200839393 九、發明說明： 【發明所屬之技術領域】 本發明係與液晶顯示古 素具有多區域的液晶顯示器。，特別是其次晝 【先前技術】 目前最普遍應用於薄膜電 厂；LCD)的…術’分別是平V:;: f (ni-plane switching，lps)與 :?轉換式 補償膜就具有最佳的視角以而色：表J可 ί 7 ί:速Ϊ Ϊ Ϊ，但其對比較低广且製造ΐ 比#古，伯3i i對旱式具有較向的良率、對 ί :产Γ疋的辅以補償膜才能有廣視角的效 f丄且在色彩表現上不如平面轉換：、 在以斜角度觀看時，亞洲人的 fafh:t二) 偏白的現象，此稱為色偏（C〇1〇r ，偏問題之解決，可透過在一個次書素内產 不同的咖瑪曲線(—到混 n效果加二改善，此種技術則稱為半色調 f-tone^，其中，每一次畫素係對應於一紅、綠 或&之顏色。而為了要在一個次晝素内產生不同 的珈瑪曲線’最直接的方式就是在一個次晝素内 分為兩個區域，亦即將原本的次晝素的晝電 分為兩個，故一種雙區域次晝素於焉誕生。'而這 種半色調的技術，總共有三種次晝素的電路設計。 請參閱圖1，為第一種習用的半色調晝素的 專效電路圖。其中揭露了一第一型次晝素1，包 5 200839393 1楚i ^線DL、一掃描線gl以及一共用線。 儲在雷=次晝素1還設置有一薄膜電晶體10、〆 的、及朽奋11連接該共用線CL與該薄膜電晶體1 0 資料線Di^則連接至薄膜電晶體Μ的 極。又$ t線GL則連接，薄膜電晶體10的閘 其分別曰#型次晝素1退包含兩個液晶電容， Ub，且H 一液晶電容12a與第二液晶電容 薄膜電曰液晶電容Ua有第—晝素電極ia與 有第f 10的汲極連接，而第二液晶電容12b 1，#一#\電極1b。圖1所揭露的第一型次晝素 之Ϊ 一晝素電極1a與第二晝素電‘lb 果，2窜串聯電容13來達到電容分壓的效 碼曲綠畫素電極1&與第二晝素電極lb的珈 壓同，進一步來說，第一晝素電極la的電 而由^料線DL透過薄膜電晶體1〇直接寫入， 旦素電極lb的電壓則決定於串聯電 3 5弟二液晶電容12b的分壓，換言之， 1極ib的第二液晶電容12b是在一個浮狀 g |而其電位是靠耦合所決定。這種透過串聯電 3就將兩個液晶電容的電位分開，進而產生兩 T同的珈瑪曲線，構造簡單，所增加的電子元 又夕、更重要的疋走線並未增加，因此對開口 ，影響也較小。然而，串聯電容2 3所帶來的問 查=在面板的操作中，它會捕捉電荷而導致第二 =素電極lb的電位偏移設定值而產生影像殘 仏除了有可靠度問題外，還會造成顏色、亮度 句勻的水波紋（mura，又稱雲紋）現象。 請參閱圖2，為第二種習用的半色調畫素的 、攻電路圖。其特色在於直接透過兩個薄獏電晶 6 ^與兩條閘極線或兩條資料線來給定兩個珈瑪值 來產生兩個j加瑪曲線。圖2揭露了 一第二型次壹 夭2 ’、包含一第一掃描線GU、一第J掃描J 一，,,、以及平行於兩者之間的一共用線CL·，還有 一貧料線DL ’第二型次晝素2還包含一第一每膜 ，晶體2〇a之閘極連接至第一掃描線GL1，盥」 溥臈電晶體20b之閘極連接至第二掃描線 又’第一薄膜電晶體20a的汲極透過一篦 2U與共用線CL連接，第二薄膜電 曰曰體20b的汲極透過一第二儲存 線CL連接。且第一薄膜電晶體…的汲極連： 一弟晶電容22a並具有一第一畫素電極; 電容 計可 於多 的副 也變 兩條 也增 素的 包含 行於 ，其 至資 一第 而其 30a 用線 200839393 r 第二薄臈電晶體20b的汲極連接一第二、凉曰 具有一第二晝素電極2b。雖然這種ΐ 1直接且有效的產生兩組珈瑪曲線 =了-條導線如掃描線，θ而產 作用，也就是使得開口率減少，且系 那而Λ描驅動也增加了一倍（如果是用 貝枓線那就疋資料驅動增加一倍），200839393 IX. Description of the Invention: [Technical Field of the Invention] The present invention relates to a liquid crystal display having a multi-region with a liquid crystal display element. In particular, the second [previous technology] is currently the most commonly used in thin film power plants; LCD) is 'flat':: f (ni-plane switching, lps) and: ? conversion compensation film has the most Good perspective: Color: J 7 7 ί: Ϊ Ϊ Ϊ Ϊ, but its contrast is relatively wide and manufacturing ΐ than #古, 伯3i i has a relatively good yield to the dry type, The compensation film can be used with a wide viewing angle to achieve a wide viewing angle and is not as good as a plane conversion in color performance: when viewed at an oblique angle, Asian fafh:t 2) C〇1〇r, the solution to the partial problem can be improved by producing different gamma curves in a sub-study (the effect is added to the mixed effect), and this technique is called halftone f-tone^, where Each pixel corresponds to a red, green, or & color, and the most direct way to produce a different gamma curve in a sub-sequence is to divide it into two regions within a sub-salm, It is also about to divide the original 昼 昼 昼 , , , , , , , , , , , , , , , , , , , , , , , , , , There are a total of three sub-success circuit designs. Please refer to Figure 1, which is the first special-purpose circuit diagram of the half-tone halogen. It reveals a first-type sub-tin 1 , package 5 200839393 1 Chu i ^ line DL, a scan line gl, and a common line. Stored in the ray=subsequence 1 is further provided with a thin film transistor 10, 〆, and 1111 connected to the common line CL and the thin film transistor 10 data line Di^ Then connected to the pole of the thin film