200828206 九、發明說明： 【發明所屬之技術領域】 本發明係關於一種多工電路，尤指一種應用於顯示器 之多工電路。 【先前技術】 i又的顯示為主要係接收到顯示訊號後，經一資料線 驅動積體電路（ic)處理送出一影像資料（Data)，該影 像資料於一畫素區先暫時記憶後再加以顯示。 為實現SOG ( System on Glass)之設計，以使用a_Si 之TFT顯示器為例，請參閱第九與十圖所示，該影像資料 (Data)内包含二原色（Red-Green-Biue; rgb)影像要素 資料，利用一多工電路將RGB影像要素資料分離後送入畫 素區，而在實際應用中，若該資料線驅動1C具有m條資 料線則/、要母條資料線均搭配一多工元件，即可推動3 m 個影像要素資料之顯示器。 該多工電路係由三個薄膜電晶體（Ml〜M3 )組成， 為7各薄膜電晶體（Μ1〜M3 )具有相同的特性，單位面 積中各薄膜電晶體（M1〜Μ3 )之規袼參數均為 300Mm/5/xm(W/L)，其中，該等薄膜電晶體（Μι〜m3 )的 汲極係一同連接至視訊處理ic以接收影像資料（Data)， 源極係做為二原色輸出端（Cr，Cg，Cb )，配合影像資料 (Data)中RGB資料的時序，分別於薄膜電晶體（ 的閘極送入一組應觸發信號（sR) (sG) (Sb)以導通對 應的薄膜電晶體（M1〜M3 )，請參閱第十圖所示，例如 3 200828206 當影像資料（Data )正處於R資料的時序時，於薄膜電晶 體（M1)之閘極送入觸發信號（sR)將薄膜電晶體（M1) 導通，令R資料可自薄膜電晶體（M1)通過而於畫素區中 曰存待R資料的時序結束時，亦停止送出觸發信號（) 以關閉薄膜電晶體（Μ1 )，以此類推，即可將RGB資料 自影像資料（Data )中分離。當影像資料（Data )傳送完 成後，亦表示RGB資料已彼此分離並暫存於畫素區，此時 顯示器方開始顯示影像畫面。 、 然一般電晶體元件於使用一段時間後，因元件内部應 。s )的衫響，造成電晶體元件之Vu產生偏移而導 =工作電流下降，一旦工作電流過低，可順利通過薄膜電 晶，而暫存在晝素區的刪資料也就隨之降低，最後將導 夂〜像貝料热法通過薄膜電晶體而令上述多工電路失去作 【發明内容】 為解決前述因元件内部應力（ 效之問題，太旅也取夕工私路失 、 ^之主要目的在提供一種顯示器用多工電 資料源達fr述.目的所採取之主要技術手段係連接一影像 、、’、"亥影像資料源輸出η個影像要辛資料，γ 像要素資1 ^豕罟京貝枓，邊η個影 括： 卞询丁夕工私路，而该多工電路係包 後 ^ Α ^ ’係分別輸出該等影像要素資料，其中最 俊之—輪出端f g口铪 ， 八丁取 源，其餘個輪出端）係直接連接該影像資料 ^ 剧出端則分別透過一薄膜電晶體連接影像 4 200828206 個至第η-ι個影 而將所有影像要 資料源’該薄膜電晶體分別受一對應第 像要素資料時序之觸發信號控制而導通 素資料分離輸出。 藉由前述技術手段，影像資料源與本發明之最後 出端之間並未設有薄膜電晶體而可空出部份面冑，因心 膜電晶體可利^出的面積而製作得具有較大的規格來數 (W/L);由電晶體元件之工作電流公式 「W^C〇x(w/L)(vgs-Vth)2/2]」可知，若電晶體元件之規 格參數（狐）得以提高，則其卫作電流亦會隨之提高， 因此當薄膜電晶體受到内部應力影響而導致工作電流下降 時’較高之工作電流可延長工作電流下降至最低工作電流 的時間，而減少多工電路失效的可能。 本發明之多工電路進一步包括一二極體，該二極體係 連接於該影像資料源和未設有薄膜電晶體的輸出端之間。 前述影像資料源與多工電路之間進一步設有一 Gamma 調校器，該Gamma調校器係用以控制調整該影像要素資 料的Gamma調校值’ μ n影像要素資料的電壓值低於 其餘影像要素資料的電壓值。 【實施方式】 關於本發明多工電路之笛 ^ ^ _ 一 ’ ^ ^又弟一貫施例，請參閱第一圖所 示’係應用於—顯示器内而連接-影像資料源（10)， 該多工電路包括-第一薄膜電晶體（11)、一第一輸出 端（12)以及一第二輸出端（13)。 請參閱第二圖所示，該影像資料源（i 〇 )係送出一 5 200828206 影像資料（Data ) , ^ ψ η λ )3〜像貝枓（Data )内依序包含有第 -影像^資料（D1)以及第二影像要素資料（Μ)。 第輸出ί而（1 2 )係連接前述第一薄膜電晶體（1 :)之源極’藉由一第_觸發信㉟（I)觸發導通該 薄膜電晶體（1】、人楚 . 丄丄） 7弟一輸出端（12)送出一楚 輸出信號一 ^ ;于後鳊畫素區；而該第二輸出端（13) 係直接連接影像資料源卩^ ^ ^ m 於貝料彝C 1 0 )，用以送出一第二輸 號（02)予該後端畫素區。 關於本發明多Φ ^ T- y z- + 1. 夕工包路之工作方式，請配合參閱第二 所示： —Ώ 該第-觸發信號（Sl)係對應第一影像要素資料（d” 之k序’ H|膜電晶體（i丄）於影像資料（叫仏） 為第-影像要素資料（D1)之時序時導通，因此該第_輸 出信號（叫係、為第—影像要素資料（D1); 由於°亥第—輸出端（1 3 )並未連接任何薄膜電晶體， 因此第二輸出信號（Q2)係依序包含第—和第二影像要素 資料（Dl) (D2)，惟於顯示器之應用中，該等輸出端係 依序輸出影像要素資料予後端畫素區，由該後端畫素區先 暫存，待-完整影像資# ( Data)傳送完畢後，顯示器方 顯=影像，因此第二輸出端（1 3 )料出的第—影像要 素資料（D1 )將被最後送出的第二影像要素資料（D2 )所 覆盍，故後端晝素區最後係儲存第二影像要素資料（D2 )。 另關於本發明之第二實施例，請參閱第三與第四圖所 示’其與第一實施例大致相同，包含： 6 200828206 -第-薄膜電晶體（21)，其閉極係連接一第 發信號（sj ，汲極係連接該影像資料源; 二 一第二薄膜電晶體（22)，其閘極係連接一第 發信號（SJ ，汲極係連接該影像資料源（2〇) ’· 第輸出化（2 3 )，係連接該第一薄膜電晶體（2 1)之源極以送出一第一輸出信號（〇1); 帛輸出知（2 4 )，係連接該第二薄臈電晶體（2 2 )之源極以送出一第二輸出信號（〇2); :冑f : ( 2 5 ) ’係直接連接該影像資料源（2 〇 )以达出一第三輸出信號（03 )。 關於本發明第二實施 圖所示： 】之 <乍方式，凊配合參閱第四 :第發:號(Si)係對應第一影像要素資料㈤） 二=;:=(21)於影像資料_ # (D1)之時序時導通， 出信號j〇1)係為第—影像要素資料（D1); β 亥弟-觸發作' 骑f C、// 之時序，令第-;:12)係對應第二影像要素資料（叫 為第二-Jr 體（22)於影像資料（咖） 如要素貝'科（D2)之時序時導通 出信號（=係為第二影像要素資料（D2);弟一輸 由於a亥罘二輪出端（2 5)並未連接任何薄曰 因此第三輸出信號(03)係依序包含第一饤;膜電， 像要素資料（D1 ) Γ 弟一和第二影 最後係為第三影像^2) (D3)，因此第三輸出信號（〇3) 心像要素資料（D3)。 7 200828206 此外，比較上述第二實施例與第九圖所示之多工電 路’在與第九圖中多工電路相同單位面積的前提下，該第 :專膜與第二薄膜電晶體（2丄）（2 2 )之最大規格參 可為 450μη!/5μηι ( w/L )。 