201044054 六、發明說明： ，' 【發明所屬之技術領域】 本發明係有關於一種觸控基板及觸控面板，特別是一種電容 式觸控基板結構及電容式觸控面板結構。 【先前技術】 近年來觸控感應面板(touch pane】)有關的產置技術突飛猛 進’例如電阻式觸控面板、電容式觸控面板、音波式觸控面板、 及光學式觸控面板，已被廣泛應用於通訊產品、電腦裝置、消費 性電子產品上，藉以大幅增加所應用之電子產品的效能及使用便 利性。例如，應用作為筆記型電腦的滑鼠板、虛擬觸摸按鍵之電 容式觸控板，或是一般被配置在個人數位助理(pers〇nal Digital Assistant ’ PDA)、電子字典、手機、數位播放器、衛星導航(Gk)bal Positioning System，GPS)螢幕等小型電子產品的螢幕上使用之電 阻式觸控板’省去了傳統電子裝置必須配置的按鈕、鍵盤或搖桿。 電容式觸控面板(capacitive touch panel)可用手指進行輸入，具 有輸入操作的便利性，而其輸入操作不需經過觸壓，不會讓面板 有承文反覆應力、變形導致損害的缺點，且該種觸控板的組成構 造簡單、το件少’產品良率高，並且適合使用大量生產以降低成 本。電容式觸控面板的結構包括-X減應線跡及-Y軸感應線 跡，使X、Y軸感應線跡絕緣地設置玻璃基板上，藉由使用者的 手指或導體碰觸_間產生電容值的變化，而得以確定手指或導 體之位置。 201044054 . 另外，目前的電容觸控元件與面板的結合方式多是採用外貼 的方式令電容觸控元件與面板相結合。電容觸控元件外貼至面板 的方式，雖可減輕觸控訊號與顯示元件之間的干擾，但卻也產生 對位不準_情況，導致製造良率並不理想，使得觸控面板的電 容感應訊號的敏感度及精確度大幅降低，以及製造完成之面板的 整體厚度相對較厚。此外，制製造電容式觸控面板多使用透明 導電材料做為觸控元件’在觸㈣針設料旭塊導電區及小 〇區塊導電區相互率聯的透明導線，而小區塊導電區的阻抗值過 大，導致電谷式觸控面板要朝向大尺寸化並不容易。 美國第20〇7/〇291 〇〇9號專利案揭露一種债測觸控感應墊動作 之裝置及其方法，其裝置包括械測設備及f腦處理設備。感測 »又備係肋偏轉導物件(如手指)是^存在，電腦處理設備係電性 祕於感測設備，以辨認多種動作。其方法包括有辨認輕〒動作、 q雙次輕扣動作、拖ΐ動作、擺動動作。 【發明内容】 #於以上的問題’本發明提供—魏容式觸控基板結構及電 容式觸控面板結構，藉赠良電容式觸控面板之電容觸控元 件以外貼方柄造成的對位不準確、製造良率不佳、製程步驟過 於繁複觸L面板之厚度較厚、及觸控面板的解析度不佳等問題。 本發明所揭露之電容式觸控基板結構包括有透明基材、複數 個觸控墊、介電層、訊號線、至少一掃描線段、及複數個導電柱。 觸t塾係⑧置於翻基材的—側面上，且各觸控㈣位於同—直 201044054 線上。介電層係設置於透明基材的側面上，並覆蓋住觸控墊，訊 號線與掃描線段係設置並接觸於介電層的同一平面上。導電柱係 貝穿介電層，並且導電柱分別與觸控墊及掃描線段電性接觸，以 令觸控墊與掃描線段形成電性連接關係。 本發明所揭露之電容式觸控面板結構包括有電容式觸控基板 及發光模組。發光模組係設置於電容式觸控基板之介電層上，係 用以發出一光線至透明基材。 本發明之電谷式觸控基板結構及電容式觸控面板結構，其係 以内嵌式(in cell)的方式直接於面板内製造電容觸控元件，取代習 用的貼合方式，大幅提高製造時的對位準確度，有效減少光罩的 使用數量及降低導線電阻，藉以提高觸控面板的製成良率及解析 度。 以上之關於本發明内容之說明及以下之實施方式之說明係用 以示範與解釋本發明之原理，並且提供本發明之專利_請範圍更 進一步之解釋。 【實施方式】 根據本發明所揭露之電容式觸控基板結構，可應用於下發光 有機發光二極體(OLED)面板、薄膜電晶體液晶顯示器(TFT_LCD) 面板雙穩態膽固醇液晶顯示器、電泳式顯示器(Eiectr〇ph〇resisThe invention relates to a touch substrate and a touch panel, in particular to a capacitive touch substrate structure and a capacitive touch panel structure. [Prior Art] In recent years, the touch-sensing technology (touch pane) related production technology has advanced by leaps and bounds such as resistive touch panels, capacitive touch panels, sonic touch panels, and optical touch panels. It is widely used in communication products, computer devices, and consumer electronic products to greatly increase the efficiency and ease of use of the electronic products used. For example, the application is used as a mouse pad for a notebook computer, a capacitive touch panel with virtual touch buttons, or generally configured in a personal digital assistant (PDA), an electronic dictionary, a mobile phone, a digital player, The GPS (Gk) bal Positioning System, GPS) resistive touchpad used on the screen of small electronic products such as screens eliminates the buttons, keyboards or joysticks that must be configured for traditional electronic devices. The capacitive touch panel can be input by a finger, and has the convenience of input operation, and the input operation does not need to be touched, and the panel does not have the disadvantage of stress, deformation and damage caused by the text, and the The touchpad has a simple structure, a small number of parts, a high product yield, and is suitable for mass production to reduce costs. The structure of the capacitive touch panel includes -X minus stitches and -Y axis sensing stitches, so that the X, Y axis sensing stitches are insulatedly disposed on the glass substrate, and the user's fingers or conductors touch each other. The change in capacitance value determines the position of the finger or conductor. 201044054 . In addition, the current combination of capacitive touch elements and panels is based on the combination of capacitive touch elements and panels. The way the capacitive touch component is attached to the panel can reduce the interference between the touch signal and the display component, but it also produces misalignment _ the situation, resulting in an unsatisfactory manufacturing yield, so that the capacitance of the touch panel The sensitivity and accuracy of the inductive signal is greatly reduced, and the overall thickness of the manufactured panel is relatively thick. In addition, the manufacturing of the capacitive touch panel mostly uses a transparent conductive material as a transparent component of the touch component in the conductive region of the touch (four) pin and the conductive region of the small block, and the conductive region of the cell block If the impedance value is too large, it is not easy to make the electric valley touch panel face large. U.S. Patent Application Serial No. 20/7,291, No. 9 discloses a device for detecting a touch sensing pad and a method thereof. The device includes a mechanical measuring device and an f brain processing device. Sensing »The additional rib deflection guide (such as a finger) is present, and the computer processing equipment is electrically sensitive to the sensing device to identify multiple actions. The method includes recognizing a flicking action, q double-twisting action, dragging action, and swinging action. SUMMARY OF THE INVENTION [The above problem is provided by the present invention - the Wei Rong type touch substrate structure and the capacitive touch panel structure, and the alignment of the capacitive touch elements of the good capacitive touch panel Inaccurate, poor manufacturing yield, too complicated process steps, thicker L-panel, and poor resolution of the touch panel. The capacitive touch substrate structure disclosed in the present invention comprises a transparent substrate, a plurality of touch pads, a dielectric layer, a signal line, at least one scanning line segment, and a plurality of conductive columns. The touch t8 is placed on the side of the flip substrate, and each touch (4) is located on the same line as the straight line 201044054. The dielectric layer is disposed on the side of the transparent substrate and covers the touch pad. The signal lines and the scanning line segments are disposed on the same plane of the dielectric layer. The conductive pillars pass through the dielectric layer, and the conductive pillars are electrically contacted with the touch pads and the scanning line segments, respectively, so that the touch pads and the scanning line segments are electrically connected. The capacitive touch panel structure disclosed in the present invention includes a capacitive touch substrate and a light emitting module. The light emitting module is disposed on the dielectric layer of the capacitive touch substrate to emit a light to the transparent substrate. The electric valley type touch substrate structure and the capacitive touch panel structure of the invention directly manufacture the capacitive touch element in the panel in an in-cell manner, instead of the conventional bonding method, and greatly improve the manufacturing time. The alignment accuracy effectively reduces the number of reticle used and reduces the wire resistance, thereby improving the yield and resolution of the touch panel. The above description of the present invention and the following description of the embodiments are intended to illustrate and explain the principles of the invention, and to provide a further explanation of the scope of the invention. [Embodiment] The capacitive touch substrate structure disclosed in the present invention can be applied to a lower light emitting organic light emitting diode (OLED) panel, a thin film transistor liquid crystal display (TFT_LCD) panel, a bistable cholesterol liquid crystal display, and an electrophoresis type. Display (Eiectr〇ph〇resis
Display ’ EPD)、電濕潤式顯示器(Eiectr〇wetting DiSpiay，EWD> 等裝置’但並不以此為限。 「第1圖」為一實施例之觸控墊與掃描線段的組成示意圖，「第 201044054 2圖」為本發明第一實施例之電容式觸控基板之上視圖，「第3圖 所示為本發明第一實施例之電容式觸控基板之結構示意圖。本發 明第一實施例之電容式觸控基板100包括有一透明基材n〇、複數 個第一觸控墊120、一第一介電層130、一第—訊號線14〇、一第 一掃描線段150、複數個第一導電柱160、一第二掃描線段17〇、 及複數個第二觸控墊180。 其中，透明基材110之材質係選用氧化銦錫((Indium Tin Oxide，！T0)或是聚乙擇二氧噻吩(PED〇T)，但並不以此為限。第 -觸控塾120在本實施例中係定義為γ軸方向的觸妙，第一觸 控塾120係設置於透縣材11Q的—側面上，並且各個第一觸控 塾120係位於γ軸上(如「第i圖」所示），而各排第一觸控墊⑽Display ' EPD), electrowetting display (Eiectr 〇 wetting DiSpiay, EWD>, etc. 'but not limited to this. "1" is a schematic diagram of the composition of the touch pad and the scanning line segment of an embodiment, 201044054 2 is a top view of a capacitive touch substrate according to a first embodiment of the present invention, and FIG. 3 is a schematic structural view of a capacitive touch substrate according to a first embodiment of the present invention. The capacitive touch substrate 100 includes a transparent substrate n〇, a plurality of first touch pads 120, a first dielectric layer 130, a first signal line 14〇, a first scan line segment 150, and a plurality of A conductive pillar 160, a second scanning line segment 17〇, and a plurality of second touch pads 180. The material of the transparent substrate 110 is selected from Indium Tin Oxide (!T0) or polyethylidene. Dioxethiophene (PED〇T), but not limited to this. The first touchpad 120 is defined as the γ-axis direction in this embodiment, and the first touchpad 120 is set in the 11Q - on the side, and each of the first touch pads 120 is located on the γ axis (as shown in "i" ), and each row of the first touch pad (10)
