.201024876 九、發明說明： 【發明所屬之技術領域】 本發明係-種新型液晶顯示面板及其驅動方法’其係特別關於一 種利用雙_動電路實施Frame irw⑽iQn架構崎魏晶顯示面板 及其驅動方法。 【先前技術】 液晶顯示器活用其薄型、輕量、低耗電力及不會帶來環境上的負 擔等的特性，在各應關域巾使用佔有率相當地高…般液晶顯示器 ❿通常係採社動矩陣驅動電路來控悔示面板的作動，且隨著顯示技 術的蓬勃發展，如何提高顯示品質與降低成本乃是目前業界所努力克 服之二大課題。 、 由於液晶分子特性係不能夠固定施加同一極性的電場太久，如時 間過久，即使將電壓取消掉’液晶分子會因為特性的破壞而無法再因 應電場的變化來轉動，以形成相應的灰階。所以每隔一段時間，就必 須將施加在液晶分子上的電壓極性作切換，以避免液晶分子的特性遭 到破壞。 當晝面一直不動，也就是說晝面一直顯示同一個灰階時，對於液 〇 晶顯示器來說，液晶顯示器内的顯示電壓就分成了兩種極性，一個定 義為正極性，而另一個是負極性。當顯示電極的電壓高於Vc〇mm〇n 電極電壓時，就稱之為正極性。而當顯示電極的電壓低於Vc〇mm〇n 電極的電壓時，就稱之為負極性。不管是正極性或是負極性，都會有 一組相同亮度的灰階。所以當上下兩層玻璃的壓差絕對值是固定時， 不管是顯示電極的電壓高，或是common電極的電壓高，所表現出來 的灰階是一模一樣的。 不過這兩種情況下，液晶分子的轉向卻是完全相反，也就可以避 免掉上述當液晶分子轉向一直固定在一個方向時，所造成的特性破 壞。也就是說’當顯示畫面一直不動時’仍然可以藉由正負極性不停 5 201024876 的交替達到顯示畫面不動，同時液晶分子不被破壞掉特性的結果。 所以當您所看_液_示面雜靜止不動，其實裡面的電磨正 在不停的作更換’而其巾的液晶分子正不停的—次往這邊轉另一次 往反方向轉呢。 面板各種不同極性的變換方式，但都是在下一次更換畫面資料的 時候來改變極性，對於同—點而言，它的極性是不停的變換的。相鄰 的點是否擁有相_極性，那可就依照不_極性轉換方式來決定。 纟巾’現在常見使用在個人賴上的液晶，所使用的面板 dot inversion ^ line inversion > column ❹丨nversion、frame inversi〇n。每種極性變換的方式各有其優缺點。以 下繼續說明先前技術採用frame lnversi〇n極性變換時所遭遇的問題。 -般主動矩陣驅動電路之示意圖參第一圖所示其係採用伽 inversion的方式設計。在主動矩陣式液晶顯示面板24中每個畫素 1〇具有-薄膜電晶體（TFT) 12作為開關，其閘極連接至水平向的掃 描線14 極連接至垂直向的資料線16，而源極連接至液晶電極，如 第-圖所示。顯示面板同-時間一次啟動一條水平婦描線14，以將該 條線上的所有薄膜電晶鱧12⑽，碰由垂直將線16送入資料信 號至對應之晝素1〇中。接著_薄膜電晶體12，直到下次再重新寫 ©入信號’其間使得電荷保存在畫素電容Μ上；此時再啟動下一條掃描 線’經由資料線輸入資料信號至對應畫素中；如此依序將整個畫面的 資料信號寫入，再重新自第一條重新寫入信號。其中，複數資料線16 係由資料驅動器20所驅動，複數掃描線14則由掃描驅動器22所驅 動，如此即可控制主動矩陣式顯示面板中每一個畫素1〇可根據輸入之 資料信號作動而將影像顯示在顯示面板上。 第-囷係以RGB畫素，來表示一般主動矩陣堪動電路之示意圓。 將第-圖以為RGB畫素的觀點來看，可用第二圖來表^每一條掃描 線接2400個晝素TFT，而每一條掃描線中的畫素均以R、g、b為一 6 201024876 週期交互排列。以上所介紹之第—圖及第二圖係屬於S|ng丨eGate的一 種，對於Single Gate來說，RGB畫素的極性能以frame inversi〇n的 方式呈現，即每個點的極性與自己相鄰的上下左右四個點，是相同的 極性。以frame inversion為例，每個晝素的極性與其上下左右的畫素 均相同® 请同時參照第二圖及第三圓，第三圓係第二圖之時脈信號與閘極 信號的波形圖。其中YDI01代表第一觸發信號、YCLK係為時脈信號、 YOE係為間隔信號、G1-G256係為閘極信號、yD|〇2代表第二觸發 #號，而每一個信號之間有一個延遲時間t用以區隔避免互相干擾β β 從第二圖可以發現’先前技術的G1~G256係由上而下依序掃描下來。 追求提升一個液晶顯示面板的畫面品質，必須對於液晶上下板壓 差的問題給予足夠的關注，『上下板壓差過大，將影響液晶顯示面板的 灰階變化』。對於上板Vcommon電壓而言，在Charge結束前， Vcommon電壓是否能回到vcommon電壓準位；如不能回到 Vcommon電壓準位，將發生水平方向串擾(cr〇ss_ta|k)。對於下板丨丁〇 電極電壓而§ ’則是於保持期間(Holding period)，ITO電極電壓被資 料線的data耦合(couple)的程度，如ιτο電極電壓被耦合嚴重，將出 現垂直方向的串擾(cross-talk)。 ® 為此，本發明提出一種新型液晶顯示面板及其驅動方法，能有效 降低先前技術中，以frame inversion極性變換方式時，所產生的垂直 方向的串擾(cross-talk)，藉此提昇液晶顯示面板的晝面品質。 【發明内容】 本發明之主要目的在提供一種新型液晶顯示面板及其驅動方法， 其係採用雙閘驅動電路以及frame jnverSi〇n的極性變換方式，能降低 先前技術中垂直方向串擾(cross-talk)的問題。 本發明係提供一種新型液晶顯示面板及其驅動方法，其係具有複 數列晝素單元及複數條平行之資料線。複數列畫素單元中之每一列畫 7 '201024876 素單兀*包含有第一掃描線及第二掃描線，複數條平行之資料線，所有 的資料線係與所有的掃描線互相垂直，且該等資料線中包含一第一資 料線其中第一畫素分別連接第一掃描線與第一資料線，第二畫素分 ，連接該第二掃描線與該第一資料線。根據上述結構，當新型液晶顯 不面板啟動掃描時，係將所有的第一掃描線由上而下依序掃描後再 將所有的第一掃描線由上而下依序掃描。 藉由本發明之新設計的驅動方法，本發明能以實踐用雙閘驅動電 路的架構下結合疗3^^的呢阁〇11的極性變換方式，利用雙閘驅動電路 的優點來降低因使用frame inversion所導致垂直方向的串擾 ® (cross咐k) ’以另闢蹊徑的思維來提昇frame invers丨on的畫面品質。 底下藉由具體實施例配合所附的圖式詳加說明，當更容易瞭解本 發明之目的、技術内容、特點及其所達成之功效。 【實施方式】 為能詳細說明本發明之主動矩陣式新型液晶顯示面板，請參照第 四圖。首先說明本發明之新型液晶顯示面板，包括複數列畫素單元及 複數條平行之資料線。每一列畫素單元包含有一第一掃描線及一第二 掃描線。另外，每一條資料線係與該等掃描線互相垂直，且該等資料 線中包含一第一資料線。本發明之每一列畫素單元，係以兩條掃瞄線 為一組，且每一個畫素包括一個開關及一個液晶畫素電容。其中每一 個開關係為薄膜電晶體或者是P型場效電晶體、N型場效電晶激β如 第五圖中的第一掃描線G1及第二掃描線G1-1為一組、第一掃描線 G2及第二掃描線G2-1為一組；第一畫素34中的薄膜電晶體36的汲 極與第一資料線soi連接，而源極連接至液晶電極。其中第一畫素34 中的薄膜電晶體36的閘極與掃描線G1連接。