示，又闕於本發明之第三實施例，請參閱第五與第六圖所 丁 其與第二實施例大致相同，包含·· 發信:第—薄膜電晶體（31) ’其閑極係連接一第一觸 (Sl)，汲極係連接該影像資料源（3 〇 )； 發信:第二薄膜電晶體（32)，其間極係連接一第二觸 :jS2)，汲極係連接該影像資料源（3〇); 發信號tr薄膜電晶體（3 3)’其間極係連接一第三觸 ^ ^ ，汲極係連接該影像資料源（3 〇 ); 1):ί:輸出端（34)，係連接該第-薄膜電晶體（3 2極以送出—第_輪出信號（〇1); —第二輸出端（35) 第二輪出信連㈣電“(3 8 200828206 為第一影像要素資料（ 出信號㈤）係為第序時導通’因此該第一輸 ^ 衫像要素資料（D1 ); 該第二觸發作缺 之時序，令第二係對應第二影像要素資料㈤） 厚膜電晶體（3 2 )於影像嘗 =第，要素資料(叫之時序時導通，因此二：二 仏號（02)係、為第二影像要素資料（叫；μ弟-別 該第三觸發信號（s3)係對應第 :時序，令第三薄膜電晶體（3 3)一於影像:㈤) ^三影像要素資料(D3)之時序時導通，因::二= 出信號（Q3)係為第三影像要素資料㈤）；”弟二輸 由於該第四輪屮嫂r Q 9、 出舳（3 7 )並未連接任何镇π 因此第四輸出信號（04)係依序包含第一、第、電晶體， 第四影像要素資料（D1) (D2) (D3) (D4「：三與 四輸出信號（04)最後係為第四影像要素資’因此第 1由上述三實施例可知，由於顯示器之應 於 疋正影像貪料（Data)傳送完畢後，顯示器 = 故僅能令輸出最後-時序影像要素資料之輸出端；：：， ^像資料源（1G) (2〇) (30)連接，方^接與 輸出端可確實輸出對應之影像要素資料；1由:母― =後一時序影像要素資料之輸出端毋需透過薄：電2 一像讀源（1〇) (20) (30)，因此 =晶體空間可令本發明之多工電路之薄膜電晶體具； 古门:規數（W/L )，而#薄膜電晶體的規袼參數 …工作電流（Ids)亦會隨著提高，可延長工作電流下 9 200828206 降至最低工作電流的時間，因此可減緩多工電路故障的可 月& 另關於本發明之第四實施例，請參閱第七圖所示，與 第二實施例大致相同，不同之處在於該影像資料源（2 〇 ) 與第三輸出端（2 5)進一步連接有一二極體（26) ·, 加裝此一二極體（2 6 )之目的係如下所述： ， 由=電晶體之特性，於閘極與源極之間實際上係等效 有-電容（cgs) ’當第一與第二觸發信號（8丨）（s)由 正電塵到負電壓時，該電容（Cgs)會搞合一壓降（△二）， 造成第一輸出信號（01)以及第二輸出信號（02)之電麗 值與第三輸出信號（03)之電壓值相差有該電 壓降（△”，導致影像輸出時信號強弱不 目亡… ，、要將一極體（2 6 )設計為亦 :、有相：於電容（Cgs)之麼降（△”，則可令 信 號強弱得到平衡。 1 。 一：解S述因電晶體之特性造成輸出時信號強弱不 之手段克服Γ 月之弟五實施例以不同於前述第四實施例 之手奴克服，本發明第五實施 施例大致相回+ 电路與珂述第二實 同，主要係藉由調整影像要素資 調校值以降彻榮一 ^ , 貝针之Gamma 其中：牛低弟二輸出信號（叫影像要素資料之電厂堅值， 由於顯不器所顯示的影像係由許多 件處理，囡化么 1 J特性的光電元 千处里因此自不同特性光電元件所迭 亦具有不同特_ M & 〜像要素資料 寸性的曲線，故需要分別以不同的^聊電 10 200828206 c轉換曲線進行校正；而本發明之第五實施例則是於資料 原（2 0 )與多工電路之間進一步設有一 Gamnia調校器 (2 7 } ’該Gamma調校器（2 7 )係調整第三輸出信 唬（〇3)衫像要素資料的Gamma調校值，使其低於第一 與第一輸出信號（01 ) (〇2)影像要素資料的Gamma調 才又值’ 7送入晝素區之第三輸出信號（03)的電壓值較第 契第一輸出信號（〇1)(〇2)的電壓值低一差值（Δν)， 如此來’即可達到如第四實施例般，令輸出時信號強弱 得到平衡之功效。 惟本發明雖已於前述實施例中所揭露，但並不僅限於 剛述貫施例中所提及之内容，例如該等影像要素資料，即 可為 R ( Red)、g ( Green)、Blue ( B)、W ( White)或 其他相關影像要素資料，因此，在不脫離本發明之精神和 範圍内所作之任何變化與修改，均屬於本發明之保護範 圍。 表 τ、上所述’本發明相較習用顯示器用多工電路具有較 佳的工作良率，且具備顯著功效增進，並符合發明專利要 件，爰依法提起申請。 【圖式簡單說明】 第一圖：係本發明第一實施例之等效電路圖。 第一圖：係本發明第一實施例中各信號之時序圖。 第二圖：係本發明第二實施例之等效電路圖。 第四圖：係本發明第二實施例中各信號之時序圖。 第五圖：係本發明第三實施例之等效電路圖。 11 200828206 第六圖：係本發明第三實施例中各信號之時序圖。 第七圖：係本發明第四實施例之等效電路圖。 第八圖：係本發明第五實施例之等效電路圖。 第九圖：係習用顯示器用多工電路之等效電路圖。 第十圖：與習用顯示器用多工電路中各信號之時序 【主要元件符號說明】 (1 0 )影像資料源 （1 1 )第一薄膜電晶體 (12)第一輸出端 （13)第二輸出端 (2 0 )影像資料源 （2 1 )第一薄膜電晶體 (22)第二薄膜電晶體 （23)第一輸出端 (24)第二輸出端 （25)第三輸出端 (26)二極體 （27) Gamma調校器 (3 0 )影像資料源 （3 1 )第一薄膜電晶體 (3 2 )第二薄膜電晶體 （3 3 )第三薄膜電晶體 (34)第一輸出端 （35)第二輸出端 (36)第三輸出端 （37)第四輸出端 12200828206 IX. INSTRUCTIONS: TECHNICAL FIELD OF THE INVENTION The present invention relates to a multiplex circuit, and more particularly to a multiplex circuit for use in a display. [Prior Art] The display of i is mainly after receiving the display signal, and then sending a video data (Data) through a data line driving integrated circuit (ic), the image data is temporarily memorized in a pixel area. Show it. For the design of SOG (System on Glass), a TFT display using a_Si is taken as an example. Please refer to the ninth and tenth figures. The image contains two primary colors (Red-Green-Biue; rgb) images. The element data is separated into the pixel area by using a multiplexed circuit to separate the RGB image element data. In the actual application, if the data line driver 