200834491 FU60434iSEZlTW 22876twf.doc/n 九、發明說明： 【發明所屬之技術領域】 本發明是有關於一種顯示裝置，且特別是有關於一種 具有修復電路佈局之顯示裝置。 【先前技術】 隨著科技的發展，電子產品已充斥於人們的日常生活 中，顯示裝置更成為人們獲取資訊的重要媒介。一般而言， 顯示裝置中具有顯示資訊的顯示面板（Display Panel)與 控制顯示面板之驅動電路。驅動電路透過資料線提供資料 訊號給顯示面板之晝素（Pixel)，以使得顯示面板呈現晝 面0 然而，在製造顯示裝置的過程中，常發生資料線斷線 之問題，使得顯示裝置之良率下降。為了解決資料線斷線 之問題，習知技術提出了一種修復斷線之技術。圖丨是一 種習知具有修復電路佈局之顯示裝置的示意圖。請參照圖 1 ’顯示裝置100包括第一基板Π0與第二基板120，而第 二基板120具有放大器126。第一基板no例如是顯示面 板。第二基板120例如是驅動電路板。第一基板11()包括 了多個畫素112。弟二基板120透過多條資料線（以資料 線122與124表示之）而提供資料訊號Vin給第一基板11〇 之畫素112。 假設資料線122發生斷線時（以圖i中之”χ，，表示斷 線之位置），可將資料線122分成資料線122Α與122Β， 6 200834491 FU60434SEZ1TW 22S76twf.doc/n 而資料訊號Vin僅能傳至資料線122A。換言之，資料線 122B無法接收到資料訊號Vin。為了使資料線122B也能 收到資料訊號Vin，因此習知技術利用雷射技術提供另一 訊號傳遞路徑。也就是，利用雷射技術分別對熔接點M1 與熔接點M3進行熔接。如此一來，資料訊號vin則可依 序經過導線122A、熔接點Ml、放大器126、熔接點M3 而傳到資料線122B，使資料線122B所耦接之晝素（未繪 示）也能呈現資料。 圖2是依照圖1所繪示之等效電路示意圖。請參照圖 1與圖2，端點A可接收到資料訊號Vin。由於放大器126 之兩輸入端可視為虛擬短路（Virtual Short)，因此端點b 同樣會接收到資料訊號Vin。此外，由於端點b與端點c 之間的阻抗相當小，因此端點C之資料訊號Vout，可視為 與端點B之資料訊號Vin相同。由上述可推得端點D之資 料訊號Vout=VinxZs/ (Zr+Zs)，其中阻抗Zr為端點c 與端點D之間的導線阻抗，阻抗Zs為端點D與斷線位置，， X”之間的導線阻抗。 值得注意的是，習知技術雖然解決了斷線問題，但是 端點C與端點D之間的阻抗卻造成了訊號之衰減。訊號衰 減會使資料線122B所連接之晝素（未繪示）無法得到^ 夠強度的訊號，因此在資料線122B所連接之晝素（未纷 示）所顯示的亮度與理想值之間會存在較大差距，造成了 晝面之失真。若能使端點D之訊號V〇ut更近似於端點a 之訊號，則能大幅改善資料線122B所連接之畫素π:的 7 200834491 ^ut)U434b£ZlTW 22876twf.doc/n 亮度與理想值不一致之問題。 有鑒於此，顯示裝置的相關製造商莫不急於尋求適去 的解決方式，以克服上述的問題。 田 【發明内容】 示裝置包括第一基板'第二基板、第一放大器、第 本發明提供一種具有修復電路佈局之顯示裝置，不作 解決面板的斷線問題，更降低了訊號因衰減而造成之失真: 本發明長：出一種具有修復電路佈局之顯示裝置。具 二端。第一回授線之第一 端，此笛一 A綠一 此第一回授線之第二端與第一絛指綠夕毺拉机二#社 一端耦接於第一放大器之第二輸入200834491 FU60434iSEZlTW 22876twf.doc/n IX. Description of the Invention: [Technical Field] The present invention relates to a display device, and more particularly to a display device having a repair circuit layout. [Prior Art] With the development of technology, electronic products have been filled with people's daily lives, and display devices have become an important medium for people to obtain information. Generally, a display device has a display panel for displaying information and a driving circuit for controlling the display panel. The driving circuit provides a data signal to the Pixel of the display panel through the data line, so that the display panel is in a plane. However, in the process of manufacturing the display device, the problem of data line disconnection often occurs, so that the display device is good. The rate drops. In order to solve the problem of data line disconnection, the prior art proposes a technique for repairing a broken line. Figure 丨 is a schematic diagram of a conventional display device with a repair circuit layout. Referring to FIG. 1, the display device 100 includes a first substrate Π0 and a second substrate 120, and the second substrate 120 has an amplifier 126. The first substrate no is, for example, a display panel. The second substrate 120 is, for example, a drive circuit board. The first substrate 11() includes a plurality of pixels 112. The second substrate 120 is provided with a data signal Vin to the pixel 112 of the first substrate 11 through a plurality of data lines (indicated by data lines 122 and 124). Assuming that the data line 122 is disconnected (in the figure i, χ, indicating the position of the broken line), the data line 122 can be divided into data lines 122Α and 122Β, 6 200834491 FU60434SEZ1TW 22S76twf.doc/n and the data signal Vin is only It can be transmitted to the data line 122A. In other words, the data line 122B cannot receive the data signal Vin. In order to enable the data line 122B to receive the data signal Vin, the prior art uses laser technology to provide another signal transmission path. The welding point M1 and the welding point M3 are respectively welded by the laser technology. Thus, the data signal vin can be sequentially transmitted to the data line 122B through the wire 122A, the fusion point M1, the amplifier 126, and the fusion point M3 to make the data The data (not shown) coupled to the line 122B can also present data. Fig. 2 is a schematic diagram of an equivalent circuit according to Fig. 1. Referring to Fig. 1 and Fig. 2, the terminal A