第二畫素38中的薄膜 電晶體40淡極與第一資料線S01連接，而源極連接至液晶電極。其 中第二畫素38中的薄膜電晶體40的閘極與掃描線G1-1連接。第二 畫素34及第二畫素36係共用第一資料線s〇1，卻分別以第一掃描線 8 201024876 G1及第一一掃描線叫兩個不同的掃描線控制。 第畫素42中的薄膜電晶艘44的汲極與第一資料 ==極。其中第三細中的_二： Ί 連接。第四畫素46中的薄膜電晶體48汲極與第一杳 S01連接，而源極連接至液晶電極。其中第四畫素妨中的 掃插線G2連接。第三畫素42及第四畫素46係共 ::控^料線S〇1，部分別以掃描線G2-1及掃描線G2兩個不同的掃. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . method. [Prior Art] Liquid crystal displays use their thin, lightweight, low-power consumption and environmental burdens, and they have a high occupancy rate in all areas. The dynamic matrix drive circuit controls the operation of the repentance panel, and with the vigorous development of the display technology, how to improve the display quality and reduce the cost is the two major problems that the industry has been trying to overcome. Because the molecular characteristics of the liquid crystal cannot fix the electric field of the same polarity for too long, if the time is too long, even if the voltage is removed, the liquid crystal molecules will not be able to rotate according to the change of the electric field due to the destruction of the characteristics, so as to form the corresponding gray. Order. Therefore, at regular intervals, the polarity of the voltage applied to the liquid crystal molecules must be switched to prevent the properties of the liquid crystal molecules from being destroyed. When the kneading surface does not move, that is to say, the kneading surface always shows the same gray level, for the liquid crystal display, the display voltage in the liquid crystal display is divided into two polarities, one is defined as positive polarity, and the other is Negative polarity. When the voltage of the display electrode is higher than the voltage of the Vc 〇 mm 〇 n electrode, it is called positive polarity. When the voltage of the display electrode is lower than the voltage of the Vc 〇 mm 〇 n electrode, it is called negative polarity. Whether it is positive or negative, there will be a set of gray levels of the same brightness. Therefore, when the absolute value of the pressure difference between the upper and lower layers of glass is fixed, whether the voltage of the display electrode is high or the voltage of the common electrode is high, the gray scale is exactly the same. However, in both cases, the steering of the liquid crystal molecules is completely reversed, and the above-described deterioration of the characteristics caused when the liquid crystal molecules are always fixed in one direction can be avoided. That is to say, when the display screen is not moving, it is still possible to achieve the result that the display screen is not moved by the alternating of the positive and negative polarities 5 201024876, and the liquid crystal molecules are not destroyed. So when you look at the _ liquid _ 面 杂 杂 , , , , , 其实 其实 其实 其实 其实 其实 其实 其实 其实 其实 其实 其实 其实 其实 其实 其实 其实 其实 其实 其实 其实 其实 其实 其实 其实 其实 其实 其实 其实 其实 其实 其实 其实 其实 其实 其实 其实 其实 其实The panel changes in various polarities, but the polarity is changed the next time the screen data is changed. For the same point, its polarity is constantly changing. Whether the adjacent points have phase_polarity can be determined according to the non-polarity conversion method.