1C has m data lines, the mother data line is matched with one more. The component can be used to push the display of 3 m image element data. The multiplexed circuit is composed of three thin film transistors (M1 to M3), and has the same characteristics for each of the seven thin film transistors (Μ1 to M3), and the parameter of each of the thin film transistors (M1 to Μ3) per unit area. Both are 300Mm/5/xm (W/L), wherein the thin films of the thin film transistors (Μι~m3) are connected to the video processing ic to receive image data (Data), and the source system is used as the two primary colors. The output terminals (Cr, Cg, Cb) are matched with the timing of the RGB data in the image data, respectively. The thin film transistor (the gate is fed with a set of trigger signals (sR) (sG) (Sb) to be turned on. The thin film transistor (M1~M3), please refer to the tenth figure, for example, 3 200828206 When the image data (Data) is in the timing of the R data, the trigger signal is sent to the gate of the thin film transistor (M1) ( sR) turns on the thin film transistor (M1), so that the R data can pass from the thin film transistor (M1) and stop the sending of the trigger signal () to turn off the thin film when the timing of the data to be stored in the pixel region ends. Crystal (Μ1), and so on, can separate RGB data from image data. After the material (Data) transfer is completed, it also indicates that the RGB data has been separated from each other and temporarily stored in the pixel area. At this time, the display side starts to display the image screen. However, after the transistor element is used for a period of time, it should be inside the component. The shirting sound causes the Vu of the transistor component to shift and the conduction current decreases. Once the operating current is too low, the film can be successfully passed through the thin film, and the data temporarily stored in the halogen region is reduced. The above-mentioned multiplexed circuit is lost through the thin film transistor, and the above-mentioned multiplexed circuit is lost. [Inventive content] In order to solve the above-mentioned internal stress caused by the element (the problem of efficiency, the travel of the city is also lost, the main The purpose is to provide a multi-power data source for display. The main technical means adopted is to connect an image, ', " Hai image data source to output n image toxin information, γ image element 1 ^豕罟 枓 枓 枓 边 边 边 η η η η η η η η η η η η η η η η η η η η η η η η η η η η η η 丁 丁 丁 丁 丁 丁 丁 丁 丁 丁 丁 丁 丁 丁 丁 丁 丁Oh, Ding take the source, the other rounds are connected directly to the image data ^ The terminal is connected to the image through a thin film transistor 4 200828206 to the η-ι shadow and all the images to be the source of the film The crystals are respectively controlled by a trigger signal corresponding to the timing of the image element data, and the on-line data is separated and output. According to the foregoing technical means, a thin film transistor is not provided between the source of the image data and the last end of the present invention, and a part of