure and the second electrode structure are According to the above concept, the first electrode layer and the second electrode layer are selected from one of an indium tin oxide layer and a metal layer. In the present invention, the metal layer is used. Or the enamel layer is patterned to form a mesh sensing structure of the capacitive touch panel, and has a bridge structure of double wires; in addition, the sensing structure of the present invention and the filter layer and the black frame of the touch panel, Integrated in the same On the substrate, the panel structure can be simplified, the usage of the substrate can be reduced, and the transmittance of the touch panel can be improved and the resistance can be reduced. The following drawings and detailed descriptions can be used to further understand the reader: M344522 [Embodiment] Although the present invention will be fully described with reference to the drawings containing the preferred embodiments of the present invention, it should be understood that those skilled in the art can modify the invention described herein while obtaining The effect of this creation. Therefore, it is necessary to understand that the following descriptions are widely known to those skilled in the art and are not intended to limit the creation. * Please refer to the first figure, which is based on this creation. Capacitive Touch Panel A cross-sectional view of a preferred embodiment for illustrating the capacitive touch panel of the present invention and its sensing electrodes. As shown in the first figure, the capacitive touch panel 10 of the present invention is mainly composed of a substrate 1 and a first sensing electrode 110, an insulating layer 120 and a second sensing layer stacked on one side of the substrate 1 . The electrode 130 is constructed. On the other side of the substrate 100, a black matrix layer (Black Matrix, BM) 140 and a color filter layer (CF) 150 are formed. The first sensing electrode 110 is formed. The plurality of sensing structures 110a, 110b, and 110c are formed in parallel in the same direction, and are not the same as the extending direction of the second sensing electrodes 13A, and the insulating layer 120 covers the sensing structures 110a. On the 110b and 110c, a sensing array having an island insulator (Isiand • Type) is thus formed. In this embodiment, the sensing electrodes are directly formed on the substrate 100 of the color calender layer 150, and the positions of the sensing structures 11a, 11b, and 11〇c correspond to the black frame layer 140. Each BM area forms a capacitive touch panel module with an integrated structure. Please refer to the second figure, which is a cross-sectional view of another preferred embodiment of the capacitive touch panel according to the present invention, for illustrating another configuration of the capacitive touch 11 M344522 control panel and its sensing electrodes of the present invention. the way. As shown in the second figure, the capacitive touch panel 20 of the present invention is constructed by a substrate 200 and a first sensing electrode 210, an insulating layer 220 and a second sensing electrode 230 stacked on the side of the substrate 200. A black frame layer 240 and a color filter layer 250 are formed on the other side of the substrate 200. The direction in which the first sensing electrode 210 and the second sensing electrode 230 extend are not the same. In this embodiment, the insulating layer 220 is formed on the first portion 210a of the first sensing electrode and patterned to have a plurality of holes (Through_Hole) 210c, thereby turning on the first portion of the first electrode layer. The portion 210a and the second portion 210b of the first electrode layer thereby form a sensing array having a through-hole type. Similarly, the sensing electrodes are directly formed on the substrate 200 of the color filter layer 250, thereby forming a capacitive touch panel module having an integrated structure. In the present invention, the first sensing electrode and the second sensing electrode are formed by a metal electrode structure (for example, a metal wire), and the transparent electrode layer of the Indium Tin Oxide (IT0) layer may be formed by patterning. The sensing structure of the sensing electrode, or both, is used as the sensing electrode of the present invention. Please refer to the third figure, which is a top view of a preferred embodiment of the sensing structure according to the present invention. According to the foregoing description, the sensing structure of the present invention is formed on the substrate of the color county layer and the black frame layer which are touched by the R, G, and B pixels, and the arrangement position thereof corresponds to the black frame layer; As shown, the sensing structure of the present invention is formed by a plurality of sensing units 3G, and each sensing unit 3 is mainly constructed by a set of first-connecting lines 31a, 31b and a set of second connecting lines 32& The first connecting line 31a, 31b and the second connecting line 3^, 32b respectively extend in a first direction (for example, a x-axis direction) and a second direction (for example, a γ-axis direction), in the first connection A bridge structure 33 is formed at the intersection of the lines 31a, 31b and the second connection 12 M344522 lines 32a, 32b; the bridge structure 33 is formed of a metal layer by a conventional fabrication process to connect the sensing structures at different layers. In this