係分別並列設置。第二觸控塾⑽在本實施财係定義為χ抽方 向的刪：¾•帛一觸控塾18〇係設置於透明基材Η〇設有第一觸 控墊120的侧面上’即第一觸控墊12〇與第二觸控塾⑽係位於 同平面上並且各個第二觸控墊18〇係位於X轴上(如「第1圖」 所示）’❿各排第二觸控塾⑽係分別並列設置。 请繼續參閱「第1圖5「楚 圃」至第3圖」’第一介電層no係設置 於透明基材110上，# 艾且伋盍住第一觸控墊120及第二觸控墊 180。其中，第__a ^ 3〇係以蒸鍍、減鍍、旋鍍(印心⑺她屯) 等方式形成，且本發明^ 〇 β之第一介電層130的厚度至少為200奈米 (nm)。第一訊號線14〇 興第一％描線段15〇係設置於第一介電層 130相對於透明基材丨 的另一側面上，並且第一訊號線140及第 7 201044054 -掃描線段15G與第-介電層13()相接觸，即第—訊號線⑽與 第-掃描線段15G係位在同-平面上。第二掃描線段17()與第一 掃描線段150係相互垂直並且交錯設置，本實施例之第二掃描線 段170係設置於透明紐11〇具有第二觸控塾18〇關面上(即第 二掃描線段170與第二觸控墊18G係位在透鳴材⑽的同—側 面上）’且各個第二觸控塾180係與第二掃描線段17〇相互電性接 觸，以形成電性連接關係。 值得注意的是，本發明所揭露之第一訊號線14〇可與閘極線/ 電極(gate line/dectrode)或資料線 / 電極(data line/dectr〇de)共平面。 另外，本實施例的第一掃描線段150係貫穿位於同一直線(γ軸) 上的第一觸控墊120，並相互電性連接，第二掃描線段17〇係貫穿 位於同一直線(X軸)上的第二觸控墊18〇，並相互電性連接。 本實施例之第一導電柱160係貫穿第一介電層13〇，並分別與 第一觸控墊120及第一掃描線段150電性接觸，以令各個第一觸 控墊120與第一掃描線段150之間形成電性連接關係。 「第4圖」所示為本發明第二實施例之結構示意圖。本發明 第二實施例之電容式觸控基板100除了包括有一透明基材11〇、複 數個第一觸控墊120、一第一介電層13〇、一第一訊號線14〇、一 第一掃描線段150、複數個第一導電柱16〇、一第二掃描線段17〇、 及複數個第二觸控墊180之外，更包括有一第二介電層19〇、一第 二訊號線200、及複數個第二導電柱210。 本實施例的第二觸控塾180與第一觸控整120皆係設置於透 201044054 明基材110的一側面上，即第一觸控墊120與第二觸控墊180係 位於同一平面上。第一介電層130係設置於透明基材no上，並 且覆蓋住第一觸控墊120及第二觸控墊180。其中，第一介電層 I30係以蒸鍍、濺鍍、旋鑛(spin-coating)等方式形成，且本發明之 第介電層13〇的厚度至少為200奈米(nm)。第一訊號線140與 第一掃描線段150係設置於第一介電層13〇相對於透明基材11〇 ^ 的另一側面上，並且第一訊號線140及第一掃描線段15〇與第一 ;ι電層130相接觸，即第一訊號線14〇與第一掃描線段15〇係位 在同一平面上。 請繼續參閱「第4圖」，第二介電層19〇係設置於第一介電層 130具有第一訊號線140及第一掃描線段150的側面上，第二掃描 線段170與第-掃描線段15〇係相互垂直並且交錯設置，本實施 例之第二掃描線段170係設置於第二介電層19〇相對於第一介電 〇層130的另-側面上。第二訊號線2〇〇與第二掃描線段17〇皆係 設置於第二介電層刚的同一側面上，並且第二訊號線及第 二掃描線段170與第二介電層190相接觸。 值得庄忍的疋’本發明所揭露之第一訊號線⑽可與間極線/ 電極(gate line/dee_eM資料線/電师咖⑹統伽邮共平面， 第二訊號線200可與閘極線/電極line/dectr〇de)或是資料線/ '電極_ 1滅1e_de)共平面。另外，本實施例的第—掃描線段 150係貫穿位於同-直線(Y轴)上的第一觸控墊12〇，並相互電性 連接’第二掃描線段170係貫穿位於同一直線㈣)上的第二觸控 9 201044054 塾180 ’並相互電性連接。 本實施例之第一導電柱160係貫穿第一介電層130,並分別與 第一觸控塾120及第一掃描線段150電性接觸，以令各個第一觸 控墊120與第一掃描線段15〇之間形成電性連接關係；本實施例 之第二導電柱210係貫穿第一介電層丨3〇及第二介電層190,並分 別與第二觸控墊180及第二掃描線段170電性接觸，以令各個第 二觸控墊180與第二掃描線段170之間形成電性連接關係。 「第5圖」所示為本發明第三實施例之結構示意圖。本發明 第三實施例之電容式觸控基板1〇〇除了包括有一透明基材11〇、複 數個第一觸控墊120、一第一介電層130、一第一訊號線14〇、— 第一掃描線段150、複數個第一導電柱160、一第二掃描線段丨7〇、 及複數個第二觸控墊180之外，更包括有一第二介電層19〇、—第 三介電層220、一第二訊號線200、及複數個第二導電柱21〇。 本實施例的第一觸控墊120係設置於透明基材11〇的一侧面 上，第一介電層130係設置於透明基材110上，並且覆蓋住第— 觸控墊120。其中，第一介電層130係以蒸鍍、濺鍍、旋鍍 (spin-coating)等方式形成，且本發明之第一介電層13〇的厚度至少 為200奈米(nm)。第二觸控墊18〇係設置於第一介電層13〇相對 於該透明基材110的另一側面上。第二介電層19〇係設置於第— 介電層130具有第二觸控墊180的平面上，並且覆蓋住第二觸控 墊180。第一訊號線140與第一掃描線段150係設置於第二介電層 190相對於第一介電層130的另一側面上，並且第一訊號線 201044054 及第一掃描線段150與第二介電層190相接觸，即第一訊號線㈣ 與第一掃描線段150係位在同一平面上。 請繼續參閱「第5圖」，第三介電層22〇係設置於第二介電層 190具有第一汛號線14〇及第一掃描線段丨5〇的侧面上，第二掃打 線段170與第一掃描線段150係相互垂直並且交錯設置。楚— ^ 一^訊 唬線200及第二掃描線段17〇係設置於第三介電層22〇相對於第 二介電層190的另一側面上，並且第二訊號線2〇〇及第二掃描線 〇 段170與第三介電層220相接觸。 本發明所揭露之第一訊號線140可與閘極線/電極(职反 line/electrode)或資料線/電極(data line/electrode)共平面，第二訊號 線200可與閘極線/電極(gate line/electf〇de)或資料線/電極(d她 lme/electrode)共平面。另外’本實施例的第一掃描線段15〇係貫穿 位於同一直線(γ軸)上的第一觸控墊12〇，並相互電性連接，第二 Q掃描線段170係貫穿位於同一直線(X軸)上的第二觸控墊120，並 相互電性連接。 本實施例的第一導電柱160係貫穿第一介電層13〇及第二介 電層190，並分別與第一觸控墊12〇及第一掃描線段15〇電性接 觸’以令各個第一觸控墊120與第一掃描線段150之間形成電性 .· · 連接關係，第二導電柱210係貫穿第二介電層19〇及第三介電層 220，並分別與第二觸控墊180及第二掃描線段17〇電性接觸，以 令各個第二觸控墊180與第二掃描線段170之間形成電性連接關 係。 201044054 「第6圖」所示為本發㈣—實施例之觸控墊與掃描線段的 組成不意圖。本發明第四實施例之電容式觸控基板中的第一 觸控墊120在本實施例中係定義為γ抽方向的觸控塾各個第一 觸控塾120係位於γ轴上。第二觸控塾18〇在本實施例中係定義 為乂軸方向的觸控墊，各個第二觸控塾⑽係位於χ軸上。 位在Υ軸方向上的至少一第一觸控㈣〇係與複數條第一掃 描線段150的其中-條電性連接，其餘的第一觸控墊12〇亦以至 少-個第-觸控塾12G與其中—條第—掃描線段15()電性連接， 使传本實施例之複數個第—觸㈣12()區分為多個群組而分別與 相對應的第-掃描線段15G電性連接；本實細之位在χ轴方向 上的至少-第二觸控墊180係與複數條第二掃说線段17〇的其中 -條電性連接，其餘的第二觸控塾⑽亦以至少一個第二觸控塾 180與其中一條第二掃描線段m電性連接，使得本實施例之複數 個第—觸控墊18〇區分為多個群組而分別與相對應的第二掃描線 段170電性連接。 本發明可視職線段15〇、m的實際阻抗值之需要，以及本 發明之電容式觸控紐/φ板適用於不同尺寸之顯示器的使用情 况’而對應改變掃描、線段15〇、170的配置數量及走線方式。因此， 本發明除了上述各實施例係使用單—條掃描線段1SG、.17()與各排 觸控墊120 ν 180電性連接的型態之外，本實施例更可依據實際設 。十需求而選擇將複數個第一觸控墊12〇區分為多個群組，或是將 複數個第二觸控塾18G區分為多個群組，而分別與複數條第一掃 12 201044054 描線段150及第二掃描線段no對應的電性連接；或者是，同時 將複數個第-觸控塾120及複數個第二觸控墊18〇區分為多個群 組，而與相對應的複數條第一掃描線段15〇及第二掃描線段 電性連接。 凊參閱「第7圖」及「第8圖」，本發明之第一觸控墊與 第二觸控墊180可如「第7圖」所示，係以鄰近的四個觸控塾12〇、 ⑽均等重疊於同一晝素(pixel)7〇〇的位置，使得觸控解析度為晝 0素解析度的四分之-；或者是如「第8圖」所示的排列方式，使 得單一個觸控墊120、18〇係對應重疊於一晝素7〇〇的位置上，使 得觸控解析度與晝素解析度為相等。熟悉此項技術者，亦可改變 觸控墊120、180與晝素700之間的設置關係，使得觸控解析度與 晝素解析度的關係為1/n，其中n為大於或等於i的整數。 「第9A圖」至「第14圖」所示為本發明電容式觸控面板之 ^結構示意圖。本發明所揭露之電容式觸控面板600包括有前述的 電容式觸控基板100、平坦層400、及發光模組300。 請參閱「第9A圖」及「第9B圖」，本發明之電容式觸控面 板600包括一透明基材11〇、複數個第一觸控墊12〇、一第一介電 層130、一第一訊號線140、一第一掃描線段150、複數個第一導 電柱160、一第二掃描線段170、複數個第二觸控墊180、一平坦 層400、及發光模組300。其中，透明基材11〇之材質係選用氧化 銦錫((Indium Tin Oxide，ITO)或是聚乙撐二氧噻吩(PEDOT)，但並 不以此為限。第一觸控墊120係定義為Y軸方向的觸控墊，且第 13 201044054 一觸控墊120係設置於透明基材no的一側面上。第二觸控墊18〇 係定義為X軸方向的觸控墊，並設置於透明基材no設有第一觸 控墊120的侧面上’即第一觸控墊120與第二觸控墊180係位於 同一平面上。 第一介電層130係設置於透明基材110上，並且覆蓋住第一 觸控塑* 120及第一觸控塾180。第一訊號線140與第一掃描線段 150係設置於第一介電層130相對於透明基材110的另一側面上， 並且第δίΐ號線140及第一知描線段150與第·—介電層130相接 觸，即第一訊號線140與第一掃描線段15〇係位在同一平面上。 第二掃描線段170與第一掃描線段15〇係相互垂直並且交錯設 置。第二掃描線段170係設置於透明基材11〇具有第二觸控墊18〇 的側面上(即第二掃描線段17〇與第二觸控墊180係位在透明基材 110的同一側面上)’且各個第二觸控墊180係與第二掃描線段17〇 相互電性接觸，以形成電性連接關係。 本發明所揭露之第一訊號線14〇可與閘極線/電極(gate line/electrode)或資料線/電極(data iine/eiectr〇de)共平面，第二訊號 線200可與閘極線/電極(gate iine/eiectr〇(je)或資料線/電極(血这 line/electrode)共平面。 第一導電柱160係貫穿第一介電層13〇,並分別與第一觸控墊 120及第一掃描線段15〇電性接觸，以令各個第一觸控墊12〇與第 一掃描線段150之間形成電性連接關係。 請繼續參閱「第9A圖」及「第9B圖」，平坦層400係設置 14 201044054 於第-介電層130相對於透明基材11〇的另一側面上，以供後續 的發光模組3GG製程得以糊進行。本實施例·細組3〇〇為 下發光型有機電激發光二極體(〇rganic Light_EmittingThey are set side by side. The second touch panel (10) is defined in the implementation of the financial system as a buffering direction: 3⁄4•帛一塾塾18〇 is disposed on the transparent substrate and disposed on the side of the first touchpad 120. A touch pad 12A and the second touch pad (10) are on the same plane and each of the second touch pads 18 is located on the X axis (as shown in FIG. 1).塾(10) is set side by side. Please continue to refer to "1st Figure 5 "Chu Chuan" to 3rd figure" "The first dielectric layer no is placed on the transparent substrate 110, #艾 汲盍 and the first touch pad 120 and the second touch Pad 180. Wherein, the first __a ^ 3 形成 is formed by evaporation, de-plating, spin plating (yin (7) her), and the first dielectric layer 130 of the present invention has a thickness of at least 200 nm ( Nm). The first signal line 14 is provided on the other side of the first dielectric layer 130 with respect to the transparent substrate ,, and the first signal line 140 and the seventh 201044054 - the scanning line segment 15G are The first dielectric layer 13() is in contact, that is, the first signal line (10) and the first scanning line segment 15G are in the same plane. The second scanning line segment 17() and the first scanning line segment 150 are perpendicular to each other and are staggered. The second scanning line segment 170 of the embodiment is disposed on the transparent button 11 and has a second touch surface 18 (ie, The second scanning line segment 170 and the second touch pad 18G are tied to the same side of the transparent material (10) and the second touch pads 180 are electrically connected to the second scanning line segment 17 to form electrical properties. Connection relationship. It should be noted that the first signal line 14 本 disclosed in the present invention may be coplanar with a gate line/dectrode or a data line/dectr〇. In addition, the first scanning line segment 150 of the embodiment is inserted through the first touch pads 120 on the same straight line (γ axis), and is electrically connected to each other, and the second scanning line segment 17 is connected through the same straight line (X axis). The second touch pads 18 are electrically connected to each other. The first conductive pillars 160 of the present embodiment are connected to the first dielectric layer 13 〇 and electrically contact with the first touch pads 120 and the first scan line segments 150 respectively to make the first touch pads 120 and the first An electrical connection relationship is formed between the scan line segments 150. Fig. 4 is a schematic view showing the structure of a second embodiment of the present invention. The capacitive touch panel 100 of the second embodiment of the present invention includes a transparent substrate 11 , a plurality of first touch pads 120 , a first dielectric layer 13 , a first signal line 14 , and a first A