can receive the data signal Vin. Since the two inputs of the amplifier 126 can be regarded as a virtual short, the end point b will also receive the data signal Vin. In addition, since the impedance between the end point b and the end point c is relatively small, the end point C The data signal Vout can be regarded as the same as the data signal Vin of the endpoint B. The data signal Vout=VinxZs/(Zr+Zs) of the endpoint D can be derived from the above, wherein the impedance Zr is between the endpoint c and the endpoint D. The wire impedance, impedance Zs is the impedance of the wire between the end point D and the wire break position, X". It is worth noting that although the prior art solves the disconnection problem, the impedance between the endpoint C and the endpoint D causes the signal to decay. The signal attenuation will make the signal (not shown) connected to the data line 122B unable to obtain the signal of sufficient intensity, so that the brightness and the ideal value displayed by the pixel (not shown) connected to the data line 122B will be There is a big gap, causing distortion in the face. If the signal V〇ut of the endpoint D can be more approximated to the signal of the endpoint a, the pixel π of the data line 122B can be greatly improved. 7 200834491 ^ut) U434b£ZlTW 22876twf.doc/n Brightness and The problem of inconsistent ideal values. In view of this, related manufacturers of display devices are not eager to find a suitable solution to overcome the above problems. FIELD OF THE INVENTION The present invention includes a first substrate 'second substrate, a first amplifier, and the present invention provides a display device having a repair circuit layout, which does not solve the problem of disconnection of the panel, and further reduces the signal due to attenuation. Distortion: The present invention is a display device having a repair circuit layout. With two ends. At the first end of the first feedback line, the flute is a green one. The second end of the first return line is coupled to the first input of the first finger, the green end of the first circuit.
線、第一修復線與第一回授線。第一基板上配置有多條資 料線，其中每一條資料線耦接於相對應之多個晝素。第二 基板上配置有第一驅動電路，此第一驅動電路耦接於每一 料料線m-預備線與至少部分之資料線的 :端浮接而適於互祕接，此第—預備線並峨第—放大 =第-輸入端。第-修復線之第—端麵接於第一放大哭 二^出，’此第-修復線之第二端_於第—資料線之^ 斋之第一輸入端。第二修 之輪出端，此第二修復線 二端。第二回授線之第一 200834491 ruou43#i>£ZlTW 22876twfdoc/n 端耗接於第一放大盗之第二輸入端，此第二回授線之第二 端與第二修復線之連接點位於第一基板。 ’ 在本發明之一實施例中，上述之顯示裝置更包括第三 基板。弟二基板上配置有第二驅動電路。第一基板上更配 置有多條掃描線。每一條掃描線耦接於相對應之多個晝 素，而第二驅動電路耦接於每一條掃描線之第一端。此外二 第一修復線可依序通過第二基板、第三基板與第一基板。 • 另外，第一回授線可依序通過第二基板、第三基板與第一 基板。 在本發明之顯示裝置中，是利用放大器將因資料線發 生斷線而無法傳送到多個畫素之資料訊號透過另一路徑傳 送到上述晝素，並使放大器之回授點位於配置有上述畫素 之基板。如此一來，不但解決顯示裝置之資料線的斷線問 題更降低了負料訊號因哀減而造成之失真。 為讓本發明之上述特徵和優點能更明顯易懂，下文特 • 舉較佳實施例，並配合所附圖式，作詳細說明如下。 【實施方式】 圖3Α是依照本發明之第一實施例的具有修復電路佈 局之顯示裝置的示意圖。請參考圖3α，此具有修復電路佈 ^之顯不裝置300包括第一基板31〇、第二基板32〇、放大 器350、預備線Bkl、修復線R1〇與回授線F1〇。在本實 施=中，放大器350配置於第二基板32〇上，並以運算二 大器為例進行說明。第一基板310以玻璃基板為例來進行 9 200834491 ruoU434^£ZlTW 22876twf.doc/n e兑明，在其他實施例中第一基板也可以是其他類型基 板’例如為透明基板、壓克力基板…等等。第一基板310 上配置有多條資料線（在此以資料線332、334與336表示 之），其中每一條資料線耦接於相對應之多個晝素（在此 以畫素302表示之）。預備線Bkl與資料線332、334與 336的弟一端浮接（Fi〇ating)而適於互相溶接，且預備線 Bkl耦接於放大器350之第一輸入端。本實施例之顯示裝 置300可以是液晶顯示器、有機電激發光顯示器或其它 型式之顯示裝置。 第二基板320上配置有驅動電路33〇。在本實施例中， 第一基板320以印刷電路板（printed Circuit B〇ard，簡稱 PCB)為例進行說明，在另一實施例中本領域具有通常知 識者也可依其需求以其他形式之基板來實施第二基板 320，例如第二基板320可為軟性電路板或其他適當基板。 本實施例中，驅動電路330則以資料驅動電路（DataDrive Circuit)為例進行說明之。值得注意的是，圖中將驅 擊 動電路330繪示為跨接於第一基板310與第二基板320之 間，表示驅動電路330配置於跨接在第一基板31()與第二 基板320之間的軟性電路板上。此驅動電路33〇用於提供 資料訊號給第一基板310之資料線332、334與336。換言 之，驅動電路330用以提供資料訊號給晝素3〇2。於另一 實施例中，也可將驅動電路330直接配置於第二基板32〇 上。