transistor 。. The $t line GL is connected, and the gate of the thin film transistor 10 respectively 曰# type 昼素素1 退 includes two liquid crystal capacitors, Ub, and H a liquid crystal capacitor 12a and The liquid crystal capacitor film Ua has a first-electrode electrode ia connected to the drain having the f 10th, and the second liquid crystal capacitor 12b 1, #一#\electrode 1b. The first type disclosed in Fig. 1昼 Ϊ Ϊ 昼 昼 昼 昼 昼 Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Further, the electric energy of the first halogen electrode la is directly written by the material line DL through the thin film transistor 1 , and the electric energy of the denier electrode lb Then, it is determined by the voltage division of the series capacitor 3b, in other words, the second liquid crystal capacitor 12b of the 1-pole ib is in a floating state g | and its potential is determined by the coupling. Separating the potentials of the two liquid crystal capacitors, and generating the same gamma curve of two T, the structure is simple, and the added electron elements and the more important enthalpy traces are not increased, so the influence on the openings is small. The problem caused by the series capacitor 2 3 = in the operation of the panel, it will capture the charge and cause the potential of the second = prime electrode lb to shift the set value to generate image debris, in addition to reliability problems, A phenomenon of water ripple (mura, also known as moiré) that causes uniform color and brightness. Please refer to Figure 2, which is the attack circuit diagram of the second conventional halftone pixel. It is characterized in that two j-gamma curves are generated by directly giving two gamma values through two thin germanium crystals and two gate lines or two data lines. Figure 2 discloses a second type of second 壹夭 2 ', including a first scan line GU, a J-scan J, a, and a parallel line between the two, and a poor material The line DL 'second type secondary halogen 2 further includes a first film, the gate of the crystal 2〇a is connected to the first scan line GL1, and the gate of the germanium transistor 20b is connected to the second scan line. The drain of the first thin film transistor 20a is connected to the common line CL through a turn 2U, and the drain of the second thin film electrical body 20b is connected through a second storage line CL. And the first thin film transistor...the drain of the first thin film transistor: a young crystal capacitor 22a and has a first pixel electrode; the capacitance meter can be changed in two sub-additions, and the And the 30a is connected to the second thin silicon transistor 20b, and the second thin layer has a second halogen electrode 2b. Although this ΐ 1 directly and effectively produces two sets of gamma curves = - a wire such as a scan line, θ produces, that is, the aperture ratio is reduced, and the scanning drive is also doubled (if It is to double the data drive with the Bellow line),