scanning line segment 150, a plurality of first conductive pillars 16A, a second scanning line segment 17〇, and a plurality of second touch pads 180 further include a second dielectric layer 19〇 and a second signal line. 200, and a plurality of second conductive pillars 210. The second touch pad 180 and the first touch pad 120 of the embodiment are disposed on one side of the transparent substrate 110, that is, the first touch pad 120 and the second touch pad 180 are on the same plane. . The first dielectric layer 130 is disposed on the transparent substrate no and covers the first touch pad 120 and the second touch pad 180. The first dielectric layer I30 is formed by vapor deposition, sputtering, spin-coating, etc., and the dielectric layer 13 of the present invention has a thickness of at least 200 nanometers (nm). The first signal line 140 and the first scanning line segment 150 are disposed on the other side of the first dielectric layer 13 〇 relative to the transparent substrate 11 , and the first signal line 140 and the first scanning line segment 15 and the first 1; the electrical layer 130 is in contact with each other, that is, the first signal line 14A is in the same plane as the first scanning line segment 15〇. Please continue to refer to FIG. 4 , the second dielectric layer 19 is disposed on the side of the first dielectric layer 130 having the first signal line 140 and the first scanning line segment 150 , and the second scanning line segment 170 and the first scanning The line segments 15 are perpendicular to each other and are alternately arranged. The second scanning line segment 170 of the embodiment is disposed on the other side of the second dielectric layer 19 〇 relative to the first dielectric layer 130. The second signal line 2〇〇 and the second scanning line segment 17 are disposed on the same side of the second dielectric layer, and the second signal line and the second scanning line segment 170 are in contact with the second dielectric layer 190. It is worthy of Zhuang Ren's first signal line (10) disclosed in the present invention can be coplanar with the interpolar line/electrode (gate line/dee_eM data line/electrician coffee (6), and the second signal line 200 can be connected with the gate Line/electrode line/dectr〇de) or data line / 'electrode _ 1 off 1e_de) coplanar. In addition, the first scanning line segment 150 of the embodiment penetrates the first touch pad 12A located on the same-straight line (Y-axis), and is electrically connected to each other. The second scanning line segment 170 is connected through the same line (four). The second touch 9 201044054 塾 180 ' and electrically connected to each other. The first conductive pillars 160 of the present embodiment are electrically connected to the first touch panel 120 and the first scan line segment 150 to make the first touch pads 120 and the first scan. The second conductive pillar 210 penetrates the first dielectric layer 丨3〇 and the second dielectric layer 190, and is respectively connected to the second touch pad 180 and the second layer. The scanning line segment 170 is electrically connected to form an electrical connection relationship between each of the second touch pads 180 and the second scanning line segment 170. Fig. 5 is a schematic view showing the structure of a third embodiment of the present invention. The capacitive touch panel 1 of the third embodiment of the present invention includes a transparent substrate 11 , a plurality of first touch pads 120 , a first dielectric layer 130 , and a first signal line 14 — The first scanning line segment 150, the plurality of first conductive pillars 160, the second scanning line segment 丨7〇, and the plurality of second touch pads 180 further include a second dielectric layer 19〇, a third medium The electrical layer 220, a second signal line 200, and a plurality of second conductive pillars 21A. The first touch pad 120 of the present embodiment is disposed on one side of the transparent substrate 11 , and the first dielectric layer 130 is disposed on the transparent substrate 110 and covers the first touch pad 120 . The first dielectric layer 130 is formed by vapor deposition, sputtering, spin-coating, etc., and the first dielectric layer 13 of the present invention has a thickness of at least 200 nanometers (nm). The second touch pad 18 is disposed on the other side of the first dielectric layer 13 〇 relative to the transparent substrate 110. The second dielectric layer 19 is disposed on the plane of the first dielectric layer 130 having the second touch pad 180 and covers the second touch pad 180. The first signal line 140 and the first scanning line segment 150 are disposed on the other side of the second dielectric layer 190 with respect to the first dielectric layer 130, and the first signal line 201044054 and the first scanning line segment 150 and the second medium The electrical layer 190 is in contact with each other, that is, the first signal line (4) is in the same plane as the first scanning line segment 150. Please continue to refer to FIG. 5, the third dielectric layer 22 is disposed on the side of the second dielectric layer 190 having the first imaginary line 14 〇 and the first scanning line segment 丨5 ,, and the second scanning line segment 170 and the first scanning line segment 150 are perpendicular to each other and staggered. The first signal line 200 and the second scanning line segment 17 are disposed on the other side of the third dielectric layer 22 opposite to the second dielectric layer 190, and the second signal line 2 and the second signal line The second scan line segment 170 is in contact with the third dielectric layer 220. The first signal line 140 disclosed in the present invention may be coplanar with a gate line/electrode (line/electrode) or a data line/electrode, and the second signal line 200 may be connected to a gate line/electrode. (gate line/electf〇de) or data line/electrode (d her lme/electrode) coplanar. In addition, the first scanning line segment 15 of the present embodiment is connected to the first touch pads 12A on the same straight line (γ axis), and is electrically connected to each other, and the second Q scanning line segment 170 is connected through the same straight line (X). The second touch pads 120 on the shaft are electrically connected to each other. The first conductive pillar 160 of the embodiment penetrates through the first dielectric layer 13 and the second dielectric layer 190, and is electrically contacted with the first touch pad 12 and the first scan line 15 respectively. An electrical connection is formed between the first touch pad 120 and the first scan line segment 150. The second conductive pillar 210 extends through the second dielectric layer 19 and the third dielectric layer 220, and is respectively connected to the second The touch pad 180 and the second scan line segment 17 are electrically connected to each other to form an electrical connection relationship between each of the second touch pads 180 and the second scan line segment 170. 201044054 "Figure 6" shows the composition of the touch pad and the scanning line segment of the present invention (4) - the embodiment is not intended. The first touch pad 120 in the capacitive touch panel of the fourth embodiment of the present invention is defined as a touch lens in the γ pumping direction in the present embodiment. Each of the first touch pads 120 is located on the γ axis. In the embodiment, the second touch panel 18 is defined as a touch pad in the direction of the x-axis, and each of the second touch pads (10) is located on the x-axis. The at least one first touch (four) 〇 in the direction of the x-axis is electrically connected to the middle of the plurality of first scan segments 150, and the remaining first touch pads 12 以 are also at least one first touch塾12G is electrically connected to the strip-scanning line segment 15(), so that the plurality of first-touch (four) 12() of the embodiment is divided into a plurality of groups and respectively corresponding to the corresponding first-scan segment 15G. Connecting; at least the second touch pad 180 in the direction of the x-axis is electrically connected to the middle of the plurality of second scanning line segments 17〇, and the remaining second touch pads (10) are also The at least one second touch pad 180 is electrically connected to one of the second scan line segments m, so that the plurality of first touch pads 18〇 of the embodiment are divided into a plurality of groups and respectively corresponding to the second scan line segments. 