此外，本領域具有通常知識者應當知道，本實施例雖 以四個驅動電路330來進行說明，但在其他實施例中，驅Line, first repair line and first return line. A plurality of data lines are disposed on the first substrate, and each of the data lines is coupled to the corresponding plurality of pixels. a first driving circuit is disposed on the second substrate, and the first driving circuit is coupled to each of the material lines m-prepared lines and at least part of the data lines: the terminals are floating and are suitable for mutual connection, and the first preparation Line 峨 峨 - amplification = first - input. The first end face of the first repair line is connected to the first enlarged crying, and the second end of the first repair line is at the first input end of the first data line. The second repair wheel is the end of the second repair line. The first 200834491 ruou43#i>£ZlTW 22876twfdoc/n terminal of the second feedback line is connected to the second input end of the first magnifying thief, and the connection point between the second end of the second feedback line and the second repair line Located on the first substrate. In an embodiment of the invention, the display device further includes a third substrate. A second driving circuit is disposed on the second substrate. A plurality of scanning lines are further disposed on the first substrate. Each of the scan lines is coupled to the corresponding plurality of pixels, and the second drive circuit is coupled to the first end of each of the scan lines. In addition, the second first repairing line can sequentially pass through the second substrate, the third substrate, and the first substrate. • In addition, the first feedback line may sequentially pass through the second substrate, the third substrate, and the first substrate. In the display device of the present invention, the data signal that cannot be transmitted to the plurality of pixels due to the disconnection of the data line is transmitted to the pixel through another path by using an amplifier, and the feedback point of the amplifier is located in the above configuration. The substrate of the pixels. In this way, not only the problem of disconnection of the data line of the display device is solved, but also the distortion caused by the sag of the negative signal is reduced. The above described features and advantages of the invention will be apparent from the description of the appended claims. [Embodiment] Fig. 3A is a schematic view of a display device having a repair circuit layout in accordance with a first embodiment of the present invention. Referring to FIG. 3α, the display device 300 having the repair circuit includes a first substrate 31, a second substrate 32, an amplifier 350, a standby line Bk1, a repair line R1, and a feedback line F1. In the present embodiment, the amplifier 350 is disposed on the second substrate 32A, and an arithmetic unit will be described as an example. The first substrate 310 is exemplified by a glass substrate. In other embodiments, the first substrate may be another type of substrate, such as a transparent substrate, an acrylic substrate, or the like. and many more. A plurality of data lines (indicated by the data lines 332, 334 and 336) are disposed on the first substrate 310, wherein each of the data lines is coupled to a corresponding plurality of pixels (represented by pixels 302 herein) ). The standby line Bk1 is coupled to the other ends of the data lines 332, 334 and 336 to be mutually coupled, and the standby line Bk1 is coupled to the first input of the amplifier 350. The display device 300 of this embodiment may be a liquid crystal display, an organic electroluminescent display or other type of display device. A drive circuit 33A is disposed on the second substrate 320. In this embodiment, the first substrate 320 is exemplified by a printed circuit board (PCB). In another embodiment, those skilled in the art may also use other forms according to their needs. The second substrate 320 is implemented by a substrate. For example, the second substrate 320 may be a flexible circuit board or other suitable substrate. In this embodiment, the driving circuit 330 is described by taking a data driving circuit (DataDrive Circuit) as an example. It should be noted that the driving circuit 330 is shown as being connected between the first substrate 310 and the second substrate 320, and the driving circuit 330 is disposed across the first substrate 31 and the second substrate. 320 on the flexible circuit board. The driving circuit 33 is configured to supply data signals to the data lines 332, 334 and 336 of the first substrate 310. In other words, the driving circuit 330 is configured to provide a data signal to the pixel 3〇2. In another embodiment, the driving circuit 330 can also be directly disposed on the second substrate 32A. Moreover, those of ordinary skill in the art will appreciate that the present embodiment is illustrated with four drive circuits 330, but in other embodiments,