加 0 % S ，參閱圖3，為第三種習用的半色調書 專效電路圖。其中揭露了第三型次了 一共用線CL1與第二共用線cL—2京一平 ，一掃描線GL，以及一資料線。又 =^ 3 一弟一薄膜電晶體30a，其源極連接 广f，而其閘極連接到掃描 二薄膜電晶體301^源極連接至 二及 閘極連接到掃描線GL， 的-極透過-第-儲存電 7 200839393 晶體30a的t CL2。又第一薄膜電 第二薄膜電:矽接一第一液晶電容32a，而 容32h Γ體 的汲極則連接一第二液晶電 過兩袖嚅 '圖2相同的是，圖3的次畫素亦是透 素電極1\電第晶體*3:\與3〇b來達到分割第-晝 的習用杜/、 旦素電極3b的電位，然與圖2 以兩條的產气’圖3的第三型次晝素3是 ί % ί二1 一晝素電極3a與第二晝素電極3b對 2 】的共用線CL1與CL2且各自連接到不同 传‘ Ϊ Ϊ。|·如第一共用線CL1與第二共用線CL2 彼此反相的方波，所以在薄膜電晶體關閉 ίΐίΓ=合’進而使第一晝素電極3a與第 :旦，，極3b的電位分開，產生不同的珈瑪曲 的齡ί幻第^型次晝素3不增加閘極線或資料線 、里，部還是增加了一條共用線，開口率依然 ^ ^再者’除了要供應兩條共用線的電位外， 逛，產生兩組信號源供給其使用，此亦使的系統 的複雜度增加、成本也上升，耗電量也有增加。 所以’如何在次晝素上，產生多個不同的珈 1曲線’並且能夠盡可能的不增加走線、元件的 情況:維持住開口率，減少系統的複雜度，並保 有可罪度’一直是應用雙區域甚或多區域型次晝 素的垂直對準式液晶顯示器所難以解決的問題。 【發明内容】 、有鑑於傳統的多區域次晝素所使用的技術， 會導致於可靠度問題、水波紋（mura)現象、或是 8 200839393 因為新增導線而使晝素的開口率下降且使系統變 的複雜。本發明以無比的巧思創造出新的晝素設 計，無須增加走線，且可以配合舊型面板既有的 共同電壓調變控制（Vcom modulation)，故無須變 更糸統’只要裝上本發明的面板，整個液晶顯示 器即可作動。 為達上述之目的，本發明提供一種液晶顯示 器之次晝素，至少^ 域’並包括一基板； f , 描線平行該第一掃描 基板上；一第一晝素 一晝素電極位於該第 其一端連接於該第一 該共用線；以及一第 該第二晝素電極4b， 線。 如前所述之液晶 第一薄膜電晶體有一 弟一 >及極，而該第一 〇 該第一汲極連接於該 二薄膜電晶體具有一 苐'一没極，而該第二 與该弟二沒極連接於 為達上述之目的 不裔之驅動方法，係 包含有：一第一掃描 線；一第一儲存電容 電極，及另一端連接 容，其一端連接於一 >為一第一區域與一第二區 一第一掃描線GL 1; —第二掃 線且與一共用線，排列於該 電極位於該第一區域；一第 二區域；一第一儲存電容， 晝素電極’及另一端連接於 一儲存電容’其一端連接於 及另一端連接於該第二掃描 顯示器之次晝素，更包含一 弟一閘極、一第一源極及一 閘極連接於該第一掃描線， 第一晝素電極4a ;以及一第 弟一閘極、一第二源極及一 閘極連接於該第一掃描線， «亥弟—晝素電極。 ’本發明提供另一種液晶顯 運用於一次晝素，該次畫素 線、一第二掃描線與一共用 ，其一端連接於一第一畫素 於該共用線；一第二儲存電 第二晝素電極，及另一端連 9 200839393 Γ 該第二 薄膜電 而其各 接於 第二 線， 與該第二區 供一 咼電位 該第一 共同電壓於 描線， 呈斷路 絕緣。 如上所 變控制 號至 I描線；一第一薄膜電晶體a以及一 晶體且其閘極均連接於該第一掃描 別之没極分別連接於該第一晝素電極 域電極；其中，該驅動方法包括：提 給該第一掃描線；寫入一第一資料訊 一掃 晶體 彼此 壓調 晝素電極與該第二晝素電極； 該共用線；以及提供一低電位 使該第一薄膜電晶體與該第二 狀並使第一晝素電極與第二晝 提供一 給該第 薄膜電 素電極 述的方法’其中該共用線是以共同電 【實施方式】 壹明參閱圖4 ’為本發明第一實施例的半色調 旦素的等效電路圖。其中揭露了 一第一次晝素4 及與之相鄰的一個第二次晝素4，，且第二次畫素 ^僅揭露其具有的一第二掃描線GL2，至於第一 次晝素包含一共用線CL、一第一掃描線GL1 =及一資料線DL。又，為了得到兩個珈瑪曲線以 達成混色的效果，故在第一次晝素4内包括兩個 液曰日電谷’分別是第一液晶電容42a以及一第二 液晶，容42b，其中第_液晶電容42a所在位置 即為，一區域a，而第二液晶電容42b所在位置 =土第二區域b。又，此二液晶電容各自有一第 2 =電極4a與一第二晝素電極4b ;此實施例 ^次晝素4包含兩個薄膜電晶體TFT(4〇a、40b)， =別位於第一區域a與第二區域b，此二薄膜電 曰曰體TFT的汲極各自與第一液晶電容42a及第二 200839393 液晶電容42b連接，而、、/5托印丨n μ 接，至於閘極二笛原Λ均與資料線见連 ;二=第^電位將-第-薄膜電晶體 第一佥音雪朽弟4一溥膜電晶體TFT 4〇b關閉時， ^晝素電極4a與第二晝素電極4b就可^蜗 緣。另外，該第一薄膜雷曰# "、 ί 生電容43a與第一掃描線GLi連接ί 一薄膜^晶體40b的汲極則透過一第二 43b與第一掃描線gli連接。盥夕义 電谷 ^ Τσ^ Jj^ JI,| A -#- * /、之如所述的習用 Γ i :2a、：^素二曰同的是，本發明的第-液晶電 I ^電* 4la與一第二儲存電容41 ，弟 本發明將其中一者連接於丘 仁疋 個連接於第二次書辛\上，而另- 搭配共同電壓調變控制（c_m〇n = 電極4b雷i X ^ 畫素電極4a與第二畫素 社夫無須增加任何的導線。 用線Ϊg 3 Γ·為根據本發明第一實施例之共 “ 制㈣共用線與晝素電壓 變電壓來iI用ί cf f例中即透過共同電壓調 電壓調變是^ &诸i t加以控制。以往使用共同 個低準位），每攻壹^包含一個*準位及一 電，故當晝素電M相對於共同 ::則共用線卿叫是低 田旦素包壓相對於共同電壓寫入是負極 11 200839393 性時，則共同電壓是高準位。 5月參閱圖6 ’為本發明第一實施例之驅動波 形圖。由於第一區域a之第一儲存電容41a與第 一液晶電容42a皆係連接於共用線CL，而第^區 域b中只有第二液晶電容42b連接於共用線cl， 其第二儲存電容41b則是連接在閘極線gl2，因 此當閘極訊號處於高電位並分別將第一與第二電 晶體40a及4〇b開啟後，第一晝素電極所受到 來自於共同電壓訊號|馬合電位之變動將會比第二 〇 ，素電極4b來得大，是故，第一晝素電極4a與 弟一晝素電極4b電位就會不一樣，所以使得第一 £域的你瑪曲線與弟二區域的伽瑪曲線相異，自 然而然的產生混色的效果。 μ 请參閱圖7 ’為本發明另一種實施例的半色 調畫素的等效電路圖，其大部分之結構係與圖4 之實施例相同，且相同之元件以相似之編號表示 之。此實施例中揭露了 一第一次晝素5及與之相 鄰的一第二次晝素5 ’，且第二次晝素5，僅揭露其 具有的一第^一知描線GL2’至於第一次晝素5包 V/ 含一共用線CL·、一第一掃描線GL1以及一資料 線DL。又，為了得到兩個珈瑪曲線以達成混色的 效果，故在次晝素5内包括兩個液晶電容，分別 是第一液晶電谷52a以及一弟^一液晶電容52b， 其中第一液晶電容52a所在位置即為第一區域 a，而第二液晶電容52b所在位置即為第二區域 b。且此二液晶電容各自有一第一晝素電極5a與 一第二畫素電極5b，本實施例中包含兩個薄膜電 晶體丁卩丁（50&、501))分別設置於第一區域與第二 區域，此二薄膜電晶體TFT的源極均與資料線 12 200839393 Γ極均與Λ 一Λ描線GL1連接、至於 51b連接二/二液」'電容5ia、第二液晶電容 第一薄膜雷曰t虽弟一掃描線GL1為低電位將一 τπτ Ju電日日體TFT 5〇a和一第二薄膜電曰_ TFT 50b關閉時，第一蚩 =胰冤日日體 極5b就可以續绪弟s ^素電極5a與苐二畫素電 透過一第_ 外，該第一薄膜電晶體50a 第二薄膜雷:驹電谷連接第一掃描線GL1 ; ί第二U透過一第二寄生電容別連 次晝素不θ ° '樣地’與之前所述的習用 一筮-、卢曰勺疋’本實施例的第一液晶電容52a、 第—液晶電容52b固然分別遠 电,52a 2 51a與—第二儲存電容刀η弟：= 將其中一者連接於丘 一疋本貝鉍例 於第二次查辛ν认二一: 上，而另一個連接 使第一查；^ ^ /的弟二掃描線GL2上，如此即可 Ϊ而Ϊ電極“與第二晝素電極5b雷位： 同，而無須增加任何的導 7 電位不 第一實施例主要之不π卢^ 卜，本貝施例與 極…方，SGji:存圖電巧二畫素電 »j t 50b ^ ^ # 上各設計更具有彈性，並使設計 ^日7号里因素得以最佳化。 