170 electrical connection. The need for the actual impedance value of the visual line segment 15〇, m of the present invention, and the capacitive touch button/φ board of the present invention are suitable for the use of displays of different sizes', and correspondingly changing the configuration of the scanning, line segments 15〇, 170 Quantity and routing method. Therefore, in addition to the above embodiments, the embodiment uses a single-strip scanning line segment 1SG, .17() to electrically connect the rows of touch pads 120 ν 180, and the embodiment can be further configured according to actual conditions. According to the ten requirements, the plurality of first touch pads 12〇 are divided into a plurality of groups, or the plurality of second touch pads 18G are divided into a plurality of groups, and the plurality of first touches 12G are respectively drawn with the plurality of first scans 12 201044054 The electrical connection of the segment 150 and the second scanning line segment no; or, at the same time, the plurality of first touch pads 120 and the plurality of second touch pads 18 are divided into a plurality of groups, and corresponding plural numbers The stripe first scan line segment 15〇 and the second scan line segment are electrically connected. The first touch pad and the second touch pad 180 of the present invention can be as shown in FIG. 7 and are adjacent to four touch pads. (10) equally overlapping the position of the same pixel (pixel) 7〇〇, so that the touch resolution is 1/4 of the resolution of the 素0 prime; or the arrangement as shown in “Fig. 8”, so that A touch pad 120, 18 is correspondingly overlapped with a pixel 7 , so that the touch resolution is equal to the pixel resolution. Those skilled in the art can also change the setting relationship between the touch pads 120, 180 and the pixel 700, so that the relationship between the touch resolution and the pixel resolution is 1/n, where n is greater than or equal to i. Integer. The structure of the capacitive touch panel of the present invention is shown in Fig. 9A to Fig. 14 . The capacitive touch panel 600 disclosed in the present invention includes the capacitive touch substrate 100, the flat layer 400, and the light emitting module 300. Please refer to FIG. 9A and FIG. 9B. The capacitive touch panel 600 of the present invention includes a transparent substrate 11 , a plurality of first touch pads 12 , a first dielectric layer 130 , and a first The first signal line 140, a first scanning line segment 150, a plurality of first conductive pillars 160, a second scanning line segment 170, a plurality of second touch pads 180, a flat layer 400, and a light emitting module 300. The material of the transparent substrate 11 is selected from Indium Tin Oxide (ITO) or polyethylene dioxythiophene (PEDOT), but is not limited thereto. The first touch pad 120 is defined. a touch pad in the Y-axis direction, and a 13th 201044054 touch pad 120 is disposed on one side of the transparent substrate no. The second touch pad 18 is defined as a touch pad in the X-axis direction, and is set The first touch pad 120 and the second touch pad 180 are located on the same plane on the side where the transparent substrate no is disposed on the first touch pad 120. The first dielectric layer 130 is disposed on the transparent substrate 110. The first touch line 120 and the first touch line 150 are disposed on the other side of the first dielectric layer 130 opposite to the transparent substrate 110. And the first sensing line segment 150 and the first sensing line segment 150 are in contact with the first dielectric layer 130, that is, the first signal line 140 is in the same plane as the first scanning line segment 15〇. The second scanning line segment 170 is perpendicular to and perpendicular to the first scanning line segment 15 . The second scanning line segment 170 is disposed on the transparent substrate 11 On the side of the second touch pad 18〇 (ie, the second scan line segment 17〇 and the second touch pad 180 are tied on the same side of the transparent substrate 110) and each of the second touch pads 180 and the second The scanning line segments 17 are electrically connected to each other to form an electrical connection relationship. The first signal line 14 本 disclosed in the present invention can be connected to a gate line/electrode or a data line/electrode (data iine/eiectr) 〇de) coplanar, the second signal line 200 can be coplanar with the gate line/electrode (gate iine/eiectr〇(je) or data line/electrode (blood line/electrode). The first conductive column 160 is through the first A dielectric layer 13 is electrically connected to the first touch pad 120 and the first scan line 15 to form an electrical connection between each of the first touch pads 12 and the first scan line 150. Please continue to refer to "Picture 9A" and "Picture 9B". The flat layer 400 is provided with 14 201044054 on the other side of the first dielectric layer 130 opposite to the transparent substrate 11 for subsequent illumination modules. The 3GG process can be paste-formed. In this embodiment, the fine group 3〇〇 is a lower-emitting organic electroluminescent diode (〇rganic Light_) Emitting
Diodes， OLED) ’其包括有有機發光二極體311、主動層㈣^1&网312、 鈍化層(ρ—η)313、及電極層314，係依序設置於平坦層棚 上’以與電容式觸控基板議構成有機電激發光二極體顯示面板。 然而’胁注意的是’本實施例所述之平坦層·係為了提供發 〇光模組300於製造時可設置於一平坦面上，藉以提高發光模組3〇〇 於製造時的良率。發光模組300亦可直接設置於第一介電層13〇 的上表面。 另外，請參閱「第9Α圖」及「第9β圖」，本實施例之電容 式觸控面板_亦包括有防電磁干擾層51〇或防護寄生電容干擾 層520’係設置於第-介電層13〇上，藉以防止發光模組所產 生之電磁或是寄生電容的干擾，避免電容式觸控面板_的效能 受到影響。 口月參閱第10Α圖」及「第log圖」，本發明之電容式觸控 面板600包括一透明基材11〇、複數個第—觸控墊12〇、一第一介 電層130、一第一訊號線14〇、一第—婦描線段15〇、複數個第一 導電柱160、-第二掃描線段170、複數個第二觸控塾18〇、一平 坦層400、及發光模組300。其中，透明基材11〇之材質係選用氧 化銦錫((Indium Tin Oxide，ΙΤ0)或是聚乙揮二氧噻吩(pED〇T)，但 並不以此為限。第-觸控墊120係定義為γ軸方向的觸控塾，且 15 201044054 第一觸控墊120係設置於透明基材HO的一側面上。第二觸控墊 180係定義為X軸方向的觸控墊，並設置於透明基材110設有第 一觸控墊120的側面上，即第一觸控墊120與第二觸控墊180係 位於同一平面上。 第一介電層130係設置於透明基材110上，並且覆蓋住第一 觸控墊120及第二觸控墊180。第一訊號線140與第一掃描線段 15 0係設置於第一介電層13 0相對於透明基材11 〇的另一側面上， 並且第一訊號線140及第一掃描線段150與第一介電層13〇相接 觸，即第一訊號線140與第一掃描線段150係位在同一平面上。 第二掃描線段170與第一掃描線段150係相互垂直並且交錯設 置。第二掃描線段17〇係設置於透明基材no具有第二觸控墊18〇 的側面上(即第二掃描線段170與第二觸控墊180係位在透明基材 110的同一側面上)’且各個第二觸控墊180係與第二掃描線段17〇 相互電性接觸’以形成電性連接關係。 本發明所揭露之第一訊號線14〇可與閘極線/電極(gate line/electrode)或資料線/電極(data iine/eiectr〇de)共平面，第二訊號 線200可與閘極線/電極(gate丨ine/electr〇de)或資料線/電極^血 line/electrode)共平面。 第一導電柱160係貫穿第一介電層13〇,並分別與第一觸控墊 120及第一掃描線段15〇電性接觸，以令各個第一觸控墊丨別與第 一掃描線段150之間形成電性連接關係。 請繼續參閱「第10A圖」及「第腿圖」，平坦層4〇〇係設 16 201044054 置於第一介電層i3〇相對於透明基材11()的另一側面上，以供後 續的發光模組300製程得以順利進行。本實施例的發光模組300 為/專膜電晶體液晶顯示器(Thin Film Transistor Liquid Crystal Display ’ TFT-LCD)，其包括有複數個薄膜電晶體(Thin FilmDiodes, OLED) 'includes an organic light-emitting diode 311, an active layer (four) ^1 & net 312, a passivation layer (ρ-η) 313, and an electrode layer 314, which are sequentially disposed on a flat layer shed' The capacitive touch panel constitutes an organic electroluminescent diode display panel. However, it is noted that the flat layer described in this embodiment can be disposed on a flat surface in order to provide the hair-emitting module 300, thereby improving the yield of the light-emitting module 3 when manufactured. . The light emitting module 300 can also be disposed directly on the upper surface of the first dielectric layer 13A. In addition, please refer to the "9th figure" and the "9th figure". The capacitive touch panel of the present embodiment also includes an anti-electromagnetic interference layer 51 or a parasitic capacitance interference layer 520' which is disposed on the first dielectric. On the layer 13, the electromagnetic or parasitic capacitance generated by the light-emitting module is prevented from being disturbed, and the performance of the capacitive touch panel is prevented from being affected. The capacitive touch panel 600 of the present invention includes a transparent substrate 11A, a plurality of first touch pads 12A, a first dielectric layer 130, and a first dielectric layer 130. The first signal line 14〇, the first-female line segment 15〇, the plurality of first conductive pillars 160, the second scanning line segment 170, the plurality of second touch electrodes 18〇, a flat layer 400, and the light emitting module 300. The material of the transparent substrate 11 is made of indium tin oxide (Indium Tin Oxide, ΙΤ0) or polydioxythiophene (pED〇T), but is not limited thereto. The first touch pad 120 The touchpad is defined as a gamma-axis direction, and 15 201044054 is disposed on one side of the transparent substrate HO. The second touchpad 180 is defined as a touchpad in the X-axis direction, and