200834491 P060434SEZ1TW 22876twf.doc/E 動電路330之數量可依其需求任意調整。例如，在另一實 施例中’驅動電路330之數量可為一個。 、 圖3B是依照本發明之第一實施例之畫素的示意圖。 請同時參照圖3A與圖3B，在本實施例中驅動電路34〇以 掃描驅動電路（Scan Drive Circuit)為例，驅動電路340 透過多條掃描線（在此以掃描線342、344代表之）提供掃 描訊號給晝素302。每一個晝素302例如包括了電晶體 304、儲存電容306與晝素電容3〇8，如圖3B所示。 承上述，電晶體304之閘極端耦接於掃描線342，且 電晶體304之第一源汲極耦接於資料線332。儲存電容 之=一端耦接於電晶體304之第二源汲極，且儲存電容3〇6 之第二端耦接於第一電壓。晝素電容3〇8之第一端耦接於 電晶體304之第二源汲極，且晝素電容3〇8之第二端耦接 於第二電壓。簡而言之，驅動電路34〇是用以提供掃描訊 號給畫素302。圖3A之實施例雖以3個驅動電路34〇來進 行說明，但在其他實施例中，驅動電路34〇之數量可依其 需求任意調整。例如，驅動電路34〇之數量可為一個。 請繼續參照圖3A，當資料線334發生斷線時（以圖 3A中之’V，表示斷線之位置），驅動電路33〇所提供之資 料訊號將無法送至資料線334之下半部所輕接的各個晝素 302。為了使資料訊號也能傳送到資料線334之下半部^耦 接的各個晝素3G2，本實施例提供另一條路經以傳送資料 訊號。例如，在確認資料線334發生斷線後，先以雷射將 熔接點M10熔接起來，亦即將預備線BU與資料線 11 200834491 rwu^^foEZlTW 22876twf.doc/n 在牙接的位置互相溶接。藉此，可使預備線配與資料線 334互相‘通’則驅動電路33〇所提供之資料訊號即可依 序，資料f 334、熔接點M10與預備線胞而輸入至放 大抑350之第輸入端（正輸入端）。本實施例雖以雷射 技術為例對預備線Bkl與資料線334進行熔接，但本領域 具有通$知識者也可依其需求改變實施方式。換言之，當 貝料線334發生斷線時，可以任何方式將資料線334之第 一端輕接至放大器350之第一輸入端即可。 一承上述，接著將熔接點M12熔接，以使修復線Ri〇 與貝料線334之下半部相互耦接，但也可應用其他適當方 式將修復線R10與資料線334之下半部耦接。如此，即可 使驅動電路330所提供之資料訊號經過資料線334、熔接 點M10、預備線Bkl、放大器35〇、修復線R1〇、回授線 F10與熔接點M12而到達資料線334之下半部，解決了眘 料線糾發生斷線之問題。 請再參考圖3A，由圖3A中可以清楚看出修復線R1〇 與回授線F10之麵接關係。修復線Ri〇之第一端輕接於放 大器350之輸出端。回授線F10之第一端耦接於放大器35〇 之弟一輸入端（負輸入端）。回授線F10之第二端盘修復 線R10之連接點！)〗位於第一基板310上。本技術領域具 有通常知識者也可視其需求，而依據本發明之精神與前述 諸實施例之教示來改變連接點D1的位置，使放大器350 之回授訊號能從最接近資料線334之下半部的位置進行回 授。如此，即可獲得減少訊號之衰減的優點。 12 200834491 FU〇U4J4b£ZlTW 22876twf.doc/n 承上述，圖4是圖3A之等效電路示意圖。請同時參 照圖3A與圖4,圖4中之端點A1可接收到資料訊號Vin。 由於放大器350之兩個輸入端為虛擬短路，因此端點Bi 也可接收到資料訊號Vin。阻抗Zr代表修復線R1〇之阻 抗，阻抗Zf代表回授線F10之阻抗，阻抗Zs代表資料線 334從熔接點M12至斷線位置，，x”之間的導線阻抗。假設通 過端點C1之資料訊號為Vout，，通過連接點D1之資料气 號為Vout，通過端點C1之電流為ir，由連接點D1往阻 抗Zs之電流為Is，由連接點D1往阻抗Zf之電流為If。 由上述可推得回授線F10之壓差（亦即阻抗zf之壓差） △ V=Vout-Vin=IfxZf，因此 v〇ut=Vin+IfxZf。又因為放 大斋350之輸入端為高阻抗，因此電流if趨近於〇，也就 是說Vout=Vin。換言之，本實施例中因採用將回授線F1〇 與修復線R10之連接點D1之位置配置於第一基板31〇上 的設計，故可大幅減少資料訊號之衰減。如此，即可避免 因訊號衰減，而使斷線位置” x，，下方之資料線334所連接的 晝素302所顯示的亮度不足之問題。 本技術領域具有通常知識者也可視其需求，依據本發 明之精神與前述諸實施例之教示而改變放大器之數目，並 適當調整其耦接關係，即可用以修復多個斷線問題。例如， 圖5是依照本發明第二實施例之具有修復電路佈局之顯示 裝置的示意圖。請參考圖5,第一基板310、第二基板32〇、 驅動電路330、驅動電路340、修復線R10、回授線F10、 資料線332〜336、掃描線342與344、畫素302及放大器 13 200834491 FU6U434SEZ1TW 22 S7 6twf.doc/n 350與上述實施例相同，在此不再贅述。值得注意的是， 本實施例之放大器352、預備線Bk3、修復線與回授 線 F12。 承上述賓料線336也發生斷線時（以圖$中之，，χ，， 表示斷線之位置），驅動電路33〇所提供之資料訊號將盏 法送至資料線336之下半部所耦接的各個畫素3〇2。為了 使資料訊號也能傳送到資料線336之下半部所耦接的各個 晝素302，本實施例提供另一條路徑以傳送資料訊號。例 如，在確涊資料線336發生斷線後，以雷射將熔接點Μ14 熔接起來，亦即將預備線Bk3與資料線336在浮接的位置 互相熔接。藉此，可使預備線Bk3與資料線336互相導通， 則驅動電路330所提供之資料訊號即可依序經過資料線 336、熔接點M14與預備線Bk3而輸入到放大器352之第 一輸入端（正輸入端）。 承上述，接著將熔接點M16溶接，以使修復線R12 與資料線336之下半部相互耦接。如此，即可使驅動電路 • 330所提供之資料訊號經過資料線336、熔接點M14、預 備線Bk3、放大器352、修復線R12、回授後ρ 謂6而到達資料線336之下半部。域二^ = 線336發生斷線之問題，使資料線336之下半部所耦接的 晝素302接收到資料訊號。 請再參考圖5，由圖5中可以清楚看出修復線R12與 回授線F12之耦接關係。修復線R12之第一端耦接於放大 器352之輸出端。回授線F12之第一端耦接於放大器352 200834491 ruou^f^^EZlTW 22876twf.doc/n 之第一輸入端（負輸入端）。回授線F12之第二端與修復 線R12之連接點D3位於第一基板31〇上。值得住意的是， 連接點D3愈靠近發生斷線之資料線辦，則訊號衰減程度 就會愈小。因此，本實施例將連接點D3設計於第一基板 310上，以減少資料訊號衰減之情形。 本技術領域具有通常知識者也可視其需求，依據本發 明之精神與前述諸實施例之教示而改變修復線、回授線之 耦接路徑，並可適當改變驅動電路之配置位置。例如，圖 6是依照本發明第三實施例之具有修復電路佈局之顯示裝 置的示意圖。請參考圖6，第一基板310、第二基板320、 驅動電路330、資料線332〜336、掃描線342與344、畫 素302及放大器350與上述實施例相同，在此不再贅述。 值得注意的是，本實施例之修復線R14、回授線F14、驅 動電路340與第三基板360。 承上述，第三基板360以印刷電路板為例進行說明 之。在其他實施例中，第三基板360也可以是軟性電路板 或其他適當基板。在本實施例中，驅動電路340配置於跨 接在第一基板310與第三基板360之間的軟性電路板上。 驅動電路340用於提供掃描訊號給第一基板310之掃描線 342與344。於另一實施例中，也可將驅動電路340直接配 置於第三基板360上。此外，驅動電路340之數量也可依 其需求而改變之，例如在另一實施例中驅動電路340之數 量可為一個。 形成在印刷電路板（第三基板360)上之線路的阻抗 15 200834491 ruou^^oEZlTW 22876twf.doc/n 會小於形成在玻璃基板（第一基板310)上之線路的阻抗。 因此，為了改善訊號衰減之問題，本實施例之修復線R14 從放大器350之輸出端依序通過第二基板320與第三基板 360而至第一基板310。回授線fh則從放大器35〇之負 輸入端依序通過第二基板320與第三基板360而至第一基 板310 〇同時’修復線^^與回授線^^之連接點以位 於弟一基板310上。如此一來，可進一步降低修復線R14 與回授線F14之阻抗，藉以改善資料訊號衰減之情況。 