顯示器而；述透：於：j對準式薄臈電晶體液晶 具有不同;# ί ΐ二ΐ内部分為兩個或兩個以上 混色的效果，可以減^晝素，所產生的 若以圖1所示的習色：f的現象。然而， 為串聯電容13的電位偏^多;# f區域1b會因 殘留、水波紋現象以二而上可罪度不足、影像 以圖2的習用技術而言，透 13 200839393 Ο 過兩條閘極線或資料線給定兩個不同的如瑪曲線 固然是直接有效，但卻因為增加了走線而導致開 口率降低、系統過於複雜、耗電量增加；而以圖 3的習用技術而言，係透過兩條共用線且具有反 相的方波’藉此使兩個區域的液晶電容的電位不 同進而產生不同的珈瑪曲線，但也仍然有因為增 加走線而使系統複雜化、開口率降低\、耗電增加 的問題。反觀本發明，雖然也是一種具有多區域 的液晶次晝素，但是以極具巧思的方式，將直中 之一所含的儲存電容連接到鄰近次晝素所屬^掃 描線（閘極線）上，並可更進一步的配合共用線電 壓調變，透過這樣的連接方式，使得本發明不同 的區域電極之電位不同進而產生不同的珈瑪曲 線，、由此可見，透過本發明不但可以解決垂直對 準式薄膜電晶體液晶顯示器於斜角度觀賞時的色 偏問題，同時也因不需有太多走線之設計而改盖 了開口率，並且也讓晝素之設計與運用更有^ 二因此，綜合的來說，本發明利用原有的共同 電堊驅動方式並搭配特別的次畫素結構來產 色調，故在系統上是與無半色調相同的，又， Ϊ ί ΐ】、圖3的習用技術而言，其線路鱼夺统 可見本發明整體而言是降低了成太溆=^降低 度，並降低了能源的消耗，對於垂直 〇 ^ = 電晶體液晶顯示器技術的貢獻十分卓著了忒溽胰 ^發明遭熟習技術領域之人所任為匠思 飾，^不脫本發明申請專利範圍之保護。^少 【圖式簡單說明】 14 200839393 圖1，為第一種習用的半色調晝素的等效電 路圖； 圖2，為第二種習用的半色調晝素的等效電 路圖； 圖3，為第三種習用的半色調晝素的等效電 路圖； 圖 4，為本發明實施例的半色調晝素的等效 電路圖； 圖5，為本發明以共同電壓調變控制共用線 ' 的波形圖， i 圖6，為本發明驅動波形圖；以及 圖 7，為本發明另一種實施例的半色調晝素 的等效電路圖。 件 元 要 主 ab ο 1 3 11 11 11 1± 1± 明 s兄 ^素域域 P7晝區區 次一二 ¾第第 一:: 第 abAdd 0% S, see Figure 3, for the third custom halftone book special effects circuit diagram. The third type is disclosed. A common line CL1 and a second common line cL-2 are one flat, one scan line GL, and one data line. Also =^ 3 a thin film transistor 30a whose source is connected to a wide f, and whose gate is connected to the scanning two-film transistor 301, the source is connected to the second electrode, and the gate is connected to the scanning line GL, - the first storage battery 7 200839393 t CL2 of the crystal 30a. The first thin film electric second film electric: the first liquid crystal capacitor 32a is connected to the first liquid crystal capacitor 32a, and the drain of the 32h body is connected to a second liquid crystal and the two sleeves are the same as in Fig. 2, the second drawing of Fig. 3 It is also the permeation electrode 1 \ electric crystal * 3: \ and 3 〇 b to achieve the potential of the division of the first - 昼 杜 Du /, Dan electrode 3b, and Figure 2 with two gas production 'Figure 3 The third type of secondary sputum 3 is a common line CL1 and CL2 of the ί 昼 电极 电极 电极 电极 电极 电极 电极 电极 3 3 3 Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ If the first common line CL1 and the second common line CL2 are mutually inverted square waves, the thin film transistor is turned off and the first halogen element 3a is separated from the first: , the age of the different gamma songs ί 幻 第 ^ 昼 3 3 3 不 不 不 不 不 不 不 不 不 不 不 不 不 不 不 不 不 不 不 不 不 不 不 3 3 3 3 3 3 3 3 3 3 3 3 In addition to the potential of the shared line, two sets of signal sources are generated for use, which also increases the complexity of the system, increases the cost, and increases the power consumption. So 'how to create multiple different 珈1 curves' on the secondary nucleus and can not increase the routing and components as much as possible: maintain the aperture ratio, reduce the complexity of the system, and keep the guilty 'always It is a problem that is difficult to solve by a vertically aligned liquid crystal display using a two-zone or even a multi-regional sub-tendin. SUMMARY OF THE INVENTION In view of the technology used in the conventional multi-regional sputum, it may lead to reliability problems, mura phenomenon, or 8 200839393, because of the addition of wires, the aperture ratio of the halogen is decreased and