the facial enamel can be vacated, and the area of the pericardial transistor can be made more favorable. Large specification number (W/L); from the operating current formula of the transistor component "W^C〇x(w/L)(vgs-Vth)2/2]", if the specification of the transistor component ( If the fox is improved, the servo current will also increase. Therefore, when the thin film transistor is affected by the internal stress and the operating current is decreased, the higher operating current can prolong the working current to the minimum operating current. Reduce the possibility of multiplexed circuit failure. The multiplexed circuit of the present invention further includes a diode coupled between the image source and the output of the thin film transistor. Further, a Gamma adjuster is further disposed between the image data source and the multiplex circuit, and the Gamma adjuster is used to control the Gamma adjustment value of the image element data. The voltage value of the image element data is lower than the rest of the image. The voltage value of the element data. [Embodiment] Regarding the whistle of the multiplex circuit of the present invention, please refer to the first embodiment as shown in the first figure, which is applied to the display and connected to the image data source (10). The multiplex circuit includes a first thin film transistor (11), a first output terminal (12), and a second output terminal (13). Please refer to the second figure, the image data source (i 〇) is sent a 5 200828206 image data (Data ), ^ η η λ ) 3 ~ like the data (Data) contains the first - image ^ data (D1) and the second image element data (Μ). The output ί and (1 2 ) are connected to the source of the first thin film transistor (1:) to trigger the thin film transistor by a first trigger signal 35 (I) (1), Ren Chu. 7th one output end (12) sends out a Chu output signal ^ ^; in the rear picture area; and the second output end (13) is directly connected to the image data source ^ ^ ^ ^ m in the shell material C 1 0), for sending a second input number (02) to the back-end pixel area. Regarding the multi-Φ ^ T- y z- + 1. The working mode of the Xigong package, please refer to the second: - Ώ The first trigger signal (S1) corresponds to the first image element data (d) The k-order 'H|membrane transistor (i丄) is turned on when the image data (called 仏) is the timing of the first image element data (D1), so the _th output signal (called the first image element data) (D1); the second output signal (Q2) sequentially includes the first and second image element data (D1) (D2), since the half-output (13) is not connected to any thin film transistor, However, in the application of the display, the output terminals sequentially output the image element data to the back-end pixel area, and the back-end pixel area is temporarily stored, and after the completion of the complete image resource # (Data), the display side Display = image, so the first image element data (D1) from the second output (1 3) will be overwritten by the last second image element data (D2), so the back end of the pixel area is stored. Second image element