纟 ’ ' Nowadays it is common to use the LCD on the individual, the panel used dot inversion ^ line inversion > column ❹丨nversion, frame inversi〇n. Each polarity change has its own advantages and disadvantages. The following describes the problems encountered in the prior art when using the frame lnversi〇n polarity transform. The schematic diagram of the general active matrix driving circuit is shown in the first figure, which is designed by gamma inversion. In the active matrix type liquid crystal display panel 24, each pixel has a thin film transistor (TFT) 12 as a switch, and its gate is connected to a horizontal scanning line 14 to a vertical data line 16, and the source is connected. The pole is connected to the liquid crystal electrode as shown in the figure. The display panel simultaneously initiates a horizontal line 14 at the same time to cause all of the thin-film wires 12 (10) on the line to be fed vertically into line 16 into the corresponding element 1 . Next, the thin film transistor 12, until the next time the input signal is rewritten, during which the charge is stored on the pixel capacitor ;; at this time, the next scan line is activated to input the data signal to the corresponding pixel via the data line; Write the data signal of the entire screen in sequence, and then re-write the signal from the first line. The plurality of data lines 16 are driven by the data driver 20, and the plurality of scan lines 14 are driven by the scan driver 22, so that each pixel in the active matrix display panel can be controlled to operate according to the input data signal. Display the image on the display panel. The first-囷 system uses RGB pixels to represent the schematic circle of the general active matrix slid circuit. From the point of view of the first picture as RGB pixels, the second picture can be used to display 2400 pixel TFTs for each scanning line, and the pixels in each scanning line are R, g, b as a 6 201024876 Cycles are arranged interactively. The first picture and the second picture introduced above belong to one of S|ng丨eGate. For Single Gate, the extreme performance of RGB pixels is presented in the form of frame inversi〇n, that is, the polarity of each point and itself. The adjacent up, down, left, and right points are the same polarity. Taking frame inversion as an example, the polarity of each element is the same as the pixels above and below it. Please refer to the second and third circles at the same time. The waveform of the clock signal and the gate signal in the second figure of the third circle . Where YDI01 represents the first trigger signal, YCLK is the clock signal, YOE is the interval signal, G1-G256 is the gate signal, yD|〇2 represents the second trigger #, and there is a delay between each signal. The time t is used to separate from each other to avoid β β. From the second figure, it can be found that the prior art G1 to G256 are sequentially scanned from top to bottom. In order to improve the picture quality of a liquid crystal display panel, it is