Make the system complicated. The invention creates a new element design with incomparable ingenuity, does not need to increase the routing, and can cooperate with the common voltage modulation control (Vcom modulation) of the old type panel, so there is no need to change the system 'as long as the invention is installed The panel, the entire LCD display can be activated. In order to achieve the above object, the present invention provides a sub-crystal of a liquid crystal display, comprising at least a domain and comprising a substrate; f, the trace is parallel to the first scan substrate; and a first halogen-anidin electrode is located at the first One end is connected to the first common line; and the second second elemental electrode 4b is a line. The liquid crystal first thin film transistor has a first one and a pole, and the first first drain is connected to the second thin film transistor, and the second and the second The second method is a driving method for the purpose of the above-mentioned purpose, and includes: a first scanning line; a first storage capacitor electrode; and the other end of the connection capacity, one end of which is connected to a > a region and a second region - a first scan line GL 1; a second scan line and a common line, the electrode is located in the first region; a second region; a first storage capacitor, a halogen electrode 'and the other end is connected to a storage capacitor' having one end connected to the other end and being connected to the second scanning display, and further comprising a first gate, a first source and a gate connected to the second a scan line, a first halogen electrode 4a; and a first brother, a gate, a second source and a gate are connected to the first scan line, «Hai-昼素 electrode. The present invention provides another liquid crystal display for use in a primary pixel, the secondary pixel line, a second scan line and a common one, one end of which is connected to a first pixel on the common line; The halogen electrode and the other end of the connection 9 200839393 Γ the second film is electrically connected to the second line, and the second region is supplied with a potential of the first common voltage to be traced, and is insulated by an open circuit. Controlling the number to the I trace as described above; a first thin film transistor a and a crystal and the gates thereof are connected to the first scan and the other gates are respectively connected to the first pixel electrode domain electrode; wherein the driving The method includes: feeding the first scan line; writing a first data scan to scan the crystal with each other to adjust the halogen electrode and the second halogen electrode; the common line; and providing a low potential to the first thin film transistor And the second shape and the first germanium electrode and the second germanium providing a method for the first thin film electro-electrode electrode, wherein the common line is a common electric system. [Embodiment] An equivalent circuit diagram of the halftone denier of the first embodiment. The first pixel 4 and a second pixel 4 adjacent thereto are disclosed, and the second pixel only reveals a second scanning line GL2, as for the first pixel. A common line CL, a first scan line GL1 = and a data line DL are included. In