本技術領域具有通常知識者也可視其需求，依據本發 明之精神與前述諸實施例之教示而改變放大器之配置位 置’並適當調整預備線、回授線與修復線之輕接路徑。例 如，可將圖6之實施例的放大器350配置於第三基板36〇。 又例如，可將各實施例的放大器350整合於驅動電路33〇 或驅動電路340中。 綜上所述，在上述本發明之各實施例的具有修復電路 佈局之顯示裝置中，具有下列優點： I提供備用的訊號傳送路徑，以在資料線發生斷線 時，將資料訊號透過此訊號傳送路徑而傳送到耦 接至資料線斷線處下方的晝素，以解決顯示裝置 之資料線的斷線問題。 2·將放大器之回授點配置於發生斷線之基板，降低 了資料訊號因衰減而造成之失真。 3·將放大器輸出端之修復線與放大器之負輸入端所 連接的回授線盡量形成在可以低阻抗材料構成線 為準200834491 P060434SEZ1TW 22876twf.doc/E The number of dynamic circuits 330 can be arbitrarily adjusted according to their needs. For example, in another embodiment the number of drive circuits 330 can be one. Figure 3B is a schematic illustration of a pixel in accordance with a first embodiment of the present invention. Referring to FIG. 3A and FIG. 3B simultaneously, in the embodiment, the driving circuit 34 is exemplified by a scan driving circuit (Scan Drive Circuit), and the driving circuit 340 is transmitted through a plurality of scanning lines (here represented by scanning lines 342 and 344). A scan signal is provided to the Alizarin 302. Each of the halogens 302 includes, for example, a transistor 304, a storage capacitor 306, and a halogen capacitor 3〇8, as shown in Fig. 3B. The gate of the transistor 304 is coupled to the scan line 342, and the first source of the transistor 304 is coupled to the data line 332. One end of the storage capacitor is coupled to the second source drain of the transistor 304, and the second end of the storage capacitor 3〇6 is coupled to the first voltage. The first end of the halogen capacitor 3〇8 is coupled to the second source drain of the transistor 304, and the second end of the halogen capacitor 3〇8 is coupled to the second voltage. In short, the driver circuit 34 is used to provide a scan signal to the pixel 302. The embodiment of Fig. 3A is described with three drive circuits 34, but in other embodiments, the number of drive circuits 34 can be arbitrarily adjusted as needed. For example, the number of driving circuits 34A may be one. Referring to FIG. 3A, when the data line 334 is disconnected (the position of the disconnection is indicated by 'V in FIG. 3A), the data signal provided by the driving circuit 33〇 cannot be sent to the lower half of the data line 334. Lightly connected to each element 302. In order to enable the data signal to be transmitted to the respective elements 3G2 coupled to the lower half of the data line 334, this embodiment provides another path for transmitting data signals. For example, after confirming that the data line 334 is disconnected, the welding point M10 is first fused by the laser, and the preliminary line BU and the data line 11 200834491 rwu^^foEZlTW 22876twf.doc/n are mutually fused at the position where the teeth are connected. Thereby, the standby line and the data line 334 can be "passed" to each other, and the data signal provided by the driving circuit 33 can be sequentially input, the data f 334, the fusion point M10 and the preparatory line are input to the amplification 350. Input (positive input). In this embodiment, the laser beam technology is used as an example to weld the standby line Bk1 and the data line 334. However, those skilled in the art can change the implementation manner according to their needs. In other words, when the feed line 334 is broken, the first end of the data line 334 can be lightly connected to the first input of the amplifier 350 in any manner. In the above, the fusion splice point M12 is then welded to couple the repair line Ri〇 to the lower half of the bead line 334, but other suitable means may be used to couple the repair line R10 with the lower half of the data line 334. Pick up. In this way, the data signal provided by the driving circuit 330 can pass through the data line 334, the fusion point M10, the standby line Bk1, the amplifier 35〇, the repair line R1〇, the feedback line F10 and the fusion point M12 to reach the data line 334. Half of the problem solves the problem of the disconnection of the caution line. Referring again to FIG. 3A, the face-to-face relationship between the repair line R1 〇 and the feedback line F10 can be clearly