necessary to pay sufficient attention to the problem of the differential pressure between the upper and lower layers of the liquid crystal. "The pressure difference between the upper and lower plates is too large, which will affect the gray scale change of the liquid crystal display panel." For the Vcommon voltage on the upper board, whether the Vcommon voltage can return to the vcommon voltage level before the end of the Charge; if it cannot return to the Vcommon voltage level, horizontal crosstalk (cr〇ss_ta|k) will occur. For the lower plate 〇 〇 electrode voltage and § ' is in the holding period, the ITO electrode voltage is coupled by the data line data, such as ιτο electrode voltage is coupled severely, vertical crosstalk will occur (cross-talk). For this reason, the present invention proposes a novel liquid crystal display panel and a driving method thereof, which can effectively reduce the cross-talk in the vertical direction generated by the frame inversion polarity conversion method in the prior art, thereby improving the liquid crystal display. The quality of the face of the panel. SUMMARY OF THE INVENTION The main object of the present invention is to provide a novel liquid crystal display panel and a driving method thereof, which adopt a double gate driving circuit and a polarity changing manner of a frame jnverSi〇n, which can reduce vertical crosstalk in the prior art (cross-talk). )The problem. The present invention provides a novel liquid crystal display panel and a driving method thereof, which have a plurality of pixel units and a plurality of parallel data lines. Each column of the plurality of columns of pixels is drawn 7 '201024876 prime single 兀* contains a first scan line and a second scan line, a plurality of parallel data lines, all data lines and all scan lines are perpendicular to each other, and The data lines include a first data line, wherein the first pixels are respectively connected to the first scan line and the first data line, and the second pixel is connected to the second scan line and the first data line. According to the above configuration, when the new liquid crystal display panel starts scanning, all the first scanning lines are sequentially scanned from top to bottom, and then all the first scanning lines are sequentially scanned from top to bottom. With the newly designed driving method of the present invention, the present invention can reduce the polarity of the double gate driving circuit by using the dual-gate driving circuit under the framework of the double gate driving circuit. Inversion causes vertical crosstalk® (cross咐k) 'to improve the picture quality of frame invers丨on with a different approach. The purpose, technical contents, features, and effects achieved by the present invention will become more apparent from the detailed description of the embodiments and the accompanying drawings. [Embodiment] In order to explain in detail the active matrix type liquid crystal display panel of the present invention, please refer to Fig. 4. First, a novel liquid crystal display panel of the present invention will be described, which