The first touch pad 120 and the second touch pad 180 are disposed on the same plane. The first dielectric layer 130 is disposed on the transparent substrate. The first touch line 120 and the first touch line segment 150 are disposed on the first dielectric layer 130 relative to the transparent substrate 11 On the other side, the first signal line 140 and the first scanning line segment 150 are in contact with the first dielectric layer 13A, that is, the first signal line 140 is in the same plane as the first scanning line segment 150. The line segment 170 and the first scanning line segment 150 are perpendicular to each other and are staggered. The second scanning line segment 17 is disposed on the transparent substrate. The second touch pad 18 is on the side of the second touch pad 18 (ie, the second scan line segment 170 and the second touch pad 180 are on the same side of the transparent substrate 110) and each of the second touch pads 180 is connected to the second scan. The line segments 17〇 are electrically in contact with each other to form an electrical connection relationship. The first signal line 14〇 disclosed in the present invention can be connected to a gate line/electrode or a data line/electrode (data iine/eiectr〇). De) coplanar, the second signal line 200 can be coplanar with the gate line/electrode (gate丨ine/electr〇de) or the data line/electrode/blood line/electrode. The first conductive pillars 160 are electrically connected to the first touch pads 120 and the first scan lines 15 to respectively distinguish the first touch pads from the first scan lines. An electrical connection relationship is formed between 150. Please continue to refer to "Picture 10A" and "Ten Figure". The flat layer 4 〇〇 16 16 201044054 is placed on the other side of the first dielectric layer i3 〇 relative to the transparent substrate 11 () for subsequent The process of the light-emitting module 300 can be smoothly carried out. The light-emitting module 300 of the present embodiment is a Thin Film Transistor Liquid Crystal Display (TFT-LCD), which includes a plurality of thin film transistors (Thin Film).
Transistor，TFT)32卜鈍化層(passivation)322、液晶層(liquid crystal layer)323、彩色濾光片（color filter)324、電極層325、及背光源326， 係依序設置於平坦層400上，以與電容式觸控基板100構成薄膜 G電晶體液晶顯示面板。值得注意的是，本實施例所述之平坦層4〇〇 係為了提供發光模組300於製造時可設置於一平坦面上，藉以提 南發光模組300於製造時的良率。發光模組3〇〇亦可直接設置於 第一介電層130的上表面。 另外，請參閱「第10A圖」及「第10B圖」，本實施例之電 容式觸控面板600亦包括有防電磁干擾層51〇或防護寄生電容干 擾層520，係設置於第一介電層13〇上，藉以防止發光模組3〇〇 所產生之電磁或是寄生電容的干擾，避免電容式觸控面板6〇〇的 效能受到影響。 請參閱「第11A圖」及「第liB圖」，本發明之電容式觸控 面板600包括一透明基材no、複數個第一觸控墊12〇、一第一介 電層130、一第一訊號線14〇、一第一掃描線段150、複數個第一 導電柱160、一第二掃描線段no、複數個第二觸控墊18〇、一平 坦層400、及發光模組300。其中，透明基材11〇之材質係選用氧 化銦錫((Indium Tin Oxide，ITO)或是聚乙撐二氧噻吩(PED〇T)，但 17 201044054 並不以此為限。第一觸控墊12〇係定義為γ軸方向的觸控墊，且 第一觸控墊120係設置於透明基材110的一側面上。第二觸控墊 18〇係定義為X軸方向的觸控墊，並設置於透明基材11()設有第 一觸控墊120的側面上’即第一觸控墊12〇與第二觸控墊18〇係 位於同一平面上。 第一介電層130係設置於透明基材no上，並且覆蓋住第一 觸控墊120及第二觸控墊180。第一訊號線14〇與第一掃描線段 150係設置於第一介電層13〇相對於透明基材n〇的另一侧面上， 並且第一汛號線140及第一掃描線段150與第一介電層13〇相接 觸，即第一訊號線140與第一掃描線段丨5〇係位在同一平面上。 第一掃描線段17〇與第一掃描線段15〇係相互垂直並且交錯設 置。第二掃描線段170係設置於透明基材11〇具有第二觸控墊18〇 的侧面上(即第二掃描線段170與第二觸控墊18〇係位在透明基材 no的同一侧面上)’且各個第二觸控墊180係與第二掃描線段17〇 相互電性接觸’以形成電性連接關係。 本發明所揭露之第-訊號線MO可與閘極線/電極(蛛 line/electrode)或資料線/電極(data line/electr〇de)共平面，第二訊號 線200可與閘極線/電極(gate line/electr〇de)或資料線/電極㈣& line/electrode)共平面。 第-導電柱160係貫穿第-介電層130,並分別與第一觸控塾 120及第-掃描線段15G電性接觸，以令各個第—觸控塾12〇與第 一掃描線段150之間形成電性連接關係。 18 201044054 "月繼續參閱「弟11A圖」及「第1 iB圖」，平坦層400係設 置於第一介電層130相對於透明基材11〇的另一侧面上，以供後 續的發光模組300製程得以順利進行。本實施例的發光模組3〇〇 為電泳式顯示器(Electrophoresis Display，EPD)，其包括有複數個 薄膜電晶體（Thin Film Transistor，TFT)331、鈍化層 ^passivation}332、電泳層(e!ectr〇ph〇resis iayer)333、彩色濾光片 (color filter)334、電極層335、及基板336 ’係依序設置於平坦層 〇 40〇上，以與電容式觸控基板100構成電泳式顯示面板。值得注意 的是，本實施例所述之平坦層4〇〇係為了提供發光模組3〇〇於製 造時可設置於一平坦面上，藉以提高發光模組3〇〇於製造時的良 率。發光模組300亦可直接設置於第一介電層13()的上表面。若 本實施例的電容式觸控面板6〇〇為係採用黑白顯示的方式，則可 將發光模組300中的彩色濾光片334移除。 ❹ 另外，請參閱「第11A圖」及「第11B圖」，本實施例之電 容式觸控面板600亦包括有防電磁干擾層51〇或防護寄生電容干 擾層520，係設置於第一介電層13〇上，藉以防止發光模組3〇〇 所產生之電磁或是寄生電容的干擾，避免電容式觸控面板6〇〇的 效能受到影響。 請參閱「第12圖」，本發明之電容式觸控面板6〇〇包括一透 明基材110、複數個第一觸控墊12〇、一第一介電層13〇、一第二 介電層190、一第—訊號線140、一第一掃描線段150、複數個第 一導電柱160、一第二掃描線段170、複數個第二觸控墊18〇、— 201044054 平坦層400、及發光模組300。其中，透明基材11〇之材質係選用 氧化銦錫((Indium Tin Oxide ’ ITO)或是聚乙撐二氧嗟吩(ped〇t)， 但並不以此為限。第一觸控塾120係定義為γ軸方向的觸控墊， 且第一觸控墊120係設置於透明基材11〇的一側面上。第二觸控 墊180係定義為X軸方向的觸控墊，並設置於透明基材11〇設有 第一觸控墊120的側面上，即第一觸控墊12〇與第二觸控塾18〇 係位於同一平面上。 第一介電層130係設置於透明基材no上，並且覆蓋住第一 觸控墊120及第二觸控墊180。第一訊號線14〇與第一掃描線段 150係設置於第一介電層13〇相對於透明基材11〇的另一侧面上， 並且第一訊號線140及第一掃描線段15〇與第一介電層i3〇相接 觸，即第一訊號線140與第一掃描線段150係位在同一平面上。 第二掃描線段170與第一掃描線段150係相互垂直並且交錯設 置。第二掃描線段no係設置於透明基材110具有第二觸控墊18〇 的側面上(即第二掃描線段170與第二觸控墊18〇係位在透明基材 no的同一側面上)，且各個第二觸控墊180係與第二掃描線段17〇 相互電性接觸，以形成電性連接關係。 本發明所揭露之第一訊號線14〇可與閘極線/電極(gate line/electrode)或資料線/電極(如位iine/eiectr〇(je)共乎面，第二訊號 線200可與閘極線/電極(gate iine/eiectr〇de)或資料線/電極㈣& line/electrode)共平面。 第一導電柱160係貫穿第一介電層130,並分別與第一觸控墊 20 201044054 120及第一掃描線段150電性接觸’以令各個第—觸控墊12〇與第 一掃描線段150之間形成電性連接關係。 請繼續參閱「第12圖」，平坦層4〇〇係設置於第二介電層19〇 相對於透明基材110的另一側面上，以供後續的發光模組3〇〇製 程得以順利進行。本實施例的發光模組3〇〇為接觸型彩色濾光片 (color filter on touch，COT)，其包括有複數個彩色濾光片341、複 數個閘極電極342、-電極層343、及複數個薄膜電晶體344。其 〇中，彩色濾光片341係設置於第一介電層130上，並被第二介電 層190完全覆蓋，閘極電極342係設置於第二介電層19〇上，並 被平坦層400完全覆蓋，電極層343係設置於平坦層4㈨上，薄 膜電晶體344則電性設置於電極層343上。上述發光模組3〇〇的 各個元件係依序設置於平坦層400上，以與電容式觸控基板1〇〇 構成接觸型彩色航片(CQT)顯示面板。然而，值得注意的是，本 ❹實施例所述之平坦層400係為了提供發光模組3〇〇於製造時可設 置於-平坦面上，藉以提高發光模組3〇〇於製造時的良率。發光 模組300亦可直接設置於第二介電層19〇的上表面。 另外，本實施例之電容式觸控面板_亦包括有防電磁干擾 層或防護寄生電容干擾層（圖中未示），係設置於第二介電層19〇 上’藉以防止發光模組300所產生之電磁或是寄生電容的干擾， 避免電容式觸控面板600的效能受到影響。 请參閱「第η圖」之另-鶴之細型彩色觀#(c〇t)的 發光模組之結構示意圖。本型態之發光模組3〇〇與「第12圖」相 21 201044054 近’其包括有複數個彩色濾光片351、複數個閘極電極352、一電 極層353、複數個薄膜電晶體354、及一黑色矩陣作匕沈 matrix)355。其中’彩色濾光片351與黑色矩陣355係設置於第一 介電層130上，並被第二介電層19〇完全覆蓋，閘極電極352係 設置於第二介電層190上，並被平坦層4〇〇完全覆蓋，電極層353 係設置於平坦層400上，薄膜電晶體354則電性設置於電極層353 上。上述發光模組300的各個元件係依序設置於平坦層4〇〇上， 以與電谷式觸控基板1〇〇構成接觸型彩色濾光片（c〇T)顯示面 板。然而，值得注意的是，本實施例所述之平坦層4⑽係為了提 供發光模組300於製造時可設置於一平坦面上，藉以提高發光模 組300於製造時的良率。發光模組3〇〇亦可直接設置於第二介電 層190的上表面。 另外，本實施例之電容式觸控面板600亦包括有防電磁干擾 層或防護寄生電容干擾層（圖中未示），係設置於第二介電層19〇 上，藉以防止發光模組300所產生之電磁或是寄生電容的干擾， 避免電容式觸控面板600的效能受到影響。 請參閱「第14圖」，本發明之電容式觸控面板包括一透 明基材110、複數個第一觸控塾12〇、一第一介電層13〇、一第一 訊號線140、一第一掃描線段15〇、複數個第一導電柱16〇、一第 二掃描線段170、複數個第二觸控墊18〇、一平坦層4〇〇、及發光 模組300。其中，透明基材110之材質係選用氧化鋼錫((μ·他 Oxide，ITO)或是聚乙樓二氧噻吩(PED〇T)，但並不以此為限。第 22 201044054 觸控塾120係疋義為Y軸方向的觸控塾，且第一觸控塾I%係 設置於透明基材110的一側面上。第二觸控墊180係定義為χ軸 方向的觸控墊，並設置於透明基材110設有第一觸㈣120的側 面上，即第一觸控墊12〇與第二觸控墊180係位於同一平面上。 第一介電層130係設置於透明基材110上，並且覆蓋住第一 觸控墊120及第二觸控塾180。第一訊號線14〇與第一掃描線段 150係設置於第-介電層13〇相對於透明基材⑽的另—側面上， Ο並且第一訊號線140及第一掃描線段150與第一介電層13〇相接 觸，即第一訊號線140與第一掃描線段15〇係位在同一平面上。 第二掃描線段170與第-掃描線段15Q係相互垂直並且交錯設 置。第二掃描線段17〇係設置於透明基材11〇具有第二觸控墊“Ο 的側面上(即第二掃描線段17〇與第二觸控墊18〇係位在透明基材 no的同一側面上)，且各個第二觸控塾18〇係與第二掃描線段17〇 相互電性接觸，以形成電性連接關係。 0 本么月所揭路之第一訊號線可與閘極線/電極(蛛 lme/electrode)或資料線/電極(data line/eiectr〇de)共平面，第二訊號 線200可與閘極線/電極㈣e line/electr〇de)或資料線/電極_ line/electrode)共平面。 第導電柱160係、貫穿第一介電層⑽，並分別與第一觸控墊 120及第一掃描線段15〇電性接觸，以令各個第一觸控墊與第 一掃描線段150之間形成電性連接關係。 5月繼續參閱「第14圖」，平坦層400係設置於第一介電層13〇 23 201044054 相對於透明基材110的另一侧面上’以供後續的發光模組3〇〇製 程得以順利進行。本實施例的發光模組300為矩陣型彩色滤光片 (color filter on array ’ COA)的發光模組之結構示意圖，其包括有一 電極層361、複數個薄膜電晶體362、複數個彩色濾光片363、及 一第四介電層364。其中，電極層361係設置於平坦層4〇〇上，薄 膜電晶體362與彩色濾光片363係分別設置於電極層361上，第 四介電層364則設置於平坦層上，並且完全覆蓋住電極層361、薄 膜電晶體362、及彩色濾光片363。上述發光模组3〇〇的各個元件 係依序設置於平坦層400上，以與電容式觸控基板應構成矩陣 型彩色濾光片（COA)顯示面板。然而，值得注意的是，本實施例所 述之平坦層400係為了提供發光模組3⑻於製造時可設置於—平 坦面上’藉以提高發光模、组3〇〇於製造時的良率。發光模組· 亦可直接設置於第一介電層〗3〇的上表面。 另卜本貫施例之電谷式觸控面板働亦包括有防電磁干擾 層或防護寄生電容干擾層（圖中未示），係設置於第一介電層13〇 上，藉以防止發光模組300所產生之電磁或是寄生電容的干擾， 避免電谷式觸控面板6〇〇的效能受到影響。 述第9A圖」至「第14圖」所揭示之各種類型的電容式 觸控面板600柯採用本發明各實施例之電容式觸控基板漏 的型態，且發光模組300的類型並不限定於上述各實施例的型態， 熟悉此項麟者’村料__發辅組設置於本發明 之各實施例的電容式觸控基板励±，以構成各種類型的電容式 24 201044054 觸控面板繼，並不以本發明所揭露之實施例為限。 請參閱「第15Α圖」至「笛 掃描線段之組成示意圖。帛视圖」之不同型態的觸控塾與 如# 15Α圖」所示，此一型態之實施例 板6〇0組成在一顯示面板咖上，但就整體 片的觸控硫’本魏_糾雜方式何 ㈣ Ο Ο 中區分成多個尺寸較小的觸控面板區域。第^ 線係採取最短距離方式設計，第—掃描線段 7…、車列1G同侧拉線，亦糊反向拉線的方式，而第 二掃描線段Π0 _分為兩邊條短距離拉線。 如「請圖」所示，此一型態之實施例係可視為兩片觸护 面板_組成在—顯示秘_上，但就整體製程而言，仍為單 一片的觸控面板，本實施例係藉由佈線方式而可於單—片觸控面 板中區分成多個尺寸較小_控面板區域。第—掃描線段⑼ 第二掃描線段170的拉線係採取相同訊號皆以同側進行線路佈置 的設計。