data (D2). Referring to the second embodiment of the present invention, please refer to the third and fourth figures. It is substantially the same as the first embodiment, and includes: 6 200828206 - a thin film transistor (21), the closed circuit is connected to a first signal (sj, the drain is connected to the image data source; a thin film transistor (22) whose gate is connected to a first signal (SJ, which is connected to the image data source (2〇)'· the first output (2 3 ), and is connected to the first thin film transistor ( 2 1) the source sends a first output signal (〇1); the output (2 4 ) is connected to the source of the second thin transistor (2 2 ) to send a second output signal ( 〇2); :胄f : ( 2 5 ) ' is directly connected to the image data source (2 〇) to reach a third output signal (03). Regarding the second embodiment of the present invention:乍 mode, 凊 with reference to the fourth: the first: the number (Si) corresponds to the first image element data (5)) Two =;: = (21) at the time of the image data _ # (D1) is turned on, the signal j〇 1) is the first-image element data (D1); β haidi-triggering is the timing of riding 'f C, //, and the first-::12) corresponds to the second image element data (called the second-Jr) Body (22) Image data (cafe), such as the timing of the element (D2), the signal is output (= is the second image element data (D2); the younger one loses because the second round of the second round (2 5) is not connected to any Therefore, the third output signal (03) sequentially includes the first 饤; the film power, the image data (D1), the first and second shadows are the third image ^2) (D3), and thus the third Output signal (〇3) cardiac image data (D3). 7 200828206 In addition, comparing the multiplexed circuit shown in the second embodiment and the ninth embodiment, on the premise of the same unit area as the multiplexed circuit in the ninth figure, The maximum specification of the first film and the second film transistor (2丄) (2 2 ) can be 450μη!/5μηι (w/L). Referring to the third embodiment of the present invention, please refer to the fifth and sixth figures, which are substantially the same as the second embodiment, including: · transmitting: the first film transistor (31) 'the idle pole The first touch (S1) is connected to the image source (3 〇); the second thin film transistor (32) is connected to the second thin film transistor (32), and the second contact: jS2) The image data source (3〇) is connected; the signal tr film transistor (3 3) is connected to a third contact ^ ^, and the drain is connected to the image data source (3 〇); 1): ί: The output terminal (34) is connected to the first-thin film transistor (3 2 poles to send - the first_round signal (〇1); - the second output terminal (35) the second round of the output signal (four) electricity "(3 8 200828206 is the first image element data (out signal (5)) is the first sequence conduction 'so the first input shirt image element data (D1); the second trigger is missing the timing, so that the second line corresponds to the second image Element data (5)) Thick film transistor (3 2 ) in image taste = first, element data (called timing when it is turned on, therefore 2: 2 ( (02) system, is the second image element data Called; μdi - the third trigger signal (s3) corresponds to the first: timing, so that the third thin film transistor (3 3) is in the image: (5)) ^ three image element data (D3) timing is turned on, because ::2 = Out signal (Q3) is the third image element data (5)); "Different 2 loss due to the fourth round 屮嫂r Q 9, out (3 7) is not connected to any town π so the fourth output The signal (04) sequentially includes the first, the first, and the transistor, and the fourth image element data (D1) (D2) (D3) (D4 ": the three and four output signals (04) are finally the fourth image element. Therefore, the first embodiment can be seen from the above three embodiments. Since the display should be output after the data transmission is completed, the display can only output the output of the last-timing image element data;::, ^ Data source (1G) (2〇) (30) connection, square ^ and output can output the corresponding image element data; 1 by: mother - = the output of the latter time-series image element data is not required to pass through thin: 2 image reading source (1〇) (20) (30), therefore = crystal space can make the multiplexed circuit of the present invention a thin film transistor; (W/L), and the regulation parameters of the thin film transistor...the operating current (Ids) will also increase, and the operating current can be extended to the minimum operating current when the operating current is 9 200828206, thus reducing the multiplex circuit fault. According to the fourth embodiment of the present invention, please refer to the seventh embodiment, which is substantially the same as the second embodiment, except that the image data source (2 〇) and the third output end (2 5) Further connected to a diode (26), the purpose of adding the diode (26) is as follows: , by the characteristics of the = transistor, between the gate and the source is actually Equivalent-capacitance (cgs) 'When the first and second trigger signals (8丨)(s) are from positive dust to negative voltage, the capacitor (Cgs) will engage a voltage drop (Δ2), resulting in The voltage value of the first output signal (01) and the second output signal (02) is different from the voltage value of the third output signal (03) by the voltage drop (Δ), which causes the signal to be weak when the image is output. To design a polar body (2 6 ) as: also, there is a phase: the capacitance (Cgs) drops (△), then you can write The strength balanced. 1 . One: Solution S is caused by the characteristics of the transistor, and the signal strength at the time of output is not overcome. The fifth embodiment of the present invention overcomes the hand slaves different from the foregoing fourth embodiment, and the fifth embodiment of the present invention substantially returns + The second principle of the circuit and the narration is mainly to adjust the image element to adjust the value of the image to reduce the glory of the glory, and the gamma of the snail. Among them: the output signal of the syllabus of the syllabus The image displayed