comprises a plurality of columns of pixel units and a plurality of parallel data lines. Each column of pixel units includes a first scan line and a second scan line. In addition, each data line is perpendicular to the scan lines, and the data lines include a first data line. Each column of pixels in the present invention is composed of two scanning lines, and each pixel includes a switch and a liquid crystal pixel capacitor. Each of the open relationships is a thin film transistor or a P-type field effect transistor, and the N-type field effect electro-active crystal β is a group of the first scan line G1 and the second scan line G1-1 in the fifth figure. A scan line G2 and a second scan line G2-1 are a group; the drain of the thin film transistor 36 in the first pixel 34 is connected to the first data line soi, and the source is connected to the liquid crystal electrode. The gate of the thin film transistor 36 in the first pixel 34 is connected to the scanning line G1. The thin film transistor 40 in the second pixel 38 is connected to the first data line S01 and the source is connected to the liquid crystal electrode. The gate of the thin film transistor 40 in the second pixel 38 is connected to the scanning line G1-1. The second pixel 34 and the second pixel 36 share the first data line s〇1, but are controlled by the first scanning line 8 201024876 G1 and the first scanning line respectively by two different scanning lines. The drain of the thin film electro-crystal boat 44 in the first pixel 42 is the first data == pole. Among them, the third one is _ two: Ί connected. The thin film transistor 48 of the fourth pixel 46 is connected to the first 杳 S01 and the source is connected to the liquid crystal electrode. Among them, the fourth line of the sweeping line G2 is connected. The third pixel 42 and the fourth pixel 46 are combined to control the material line S〇1, and the parts are respectively scanned by the scanning line G2-1 and the scanning line G2.
其中’第一掃描線G1、G2、G2、G2以及第二掃描線叫、 G2]!、G3-1、G4·1係連接至閘極晶片並利用掃瞄驅動器80控制掃插 線信號的傳輸，第—資料線SG1係連接至源極晶片，朗用資料驅動 器70控制資料線信號的傳輸。 依據上述架構’繼續說明本發明的驅動方法，請同時參照第五圖， 第五圖係第四圖之部份時脈信號與閘極信號的波形圖。其中YD丨〇1代 表第一觸發信號、YCLK係為時脈信號、G1~G3、G1-1-G3-1係為閉 極信號、YDI02代表第二觸發信號，相較於先前技術，本發明的每_ 個閘極信號之間並未採用間隔訊號。 本發明的驅動方法係當新型液晶顯示面板啟動掃描時，係將該等 第一掃描線(G1、G2、G2、G4，依此類推)由上而下依序掃描後，再 將該等第二掃描線(G1-1、G2-1、G3-1、G4-1，依此類推)由上而下依 序掃描。 因此’顯示面板於同一時間一次啟動一條水平掃描線G1，將第一 掃描線G1上的所有薄膜電晶體打開36,而經由垂直資料線S01送入 資料信號至對應之第一畫素34，接著關閉薄膜電晶體36，直到下次再 重新寫入信號，其間使得電荷保存在每個薄膜電晶體中的畫素電容 上；此時再啟動下一條第一掃描線G2,以將該條線上的所有薄膜電晶 體打開48，而經由垂直資料線S01送入資料信號至對應之第一畫素 9 201024876 =’，著_薄膜電晶趙48 ’直到下次再重新寫人信號，其間使得電 :保電:Γ的畫素電容上;接續再開啟第一掃描線 ϋ 等’倾上述枝經自資繼輸人資料信號至 對應畫素t ’依序將整個畫面的資料信號寫入。 *然後再對第二掃描線GU冑入信號，將第一掃描線61上的 薄膜電晶體打開40,而經由垂直資料線s〇1送入資料信號至對應之第 -畫素38 ’接著關薄膜電晶體⑽，直到下次再重新寫人信號， 使得電荷保存在每個薄膜電晶體中的畫素電容上；此時再啟動下二條 第-掃描線G2_1 ’以將該條線上的所有薄膜電晶體打開44 ,而經由 ❿垂直資料線soi送入資料信號至對應之第一畫素42，接著關閉薄媒電 晶體44，直到下次再重新寫入信號，其間使得電荷保存在每個薄膜電 ，體中的晝素電容上；接續再開啟第—掃描線GW、第___掃描線… 等等，依照上述方式經由資料線輸入資料信號至對應畫素中，依序將 整個晝面的資料信號寫入。 於前述中介紹過面板擁有各種不同極性的變換方式，但都是在下 一次更換畫面資料的時候來改變極性。依據 依照第八圖的驅動方式，對於本發嘱液晶面板的極性變換方式 將會呈現如第六⑻圖或第六⑼圖所示。第六⑻圖或第六⑼圖係表示 參的液晶面板的極性變換方式為frame inversion。 本發明以雙閘驅動電路採用frame jnverSj〇n的極性變換方式可 以有效降低降低ITO電極電壓被耦合的程度。