seen from FIG. 3A. The first end of the repair line Ri is lightly connected to the output of the amplifier 350. The first end of the feedback line F10 is coupled to an input (negative input) of the amplifier 35〇. The second end of the feedback line F10 repairs the connection point of the line R10! ) is located on the first substrate 310. Those skilled in the art can also view their needs, and in accordance with the teachings of the present invention and the teachings of the foregoing embodiments, change the position of the connection point D1 so that the feedback signal of the amplifier 350 can be from the bottom half of the data line 334. The location of the department is returned. In this way, the advantage of reducing the attenuation of the signal can be obtained. 12 200834491 FU〇U4J4b£ZlTW 22876twf.doc/n In view of the above, FIG. 4 is a schematic diagram of the equivalent circuit of FIG. 3A. Please refer to FIG. 3A and FIG. 4 at the same time, and the terminal A1 in FIG. 4 can receive the data signal Vin. Since the two inputs of the amplifier 350 are virtual short circuits, the terminal Bi can also receive the data signal Vin. The impedance Zr represents the impedance of the repair line R1, the impedance Zf represents the impedance of the feedback line F10, the impedance Zs represents the impedance of the data line 334 from the fusion point M12 to the disconnection position, and x". It is assumed that the end point C1 The data signal is Vout, the data number passing through the connection point D1 is Vout, the current passing through the terminal C1 is ir, the current from the connection point D1 to the impedance Zs is Is, and the current from the connection point D1 to the impedance Zf is If. From the above, the pressure difference of the feedback line F10 (that is, the voltage difference of the impedance zf) Δ V=Vout-Vin=IfxZf can be derived, so v〇ut=Vin+IfxZf, and because the input end of the amplifier 350 is high impedance. Therefore, the current if is close to 〇, that is, Vout=Vin. In other words, in this embodiment, the position of the connection point D1 of the feedback line F1 〇 and the repair line R10 is disposed on the first substrate 31 采用. Therefore, the attenuation of the data signal can be greatly reduced. In this way, the signal attenuation can be avoided, and the disconnection position "x", the brightness of the pixel 302 connected to the lower data line 334 is insufficient. Those skilled in the art can also modify the number of amplifiers according to the spirit of the present invention and the teachings of the foregoing embodiments, and adjust the coupling relationship appropriately to repair a plurality of disconnection problems. For example, Figure 5 is a schematic illustration of a display device having a repair circuit layout in accordance with a second embodiment of the present invention. Referring to FIG. 5, the first substrate 310, the second substrate 32, the driving circuit 330, the driving circuit 340, the repair line R10, the feedback line F10, the data lines 332 to 336, the scan lines 342 and 344, the pixel 302, and the amplifier 13 200834491 FU6U434SEZ1TW 22 S7 6twf.doc/n 350 is the same as the above embodiment, and will not be described again here. It is worth noting that the amplifier 352, the standby line Bk3, the repair line and the feedback line F12 of this embodiment. When the above-mentioned guest wire 336 is also broken (in the figure of $, χ, , indicating the position of the wire break), the data signal provided by the drive circuit 33 盏 is sent to the lower half of the data line 336. The respective pixels coupled are 3〇2. In order to enable the data signal to be transmitted to the individual elements 302 coupled to the lower half of the data line 336, the present embodiment provides another path for transmitting data signals. For example, after the data line 336 is disconnected, the fusion point Μ 14 is fused by the laser, that is, the preliminary line Bk3 and the data line 336 are welded to each other at the floating position. Thereby, the standby