此時，第一掃描線段15〇及第二掃描線段17〇可與顯示Transistor, TFT) 32 passivation layer 322, liquid crystal layer 323, color filter 324, electrode layer 325, and backlight 326 are sequentially disposed on the flat layer 400. A thin film G transistor liquid crystal display panel is formed with the capacitive touch substrate 100. It should be noted that the flat layer 4 described in this embodiment can be disposed on a flat surface in order to provide the light-emitting module 300, so as to improve the yield of the light-emitting module 300 at the time of manufacture. The light emitting module 3 can also be directly disposed on the upper surface of the first dielectric layer 130. In addition, the capacitive touch panel 600 of the present embodiment also includes an anti-electromagnetic interference layer 51 or a parasitic capacitance interference layer 520, which is disposed on the first dielectric. On the layer 13 ,, the electromagnetic or parasitic capacitance generated by the illuminating module 3 防止 is prevented from being disturbed, and the performance of the capacitive touch panel 6 避免 is prevented from being affected. The capacitive touch panel 600 of the present invention includes a transparent substrate no, a plurality of first touch pads 12A, a first dielectric layer 130, and a first A signal line 14A, a first scanning line segment 150, a plurality of first conductive pillars 160, a second scanning line segment no, a plurality of second touch pads 18A, a flat layer 400, and a light emitting module 300. Among them, the material of the transparent substrate 11 is selected from Indium Tin Oxide (ITO) or polyethylene dioxythiophene (PED〇T), but 17 201044054 is not limited thereto. The pad 12 is defined as a touch pad in the γ-axis direction, and the first touch pad 120 is disposed on one side of the transparent substrate 110. The second touch pad 18 is defined as a touch pad in the X-axis direction. And disposed on the side of the transparent substrate 11 () provided with the first touch pad 120, that is, the first touch pad 12 and the second touch pad 18 are on the same plane. The first dielectric layer 130 The first touch line 120 and the first touch line 150 are disposed on the first dielectric layer 13 relative to the first touch pad 120 and the second touch pad 180. On the other side of the transparent substrate n〇, and the first imaginary line 140 and the first scanning line segment 150 are in contact with the first dielectric layer 13 ,, that is, the first signal line 140 is connected to the first scanning line segment 丨5 The first scanning line segment 17 is perpendicular to the first scanning line segment 15 and is staggered. The second scanning line segment 170 is disposed in the same direction. The substrate 11 has a second touch pad 18 〇 on the side (ie, the second scan line segment 170 and the second touch pad 18 〇 are on the same side of the transparent substrate no)) and each of the second touch pads The 180 series and the second scanning line segment 17 are electrically in electrical contact with each other to form an electrical connection relationship. The first signal line MO disclosed in the present invention can be connected to a gate line/electrode or a data line/electrode ( The data line/electr〇de) is coplanar, and the second signal line 200 can be coplanar with the gate line/electr〇de or the data line/electrode (4)& line/electrode. The first conductive pillar 160 is electrically connected to the first touch panel 120 and the first scan line segment 15G, so that each of the first touch pads 12 and the first scan line segment 150 Form an electrical connection relationship. 18 201044054 "Monthly continue to refer to "Dimensions 11A" and "1 iB", the flat layer 400 is disposed on the other side of the first dielectric layer 130 opposite to the transparent substrate 11 for subsequent illumination The process of module 300 can be carried out smoothly. The illumination module 3 of the embodiment is an electrophoretic display (EPD), which includes a plurality of thin film transistors (TFTs) 331, passivation layers 332, and electrophoresis layers (e! The ectr〇ph〇resis iayer 333, the color filter 334, the electrode layer 335, and the substrate 336′ are sequentially disposed on the flat layer 〇40〇 to form an electrophoretic type with the capacitive touch substrate 100. Display panel. It should be noted that the flat layer 4 of the embodiment can be disposed on a flat surface in order to provide the light-emitting module 3, thereby improving the yield of the light-emitting module 3 during manufacturing. . The light emitting module 300 can also be directly disposed on the upper surface of the first dielectric layer 13 (). If the capacitive touch panel 6 of the embodiment is in a black and white display manner, the color filter 334 in the light emitting module 300 can be removed. In addition, please refer to "11A" and "11B". The capacitive touch panel 600 of the present embodiment also includes an anti-electromagnetic interference layer 51 or a parasitic capacitance interference layer 520. The electrical layer 13 is used to prevent the electromagnetic or parasitic capacitance generated by the light-emitting module 3 from being disturbed, thereby preventing the performance of the capacitive touch panel 6 from being affected. Please refer to FIG. 12 , the capacitive touch panel 6 本 of the present invention includes a transparent substrate 110 , a plurality of first touch pads 12 , a first dielectric layer 13 , and a second dielectric . The layer 190, a first signal line 140, a first scan line segment 150, a plurality of first conductive pillars 160, a second scan line segment 170, a plurality of second touch pads 18A, - 201044054 flat layer 400, and illumination Module 300. Among them, the material of the transparent substrate 11 is made of indium tin oxide (ITO) or polyethylene dioxin (ped〇t), but it is not limited thereto. The 120 is defined as a touch pad in the γ-axis direction, and the first touch pad 120 is disposed on one side of the transparent substrate 11 . The second touch pad 180 is defined as a touch pad in the X-axis direction, and The first touch pad 12 is disposed on the same plane as the second touch pad 120. The first dielectric layer 130 is disposed on the same surface of the first touch pad 120. On the transparent substrate no, and covering the first touch pad 120 and the second touch pad 180. The first signal line 14 〇 and the first scan line segment 150 are disposed on the first dielectric layer 13 〇 relative to the transparent substrate On the other side of the 11th turn, the first signal line 140 and the first scan line segment 15A are in contact with the first dielectric layer i3, that is, the first signal line 140 is in the same plane as the first scan line segment 150. The second scanning line segment 170 and the first scanning line segment 150 are perpendicular to each other and staggered. The second scanning line segment no is disposed on the transparent substrate 110. The second touch pad 18 is on the side of the second touch pad 18 (ie, the second scan line 170 and the second touch pad 18 are on the same side of the transparent substrate no), and each of the second touch pads 180 is connected to the second The scanning line segments 17 are electrically connected to each other to form an electrical connection relationship. The first signal line 14 本 disclosed in the present invention can be connected to a gate line/electrode or a data line/electrode (eg, iine/ The eiectr〇(je) is coplanar, and the second signal line 200 can be coplanar with the gate line/electrode (gate iine/eiectr〇de) or the data line/electrode (4)& line/electrode. The first dielectric layer 130 is in electrical contact with the first touch pad 20 201044054 120 and the first scan line segment 150 respectively to form an electrical connection between each of the first touch pads 12A and the first scan line segment 150. Please continue to refer to "Fig. 12", the flat layer 4 is disposed on the other side of the second dielectric layer 19 〇 relative to the transparent substrate 110 for subsequent illumination module 3 The light-emitting module 3 of the present embodiment is a color filter on touch (COT), The plurality of color filters 341, the plurality of gate electrodes 342, the -electrode layer 343, and the plurality of thin film transistors 344 are included. The color filter 341 is disposed on the first dielectric layer 130. And is completely covered by the second dielectric layer 190, the gate electrode 342 is disposed on the second dielectric layer 19, and is completely covered by the flat layer 400, the electrode layer 343 is disposed on the flat layer 4 (9), the thin film transistor 344 Then, it is electrically disposed on the electrode layer 343. The components of the light-emitting module 3 are sequentially disposed on the flat layer 400 to form a contact-type color aerial film (CQT) display panel with the capacitive touch substrate 1A. However, it should be noted that the flat layer 400 described in the embodiment of the present invention can be disposed on a flat surface in order to provide the light-emitting module 3, thereby improving the brightness of the light-emitting module 3 during manufacture. rate. The light emitting module 300 can also be disposed directly on the upper surface