addition, in order to obtain two gamma curves to achieve the effect of color mixing, the first liquid crystal valley includes two liquid crystal solar cells 42a and a second liquid crystal, respectively, 42b, wherein The position of the liquid crystal capacitor 42a is an area a, and the position of the second liquid crystal capacitor 42b = the second area b of the soil. Moreover, the two liquid crystal capacitors each have a second = electrode 4a and a second halogen electrode 4b; in this embodiment, the second pixel 4 comprises two thin film transistor TFTs (4A, 40b), = is located first The region a and the second region b, the drains of the two thin film electrodes 102 are respectively connected to the first liquid crystal capacitor 42a and the second 200839393 liquid crystal capacitor 42b, and the /5 托 μ n μ is connected to the gate The two flutes are all connected with the data line; the second = the first potential will be - the first thin film transistor first 雪 雪 朽 4 4 4 4 4 4 4 4 4 电 电 电 昼 昼 昼 昼 昼 昼 昼 昼The dioxad electrode 4b can be used as a burr. In addition, the first thin film Thunder # ", λ capacitor 43a is connected to the first scan line GLi, and the drain of the thin film ^ crystal 40b is connected to the first scan line gli through a second 43b.盥夕义电谷^ Τσ^ Jj^ JI,| A -#- * /, as described in the Γ : i : 2a, : ^ 素 二 二 二 二 二 二 二 二 二 二 二 二 二 二 二 二 二 二 二 二 二 二* 4la and a second storage capacitor 41, the present invention connects one of them to Qiu Renyi to connect to the second book Xin\, and the other - with common voltage modulation control (c_m〇n = electrode 4b mine The i X ^ pixel electrode 4a and the second pixel are not required to add any wires. The wire Ϊg 3 Γ· is a common system (four) common line and a halogen voltage varying voltage according to the first embodiment of the present invention. In the case of ί cf f, the common voltage voltage modulation is controlled by ^ & it is used. In the past, a common low level was used, and each attack ^ contains a * level and a power, so when the battery is M Relative to common:: The shared line is called the low-density voltage, and the common voltage is written to the negative voltage. The common voltage is a high level. May 6 is the first embodiment of the present invention. For example, the driving waveform of the first storage capacitor 41a and the first liquid crystal capacitor 42a are connected to the common line CL, and the second region b Only the second liquid crystal capacitor 42b is connected to the common line c1, and the second storage capacitor 41b is connected to the gate line gl2, so when the gate signal is at a high potential and the first and second transistors 40a and 4b, respectively After being turned on, the first halogen electrode is subjected to a change from the common voltage signal | the horse potential is larger than the second electrode, and the element electrode 4b is larger. Therefore, the first halogen electrode 4a and the first electrode 4b are The potential will be different, so that the gamma curve of the first domain and the gamma curve of the second region are different, which naturally produces the effect of color mixing. μ Please refer to FIG. 7 'halftone of another embodiment of the present invention. The equivalent circuit diagram of the pixel is mostly the same as that