by the device is processed by many pieces, and the photoelectric element of the 1 J characteristic is degraded. Therefore, the photocell components of different characteristics also have different characteristics of the _M & It is necessary to separately perform correction with different conversion curves of the 200828206 c; and the fifth embodiment of the present invention further provides a Gamnia adjuster between the original data (2 0 ) and the multiplex circuit (2 7 } 'The Gamma Tuner (2 7) adjusts the Gamma adjustment value of the third output signal (〇3) shirt image element data to be lower than the first and first output signals (01) (〇2) image The gamma of the elemental data is worth '7 to the vegan The voltage value of the third output signal (03) is lower than the voltage value of the first output signal (〇1) (〇2) by a difference (Δν), so that the fourth embodiment can be achieved. The effect of the signal strength at the output is balanced. However, the present invention has been disclosed in the foregoing embodiments, but is not limited to the contents mentioned in the example, such as the image element data, which may be R. (Red), g (Green), Blue (B), W (White) or other related image element data, therefore, any changes and modifications made without departing from the spirit and scope of the present invention are protected by the present invention. Scope 。 Table τ, the above description 'The present invention has better working yield than the multiplexed circuit for the conventional display, and has significant efficiency improvement, and meets the requirements of the invention patent, and filed according to law. [Simple description] The first drawing is an equivalent circuit diagram of the first embodiment of the present invention. The first drawing is a timing chart of signals in the first embodiment of the present invention. The second drawing is an equivalent circuit diagram of the second embodiment of the present invention. Fourth picture: the invention The timing chart of each signal in the embodiment. Fig. 5 is an equivalent circuit diagram of the third embodiment of the present invention. 11 200828206 FIG. 6 is a timing chart of signals in the third embodiment of the present invention. The equivalent circuit diagram of the fourth embodiment of the present invention. The eighth diagram is an equivalent circuit diagram of the fifth embodiment of the present invention. The ninth diagram is an equivalent circuit diagram of a multiplexed circuit for a conventional display. Timing of each signal in the multiplexed circuit [Key component symbol description] (1 0 ) Image data source (1 1 ) First film transistor (12) First output terminal (13) Second output terminal (2 0 ) Image Data source (2 1 ) First thin film transistor (22) Second thin film transistor (23) First output terminal (24) Second output terminal (25) Third output terminal (26) Diode (27) Gamma Calibrator (30) image data source (3 1 ) first thin film transistor (3 2 ) second thin film transistor (3 3 ) third thin film transistor (34) first output end (35) second output Terminal (36) third output (37) fourth output 12