of the second dielectric layer 19A. In addition, the capacitive touch panel of the present embodiment also includes an anti-electromagnetic interference layer or a parasitic capacitance interference layer (not shown) disposed on the second dielectric layer 19 ' to prevent the illumination module 300 from being The generated electromagnetic or parasitic capacitance interference prevents the performance of the capacitive touch panel 600 from being affected. Please refer to the structure diagram of the light-emitting module of the "Nth Map". The light-emitting module of the present type is connected to the "Fig. 12" phase 21 201044054. The present invention includes a plurality of color filters 351, a plurality of gate electrodes 352, an electrode layer 353, and a plurality of thin film transistors 354. And a black matrix for mamtrix)355. The color filter 351 and the black matrix 355 are disposed on the first dielectric layer 130 and completely covered by the second dielectric layer 19, and the gate electrode 352 is disposed on the second dielectric layer 190. The electrode layer 353 is disposed on the flat layer 400, and the thin film transistor 354 is electrically disposed on the electrode layer 353. The components of the light-emitting module 300 are sequentially disposed on the flat layer 4A to form a contact-type color filter (c〇T) display panel with the electric valley touch substrate 1A. However, it is to be noted that the flat layer 4 (10) of the present embodiment is provided to provide a light-emitting module 300 on a flat surface during manufacture, thereby improving the yield of the light-emitting module 300 at the time of manufacture. The light emitting module 3 can also be directly disposed on the upper surface of the second dielectric layer 190. In addition, the capacitive touch panel 600 of the present embodiment also includes an anti-electromagnetic interference layer or a parasitic capacitance interference layer (not shown) disposed on the second dielectric layer 19 , to prevent the illuminating module 300 . The generated electromagnetic or parasitic capacitance interference prevents the performance of the capacitive touch panel 600 from being affected. Please refer to FIG. 14 , the capacitive touch panel of the present invention includes a transparent substrate 110 , a plurality of first touch pads 12 , a first dielectric layer 13 , a first signal line 140 , and a first The first scanning line segment 15 , the plurality of first conductive pillars 16 , the second scanning line segment 170 , the plurality of second touch pads 18 , the flat layer 4 , and the light emitting module 300 . The material of the transparent substrate 110 is selected from the group consisting of tin oxide ((μ··································································· The 120 touch panel is a touchpad in the Y-axis direction, and the first touchpad I% is disposed on one side of the transparent substrate 110. The second touchpad 180 is defined as a touchpad in the x-axis direction. The first touch pad 12 is disposed on the same plane as the second touch pad 180. The first dielectric layer 130 is disposed on the transparent substrate. 110, and covering the first touch pad 120 and the second touch pad 180. The first signal line 14 and the first scan line segment 150 are disposed on the first dielectric layer 13 〇 relative to the transparent substrate (10) On the side, the first signal line 140 and the first scanning line segment 150 are in contact with the first dielectric layer 13A, that is, the first signal line 140 is in the same plane as the first scanning line segment 15〇. The scanning line segment 170 and the first scanning line segment 15Q are perpendicular to each other and staggered. The second scanning line segment 17 is disposed on the transparent substrate 11 and has a second The control pad is on the side of the Ο (ie, the second scanning line segment 17 〇 and the second touch pad 18 〇 are on the same side of the transparent substrate no), and each of the second touch 塾 18 与 and the second scanning The line segments 17 are electrically connected to each other to form an electrical connection relationship. 0 The first signal line of the road revealed by this month can be connected to the gate line/electrode (spike lme/electrode) or data line/electrode (data line/eiectr). 〇de) coplanar, the second signal line 200 may be coplanar with the gate line/electrode (4) e line/electr〇de) or the data line/electrode _ line/electrode. The first conductive pillar 160 is through the first dielectric layer (10), and electrically contacting the first touch pad 120 and the first scan line segment 15 respectively to form an electrical connection relationship between each of the first touch pads and the first scan line segment 150. 14, the flat layer 400 is disposed on the first dielectric layer 13〇23 201044054 on the other side of the transparent substrate 110 for the subsequent illumination module 3 to be smoothly processed. The light-emitting module 300 of the embodiment is a schematic diagram of a light-emitting module of a color filter on array (COA), which comprises an electrode layer 361, a plurality of thin film transistors 362, and a plurality of color filters. A sheet 363 and a fourth dielectric layer 364. The electrode layer 361 is disposed on the flat layer 4, the thin film transistor 362 and the color filter 363 are respectively disposed on the electrode layer 361, and the fourth dielectric layer 364 is disposed on the flat layer and completely covered. The electrode layer 361, the thin film transistor 362, and the color filter 363 are housed. The components of the light-emitting module 3 are sequentially disposed on the flat layer 400 to form a matrix color filter (COA) display panel with the capacitive touch substrate. However, it is to be noted that the flat layer 400 of the present embodiment is provided to provide a light-emitting module 3 (8) which can be disposed on a flat surface during manufacture to improve the yield of the light-emitting mold and the assembly. The light-emitting module can also be directly disposed on the upper surface of the first dielectric layer. In addition, the electric valley touch panel of the present embodiment also includes an anti-electromagnetic interference layer or a parasitic capacitance interference layer (not shown) disposed on the first dielectric layer 13 , to prevent the light-emitting module 300 from being disposed. The electromagnetic or parasitic capacitance generated by the interference prevents the performance of the electric valley touch panel 6 from being affected. The capacitive touch panel of the various embodiments of the present invention is in the form of a capacitive touch panel leakage according to various embodiments of the present invention, and the type of the light emitting module 300 is not It is limited to the types of the above embodiments, and is familiar with the capacitive touch substrate excitation ± provided in the embodiments of the present invention to form various types of capacitive type 24 201044054 The control panel is not limited to the embodiments disclosed in the present invention. Please refer to the "Figure 15" to "Divided Scanning Line Segments. 帛 View" of different types of touch 塾 and as shown in Figure #15, this type of embodiment board 6〇0 is composed A display panel on the coffee, but on the overall film touch sulfur 'Ben Wei _ 杂 方式 何 何 ( ( ( 区分 区分 区分 区分 区分 区分 区分 区分 区分 区分 区分 区分 区分 区分 区分 区分 区分 区分 区分 区分 区分 区分The second line is designed by the shortest distance method. The first scanning line segment 7..., the train 1G is pulled on the same side, and the second scanning line segment Π0 _ is divided into two sides and the short distance is drawn. As shown in the "Please" figure, this type of embodiment can be regarded as a two-piece touch panel _ composition-display secret _, but in terms of the overall process, it is still a single-chip touch panel, this implementation The example can be divided into a plurality of smaller size control panel areas in the single-chip touch panel by means of wiring. The first scanning line segment (9) The drawing of the second scanning line segment 170 adopts the design that the same signal is arranged on the same side. At this time, the first scan line segment 15〇 and the second scan line segment 17〇 can be displayed