of the embodiment of Fig. 4, and the same components are denoted by similar numbers. This embodiment discloses a first pixel 5 and is adjacent thereto. The second time 昼素 5 ', and the second 昼素5, only reveals that it has a first known line GL2' as for the first 昼素5包V/ contains a common line CL·, a a scan line GL1 and a data line DL. Again, in order to get two gamma The line is used to achieve the effect of color mixing, so that the two liquid crystal capacitors are included in the secondary halogen 5, which are the first liquid crystal valley 52a and the first liquid crystal capacitor 52b, wherein the first liquid crystal capacitor 52a is in the first region. a, and the second liquid crystal capacitor 52b is located in the second region b. The two liquid crystal capacitors each have a first halogen electrode 5a and a second pixel electrode 5b. In this embodiment, two thin film transistors are included. The bismuth (50 & 501) is respectively disposed in the first region and the second region, and the sources of the two thin film transistor TFTs are connected to the data line 12 200839393 and the Γ1 line is connected to the GL1 line. / two liquid" 'capacitor 5ia, the second liquid crystal capacitor first film Thunder t although the scan line GL1 is low potential, a τπτ Ju electric solar TFT 5〇a and a second thin film electric 曰 _ TFT 50b off When the first 蚩 = pancreatic 冤 体 体 体 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 Connecting the first scan line GL1; ί, the second U is transmitted through a second parasitic capacitance ° 'sample ground' and the conventional use of the previous one -, Lu Hao scoop 疋 'the first liquid crystal capacitor 52a, the first liquid crystal capacitor 52b of this embodiment are of course remote power, 52a 2 51a and - second storage capacitor knife η弟:= Connect one of them to Qiu Yizhen Benbey in the second time Chasin ν recognizes 21: On, and the other connects to make the first check; ^ ^ / Di's second scan line GL2, so The electrode can be Ϊ Ϊ “ 与 与 昼 昼 昼 Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ : 存图电巧二画素电»jt 50b ^ ^ # The design is more flexible, and the design of the day of the 7th factor is optimized. Display: said: j: aligning thin 臈 crystal liquid crystal has different; # ΐ ΐ ΐ ΐ 分为 分为 分为 ΐ ΐ ΐ ΐ ΐ ΐ ΐ ΐ ΐ ΐ ΐ ΐ ΐ ΐ ΐ ΐ ΐ ΐ ΐ ΐ ΐ ΐ ΐ ΐ ΐ ΐ ΐ ΐ ΐ ΐ ΐ ΐ ΐ The color of the color shown in 1: the phenomenon of f. However, the potential of the series capacitor 13 is too large; the #f region 1b may be less guilty due to the residual, water ripple phenomenon, and the image is in the conventional technique of Fig. 2, through 13 200839393 It is directly effective to give two different imammary curves to the polar line or the data line, but the aperture ratio is reduced, the system is too complicated, and the power consumption is increased because of the increase of the routing; and in the conventional technology of FIG. 3 , through two common lines and having an inverted square wave ' thereby making the potentials of the liquid crystal capacitors of the two regions different to produce different gamma curves, but the system is complicated by the increase of the routing, and the opening The rate is reduced and the power consumption is increased. In contrast, the present invention, although also a multi-region liquid crystal