embodiment, the sensing unit 30 is constructed by four identical mesh sensing structures 3n, 312, 321 and 322, wherein the mesh sensing structures 311, 312 are connected to the first connecting line 3la, 31/, and arranged in the direction of the two sides of the bridge structure 33, and the other two mesh sensing structures 321, 322 are connected to the second connecting lines 32a, 32b, and arranged in the direction of the bridge junction 33 @ Both sides, the sensing unit that forms the upper and lower left and right symmetry wins 30. The sensing unit 30, the connecting lines 31a, 31b and 32&, 32b, the bridge structure 33 and the mesh sensing structures 3U, 312, 321, 322 are formed by a metal electrode structure (for example, a metal wire), or The ιτ〇 transparent electrode layer is formed by patterning, and of course, it can also be formed by using the two together. In the present creation, the mesh sensing structures are arranged in the above manner to form the sensing unit, and may be arranged in other symmetrical manners. Please refer to the fourth figure, which is a top view of another preferred embodiment of the sensing structure according to the present invention; as shown in the fourth figure, the sensing structure of the present invention is formed by a plurality of sensing materials, each The sensing unit 40 is mainly constructed by a set of first connecting lines 41a, 41b and a set of second connecting lines 42 & 421, the first connecting line 41 & 411) and the second connecting line 42a, 42b Extending in a first direction (for example, a x-axis direction) and a second direction (for example, a z-axis direction), a bridge structure is formed at a intersection of the first connecting lines 41a, 41b and the second connecting lines 42a, 42b. 43; The connecting wires 41a, 41b and 42a, 42b and the bridge structure 43 are made of a metal layer by a conventional manufacturing process, and the bridge structure 43 is used to connect the sensing structures located in different layers. In this embodiment, the sensing unit 4 is formed by four mesh sensing structures 411, 412, 421 and 422, wherein the mesh sensing structures 411, 412 are identical to each other and connected to the first connecting line. The two sides of the 41a, 41b, and the other two identical mesh sensing structures 421, 422 connect 13 M344522 to both sides of the second connecting lines 42a, 42b to form a rotationally symmetric sensing unit 40. Similarly, the sensing unit 40, the connecting wires 4U, 4lb and 4 42&, 42b, the bridge structure 43 and the mesh sensing structures 411, 412, 42', 422 are made of a metal electrode structure (for example, a metal wire). It can also be formed by patterning the transparent layer of the IT layer. Of course, it can also be formed by using the two together. ^ In this creation, the system replaces the surface structure of the single-plane wu in the conventional electric panel with the new _ sensing structure, and the touch made by the green ί: has higher transparency; Ί Preferably, the towel is made of metal, and t is a mesh structure '胄 to greatly reduce the resistance value of the sensing structure. The γ-axis a of the hybrid sensing structure of the present invention is formed by heat and a combination of a plurality of gold wires which are connected to the R, G, and B elements of the color filter layer along the X-axis of the panel. Therefore, when one of the metal connections of the sensing structure is used to sense the if effect, the connection of the circuit can still be performed by other connecting lines, and the operation of the layer or the 'I τ structure is not interrupted. Because the creation adopts a metal structure, and the multi-layer is patterned to form a mesh sensing layer of the capacitive touch panel and a bridge structure with double wires therein, and the filter plate of the touch panel is integrated and integrated with On the same substrate, the panel structure can be simplified, the base can be reduced, and the transmittance of the touch panel can be improved and the resistance can be reduced. After the preferred embodiment of the person's creation, I am familiar with the technology and can insert and understand the implementation of the application and the changes without departing from the scope of the following patent application. The first embodiment of the present invention is a cross-sectional view of a preferred embodiment of a capacitive touch panel according to the present invention for illustrating the capacitive touch panel of the present invention and its sensing electrodes; The second figure is a cross-sectional view of another preferred embodiment of the capacitive touch panel of the present invention for illustrating another configuration of the capacitive touch panel of the present invention and its sensing electrodes; A top view of a preferred embodiment of a sensing structure according to the present invention; and a fourth view is a top view of another preferred embodiment of the sensing structure according to the present invention. [Major component symbol description] 10, 20 capacitive touch panel 100, 200 substrate 110, 110a~110c, 210a~210c first sensing electrode 120, 220 insulating layer 130, 230 second sensing electrode 140, 240 black frame Layer 150, 250 color filter layer 30, 40 sensing unit 31a, 31b, 41a, 41b metal connection line 32a, 32b, 42a, 42b metal connection line 31 312, 32 322 mesh sensing structure 33, 43 bridge Structure 15 M344522 4η, 412, 42 422 mesh sensing structure R'G'B pixel 16