陣列8川_拉線’亦可反向拉線的方式，關拉線可藉I 在不同觸控面板之相同方向錯開一個或數細示晝素位置而達 成。 如「第15C圖」所示，此一型態之實施例係可視為四片觸控 面板_組成在-顯示面板_上，但就整難飾言，仍為單 一月的觸控面板，本實施例係藉由佈線方式而可於單一片觸控面 25 201044054 板中區分成多個尺寸較小 150及第二掃描線段17〇 計。 的觸控面板區域。其中，第—掃描線段 的拉線係採取朝向兩邊最短距離方式設 如第5D圖」所不’此—型態之實施例係可視為四片觸控 面板600減在-I蹄龍8⑽上，但就整體製㈣言，仍為單 片的觸控面板’本實施例係藉由佈線方式而可於單一片觸控面 板中區分成多個尺寸較小_控面板_。其中，第—掃描職 150及第二掃描線段17G的拉線係採取相同訊號皆以_進行線 路佈置的設計。此時，第—掃描線段及第二掃描線段17〇可 與顯示陣列810同側拉線，亦可採用反向拉線的方式。 如「第15E圖」所示，此一型態之第一»線段150及第二 掃描線段170皆係採用同一側拉線的設計，並且第二掃描線段削 藉由與導電通孔(via撼)900的電性連接，而令第二掃描線段⑺ 與^-掃描線段150位於同-平面上。此時，第—婦描線段15〇 及第二掃描線段17G可為_拉線或是反向拉，以達到 降低電阻或是配合佈線設計的效果。 本發明所揭露之電容式觸控基板結構及電容式觸控面板結 構，係以内嵌式(in cell)的方式直接於面板内製造電容觸控元件， 取代各用電谷觸控元件以貼合方式設置於面板上的結合手段，有 效減少光罩的使用數量及降低導線電阻，並且避免觸控墊與晝素 之間產生對位飄移的問題，大幅提高電容式觸控面板的解析度。 另外，本發明之電容式觸控基板可與各種型態的發光模組搭 26 201044054 配結合，以構成多種類型的電容式顯示面板。 • 雖然本發明之實施例揭露如上所述，然並非用以限定本發 明，任何熟習相關技藝者，在不脫離本發明之精神和範圍内，舉 凡依本發日財雜_叙雜、絲、概及精神#可做些許 之變更，本發明之翻賴侧馳核财_之申 利範圍所界定者為準。 【圖式簡單說明】 〇第1圖為本發明-實施例之觸控墊與掃描線段之組成示意圖； 々第2圖為本發明第—實施例之電容式觸控基板之上視圖； 第3圖為本發明第—實施例之電容_控基板之結構示意圖； 第4圖為本發明第二實施例之電容式觸控基板之結構示意圖； 第5圖為本發明第三實施例之電容式觸控基板之結構示意圖； 第6圖為本發明另—實施例之觸控塾與掃描線段之組成示意圖； 第7圖為本翻—實施例之觸錄與晝素之設係示意圖； 第8圖為本發明另—實施例之觸轉與晝素之設置關係示意圖； 第9A圖為本發明第一實施例之電容式觸控面板之結構示意圖； 第犯圖為本發明第一實施例之電容式觸控面板之另一態樣之結 構不意圖； 第10A圖為本發明第二實施例之電容式觸控面板之結構示意圖； 第應圖為本發明第二實施例之電容式觸控面板之另一能樣之鱗 構示意圖； " 第11A圖為本發明第三實施例之電容式觸控面板之結構示意圖·， 201044054 一態樣之結 第11B圖為本發明第三實施例之電容式觸控面板之另 構不意圖； 第12圖為本發明第四實施例之電容式觸控面板之結構示音圖. 第13圖為本發明第五實施例之電容式觸控面板之結構示意圖. 第14圖為本發明第六實施例之電容式觸控面板之結構示意圖； 第15A圖為本發明不同型態之觸控墊與掃描線段之組成示意圖； 第15B圖為本發明不同型態之觸控墊與掃描線段之組成示意圖； 第1SC圖為本發明不同型態之觸控墊與掃描線段之組成示意圖； 第卻圖為本發料同型態之觸控塾與掃描線段之組成示意圖； 以及 第说圖為本發明不同型態之觸控塾與掃描線段之組成示意圖 【主要元件符號說明】 100 電容式觸控基板 110 透明基材 120 第一觸控墊 130 第一介電層 140 第一訊號線 150 第一掃描線段 160 第一導電柱 170 第二掃描線段 180 第二觸控墊 190 第二介電層 28 201044054The array 8 _ pull line ' can also be reversed to pull the line, and the pull line can be obtained by shifting one or several fine pixels in the same direction of different touch panels. As shown in Figure 15C, this type of embodiment can be regarded as four touch panels _ on the - display panel _, but it is difficult to say, still a single month touch panel, this The embodiment can be divided into a plurality of smaller sizes 150 and second scanning line segments 17 in a single piece of touch surface 25 201044054 by means of wiring. Touch panel area. Wherein, the drawing of the first scanning line segment is set to the shortest distance between the two sides, as shown in FIG. 5D. This embodiment can be regarded as a four-touch panel 600 minus the -I-hoofed 8 (10). However, in the case of the overall system (4), the single-touch panel is still a single-piece touch panel that can be divided into a plurality of smaller sizes by the wiring method. The drawing lines of the first scanning task 150 and the second scanning line segment 17G adopt the same signal design with _ line arrangement. At this time, the first scanning line segment and the second scanning line segment 17A can be pulled on the same side as the display array 810, or a reverse pulling wire can be used. As shown in FIG. 15E, the first line segment 150 and the second scanning line segment 170 of the first type are designed with the same side wire, and the second scanning line segment is cut by the conductive via (via撼). The electrical connection of 900 is such that the second scan line segment (7) and the scan line segment 150 are in the same plane. At this time, the first and second scanning line segments 15A and 17G may be pulled or reversed to achieve the effect of lowering the resistance or matching the wiring design. The capacitive touch substrate structure and the capacitive touch panel structure disclosed in the present invention directly manufacture a capacitive touch component in an in-cell manner in an in-cell manner, instead of using each of the electric valley touch components to fit The combination means arranged on the panel effectively reduces the number of use of the mask and reduces the resistance of the wire, and avoids the problem of the drift of the alignment between the touch pad and the element, thereby greatly improving the resolution of the capacitive touch panel. In addition, the capacitive touch substrate of the present invention can be combined with various types of light-emitting modules 26 201044054 to form various types of capacitive display panels. The embodiments of the present invention are disclosed above, but are not intended to limit the present invention, and those skilled in the art, without departing from the spirit and scope of the present invention, A summary of the changes may be made to the extent that the scope of the application of the invention is defined by the scope of the application. BRIEF DESCRIPTION OF THE DRAWINGS FIG. 1 is a schematic view showing the composition of a touch pad and a scanning line segment according to a first embodiment of the present invention; FIG. 2 is a top view of a capacitive touch substrate according to a first embodiment of the present invention; FIG. 4 is a schematic structural view of a capacitive touch panel according to a second embodiment of the present invention; FIG. 5 is a schematic structural view of a capacitive touch substrate according to a second embodiment of the present invention; FIG. 6 is a schematic diagram showing the composition of a touch panel and a scanning line segment according to another embodiment of the present invention; FIG. 7 is a schematic diagram showing the structure of the touch and the pixel in the embodiment of the present invention; FIG. 9A is a schematic structural view of a capacitive touch panel according to a first embodiment of the present invention; FIG. 9A is a schematic structural view of a capacitive touch panel according to a first embodiment of the present invention; The structure of another aspect of the capacitive touch panel is not intended; FIG. 10A is a schematic structural view of a capacitive touch panel according to a second embodiment of the present invention; Another kind of scale composition of the panel FIG. 11A is a schematic structural view of a capacitive touch panel according to a third embodiment of the present invention. FIG. 11B is a perspective view of a capacitive touch panel according to a third embodiment of the present invention. 12 is a structural diagram of a capacitive touch panel according to a fourth embodiment of the present invention. FIG. 13 is a schematic structural view of a capacitive touch panel according to a fifth embodiment of the present invention. FIG. 15A is a schematic diagram showing the composition of different types of touch pads and scanning lines according to the present invention; FIG. 15B is a view showing different types of touch pads and scanning according to the present invention; Schematic diagram of the composition of the line segment; the 1SC diagram is a schematic diagram of the composition of the touch pad and the scanning line segment of different types of the invention; the second figure is a schematic diagram of the composition of the touch pad and the scanning line segment of the same type of the hair piece; The schematic diagram of the composition of the touch 塾 and the scanning line segment of different types of the invention [main component symbol description] 100 capacitive touch substrate 110 transparent substrate 120 first touch pad 130 first dielectric layer 140 first signal line 150 First scan line segment 160 first conductive pillar 170 second scan line segment 180 second touch pad 190 second dielectric layer 28 201044054
200 第二訊號線 210 第二導電柱 220 第三介電層 300 發光模組 311 有機發光二極體 312 主動層 313 鈍化層 314 電極層 321 薄膜電晶體 322 鈍化層 323 液晶層 324 彩色滤·光片 325 電極層 326 背光源 331 薄膜電晶體 332 純化層 333 電泳層 334 彩色慮光片 335 電極層 336 基板 341 彩色滤·光片 342 閘極電極 29 201044054 343 電極層 344 薄膜電晶體 351 彩色濾光片 352 閘極電極 353 電極層 354 薄膜電晶體 355 黑色矩陣 361 電極層 362 薄膜電晶體 363 彩色濾光片 364 第四介電層 400 平坦層 510 防電磁干擾層 520 防護寄生電容干擾層 600 電容式觸控面板 700 晝素 800 顯示面板 810 顯示陣列 900 導電通孔 30200 second signal line 210 second conductive pillar 220 third dielectric layer 300 light emitting module 311 organic light emitting diode 312 active layer 313 passivation layer 314 electrode layer 321 thin film transistor 322 passivation layer 323 liquid crystal layer 324 color filter light Sheet 325 Electrode Layer 326 Backlight 331 Thin Film Transistor 332 Purified Layer 333 Electrophoretic Layer 334 Color Matte Sheet 335 Electrode Layer 336 Substrate 341 Color Filter Light Sheet 342 Gate Electrode 29 201044054 343 Electrode Layer 344 Thin Film Transistor 351 Color Filter Sheet 352 Gate electrode 353 Electrode layer 354 Thin film transistor 355 Black matrix 361 Electrode layer 362 Thin film transistor 363 Color filter 364 Fourth dielectric layer 400 Flat layer 510 Anti-electromagnetic interference layer 520 Protection parasitic capacitance interference layer 600 Capacitive Touch panel 700 halogen 800 display panel 810 display array 900 conductive vias 30