line Bk3 and the data line 336 can be electrically connected to each other, and the data signal provided by the driving circuit 330 can be sequentially input to the first input end of the amplifier 352 via the data line 336, the fusion point M14 and the standby line Bk3. (positive input). In the above, the fusion splice point M16 is then melted to couple the repair line R12 and the lower half of the data line 336 to each other. In this way, the data signal provided by the driving circuit 330 can be passed to the lower half of the data line 336 via the data line 336, the fusion point M14, the preparation line Bk3, the amplifier 352, the repair line R12, and the feedback ρ6. The domain 2 = line 336 has a problem of disconnection, so that the pixel 302 coupled to the lower half of the data line 336 receives the data signal. Referring again to FIG. 5, the coupling relationship between the repair line R12 and the feedback line F12 can be clearly seen from FIG. The first end of the repair line R12 is coupled to the output of the amplifier 352. The first end of the feedback line F12 is coupled to the first input (negative input) of the amplifier 352 200834491 ruou^f^^EZlTW 22876twf.doc/n. The connection point D3 of the second end of the feedback line F12 and the repair line R12 is located on the first substrate 31A. It is worth noting that the closer the connection point D3 is to the data line where the disconnection occurs, the less the signal attenuation will be. Therefore, in this embodiment, the connection point D3 is designed on the first substrate 310 to reduce the attenuation of the data signal. Those skilled in the art can also change the coupling path of the repair line and the feedback line according to the spirit of the present invention and the teachings of the foregoing embodiments, and can appropriately change the arrangement position of the driving circuit. For example, Figure 6 is a schematic illustration of a display device having a repair circuit layout in accordance with a third embodiment of the present invention. Referring to FIG. 6, the first substrate 310, the second substrate 320, the driving circuit 330, the data lines 332 to 336, the scanning lines 342 and 344, the pixels 302, and the amplifier 350 are the same as those in the above embodiment, and are not described herein again. It is worth noting that the repair line R14, the feedback line F14, the driving circuit 340 and the third substrate 360 of this embodiment. In the above, the third substrate 360 will be described by taking a printed circuit board as an example. In other embodiments, the third substrate 360 can also be a flexible circuit board or other suitable substrate. In the present embodiment, the driving circuit 340 is disposed on a flexible circuit board that is connected between the first substrate 310 and the third substrate 360. The driving circuit 340 is configured to provide scanning signals to the scan lines 342 and 344 of the first substrate 310. In another embodiment, the drive circuit 340 can also be directly disposed on the third substrate 360. Moreover, the number of drive circuits 340 can also vary depending on their needs. For example, in another embodiment, the number of drive circuits 340 can be one. The impedance of the line formed on the printed circuit board (third substrate 360) 15 200834491 ruou^^oEZlTW 22876twf.doc/n will be smaller than the impedance of the line formed on the glass substrate (first substrate 310). Therefore, in order to improve the signal attenuation, the repair line R14 of the embodiment sequentially passes through the second substrate 320 and the third substrate 360 from the output end of the amplifier 350 to the first substrate 310. The feedback line fh sequentially passes through the second substrate 320 and the third substrate 360 from the negative input end of the amplifier 35〇 to the first substrate 310, and simultaneously fixes the connection point of the line ^^ and the feedback line ^^ On a substrate 310. In this way, the impedance of the repair line R14 and the