sub-small element, in an ingenious way, connects the storage capacitor contained in one of the straight cells to the adjacent scan line (gate line) Further, the common line voltage modulation can be further matched. Through such a connection method, the potentials of the different regional electrodes of the present invention are different to generate different gamma curves, and thus, it can be seen that the vertical can be solved through the invention. The alignment film transistor liquid crystal display has a color shift problem when viewed from an oblique angle. At the same time, it also changes the aperture ratio because there is no need to design too many traces, and also makes the design and application of the vegan. Therefore, in summary, the present invention utilizes the original common electric driving method and is combined with a special sub-pixel structure to produce a color tone, so that the system is the same as no halftone, and Ϊ ΐ 、, In terms of the conventional technology of 3, the line fish can be seen. The invention as a whole reduces the degree of reduction and reduces the energy consumption. For vertical 〇^ = transistor liquid crystal display The contribution of the technology has been outstanding. The invention has been invented by those skilled in the art, and does not depart from the protection of the scope of the invention. ^少 [Simple description of the diagram] 14 200839393 Figure 1, is the equivalent circuit diagram of the first conventional halftone halogen; Figure 2 is the equivalent circuit diagram of the second conventional halftone halogen; Figure 3, FIG. 4 is an equivalent circuit diagram of a halftone pixel of the embodiment of the present invention; FIG. 5 is a waveform diagram of a common voltage modulation common line of the present invention. Figure 6 is a driving waveform diagram of the present invention; and Figure 7 is an equivalent circuit diagram of a halftone halogen of another embodiment of the present invention. The element must be the main ab ο 1 3 11 11 11 1± 1± Ming s brother ^ prime domain P7 昼 zone second one 3⁄4 first one:: ab
L DL D
L G 晶容容 電電電線線 fen 薄儲串資掃L G crystal capacity electric wire wire fen thin storage string sweep
L GL G
2 L G2 L G
:1 2 L L L c c C 第 線線 線線素 描描 用用晝 掃掃泉共共次 一二心一二型 第第.第第二 共 15 200839393 、50a 、50b 3 ··第三型次晝素 4、5 :第一次晝素 4,、5,：第二次晝素 第一寄生電容：43a、53a 第二寄生電容：43b、53b 第一薄膜電晶體TFT : 20a、30a、40a 第二薄膜電晶體TFT : 20b、30b、40b 第一儲存電容：21a、31a、41a、51a 第二儲存電容：21b、31b、41b、51b 第三儲存電容：51c 52a 52b 第一液晶電容：12a、22a、32a、42a、 第二液晶電容·· 12b、22b、32b、42b、 第一畫素電極：la、2a、3a、4a、5a 第二晝素電極：lb、2b、3b、4b、5b 16:1 2 LLL cc C The first line of the line drawing is used for sweeping and sweeping the spring. The second total is the second and the second type. The second total 15 200839393, 50a, 50b 3 ··the third type 4, 5: first halogen 4, 5,: second halogen first parasitic capacitance: 43a, 53a second parasitic capacitance: 43b, 53b first thin film transistor TFT: 20a, 30a, 40a second Thin film transistor TFT: 20b, 30b, 40b First storage capacitor: 21a, 31a, 41a, 51a Second storage capacitor: 21b, 31b, 41b, 51b Third storage capacitor: 51c 52a 52b First liquid crystal capacitor: 12a, 22a 32a, 42a, second liquid crystal capacitor · 12b, 22b, 32b, 42b, first pixel electrode: la, 2a, 3a, 4a, 5a second halogen electrode: lb, 2b, 3b, 4b, 5b 16