feedback line F14 can be further reduced, thereby improving the data signal attenuation. Those skilled in the art can also change the configuration position of the amplifiers according to the teachings of the present invention and the teachings of the foregoing embodiments and adjust the light path of the standby line, the feedback line and the repair line as appropriate. For example, the amplifier 350 of the embodiment of Fig. 6 can be disposed on the third substrate 36A. For another example, the amplifier 350 of each embodiment can be integrated into the drive circuit 33A or the drive circuit 340. In summary, in the display device with the repair circuit layout of the embodiments of the present invention described above, the following advantages are obtained: I provide an alternate signal transmission path for transmitting data signals through the signal when the data line is disconnected. The transmission path is transmitted to the halogen element coupled below the data line break line to solve the problem of disconnection of the data line of the display device. 2. Arrange the feedback point of the amplifier on the substrate where the disconnection occurs, which reduces the distortion caused by the attenuation of the data signal. 3. The feedback line connected to the repair line of the amplifier output and the negative input of the amplifier should be formed as far as possible on the line of low-impedance material.
200834491 ruov^^EZlTW 22876twf.doc/n 路的基板上，以改善資料訊號之衰減情形。 雖然本發明已以較佳實施例揭露如上，然其 限定本發明，任何所屬技術領域t具有通常知識者，在不 脫離本發明之精神和範圍内’當可作些許之盘 =本發明之保護範圍當視後附之申請專利範圍；者 【圖式簡單說明】 。圖1是-種習知具有修復電路佈局之顯示裝置的示意 圖2是依照圖〗所繪示之等效電路示意圖。 圖一3A是依照本發明之第一實施例的具有修復電路 局之顯示裝置的示意圖。 圖圖3B是依照本發明之第一實施例之一種晝素的示意 圖4是圖3A之等效電路示意圖。 圖5是依照本發明第二實施例之具有修復電路 顯示裝置的示意圖。 圖6是依照本發明第三實施例之具有修復電路佈 顯示裝置的示意圖。 " 【主要元件符號說明】 100、300 :顯示裝置 110、310:第一基板 200834491 ruou^^^oEZlTW 22876twf.doc/n 330、340 :驅動電路 120、320 :第二基板 126、350、352 :放大器 360 :第三基板 112、302 :晝素 122、122A、122B、124、332、334、336 :資料線 342、344 :掃描線 “X” ：斷線之位置 ® Bkl、Bk3 :預備線 R10、R12、R14 ··修復線 F10、F12、F14 :回授線 A、B、C、D、A卜 Bl、C1 :端點 Zs、Zr、Zf :阻抗 If、Ir、Is :電流 Vin、Vout、Vout’ ：資料訊號 Ml、M3、M10、M12、M14、M16 :熔接點 • D1、D3、D5 :連接點 304 :電晶體 306 :儲存電容 308 :晝素電容 18200834491 ruov^^EZlTW 22876twf.doc/n on the substrate to improve the attenuation of the data signal. While the invention has been described above in terms of the preferred embodiments of the present invention, it is intended to be construed as a part of the invention The scope of the application is attached to the patent application scope; [simplified description of the schema]. BRIEF DESCRIPTION OF THE DRAWINGS Figure 1 is a schematic view of a conventional display device having a repair circuit layout. Figure 2 is a schematic diagram of an equivalent circuit shown in accordance with the drawings. Figure 1A is a schematic diagram of a display device having a repair circuit board in accordance with a first embodiment of the present invention. Figure 3B is a schematic diagram of a pixel in accordance with a first embodiment of the present invention. Figure 4 is a schematic diagram of an equivalent circuit of Figure 3A. Figure 5 is a schematic illustration of a display device with a repair circuit in accordance with a second embodiment of the present invention. Figure 6 is a schematic view of a display device with a repair circuit board in accordance with a third embodiment of the present invention. " [Main component symbol description] 100, 300: display device 110, 310: first substrate 200834491 ruou ^^^oEZlTW 22876twf.doc / n 330, 340: drive circuit 120, 320: second substrate 126, 350, 352 : Amplifier 360: third substrate 112, 302: halogen 122, 122A, 122B, 124, 332, 334, 336: data lines 342, 344: scan line "X": position of disconnection ® Bkl, Bk3: preparatory line R10, R12, R14 ··Repair line F10, F12, F14: Feedback line A, B, C, D, A Bu Bl, C1: End point Zs, Zr, Zf: Impedance If, Ir, Is: Current Vin, Vout, Vout': data signal Ml, M3, M10, M12, M14, M16: welding point • D1, D3, D5: connection point 304: transistor 306: storage capacitor 308: halogen capacitor 18