請一併參照第七圖(先前 技術)及第八圖（本發明^先前技術中面板為Sjngle Gate frame inversion 架構下’假設『sjngie Gate frame inversion 架構 ιτο 電極 電壓被耦合的程度大略為3:1(第七圖左上R畫素：第七圖右下R畫 素)』。本發明的面板為Double Gate frame inversion架構下(空間配置 仍為 dot inversion)，Double Gate frame inversion 架構之 ιτο 電極 電壓被耦合的程度應為（3+4) : (1+4) =7:5(第八圖左上只晝素：第 201024876 八圊右下R晝素）』。因此在Double Gate架構下，結合frame inversion的極性變換方式可以有效降低|T〇電極電壓被輕合程度的差 異性所導致的垂直方向串擾(cross_ta|k)的問題，進而提昇面板的畫面 品質。 唯以上所述者，僅為本發明之較佳實施例而已，並非用來限定本 發明實施之範圍。故即凡依本發明申請範圍所述之形狀、構造、特徵 及精神所為之均等變化或修飾，均應包括於本發明之申請專利範圍内。 【圖式簡單說明】 第一圖係先前技術之主動矩陣驅動電路之示意圖。 ❹第二圖係以RGB畫素電容’來表示先前技術之主動矩陣驅動電路之示 意圖。 第三圖係先前技術之時脈信號與閘極信號的波形圓。 第四圖係本發明之新型液晶顯示面板之驅動電路之示意圖。 第五圖係本發明之部份時脈信號與閘極信號的波形圖。 第六(a)圖及第六(b)囷係表示的液晶面板係frame in version極性變換。 第七圖係先前技術之假設Single Gate dot inversion架構下，丨TO電極 電堡被輕合的程度之示意圖。 第八圏係本發明之假設Double Gate dot inversion架構下，丨TO電桎 ® 電壓被耦合的程度之示意圖。 【主要元件符號說明】 S02第一資料線 S04第一資料線 G1-1第二掃描線 G2-1第二掃描線 G3-1第二掃描線 G4-1第二掃描線 12薄膜電晶體 S01第一資料線 S03第一資料線 G1第一掃描線 G2第一掃描線 G3第一掃描線 G4第一掃描線 1〇畫素 11 201024876 14掃描線 18晝素電容 22掃描驅動器 32新型液晶顯示面板 36薄膜電晶體 40薄膜電晶體 44薄膜電晶體 48薄膜電晶體 52掃描驅動器 16資料線 20資料驅動器 24主動矩陣式液晶顯示面板 34第一晝素 38第二晝素 42第三畫素 46第四畫素 50資料驅動器 12Wherein the 'first scan lines G1, G2, G2, G2 and the second scan line are called, G2]!, G3-1, G4·1 are connected to the gate wafer and use the scan driver 80 to control the transmission of the sweep line signal. The first data line SG1 is connected to the source chip, and the data driver 70 is used to control the transmission of the data line signal. Continuing to explain the driving method of the present invention according to the above structure, please refer to FIG. 5 at the same time, and the fifth figure is a waveform diagram of a part of the clock signal and the gate signal of the fourth figure. Wherein YD丨〇1 represents a first trigger signal, YCLK is a clock signal, G1~G3, G1-1-G3-1 is a closed-end signal, and YDI02 represents a second trigger signal, compared to the prior art, the present invention No interval signal is used between every _ gate signal. The driving method of the present invention is to scan the first scanning lines (G1, G2, G2, G4, and the like) sequentially from top to bottom when the new liquid crystal display panel starts scanning, and then the same The two scan lines (G1-1, G2-1, G3-1, G4-1, and so on) are scanned sequentially from top to bottom. Therefore, the display panel activates one horizontal scanning line G1 at a time, turns all the thin film transistors on the first scanning line G1 into 36, and sends the data signal to the corresponding first pixel 34 via the vertical data line S01, and then The thin film transistor 36 is turned off until the next time the signal is rewritten, during which the charge is stored on the pixel capacitor in each of the thin film transistors; at this time, the next first scan line G2 is activated to be on the line. All of the thin film transistors are turned on 48, and the data signal is sent via the vertical data line S01 to the corresponding first pixel 9 201024876 = ', and the thin film is turned on 48' until the next time the human signal is rewritten, during which: Power protection: Γ 画 画 电容 ; ; ; ; ; ; ; ; ; ; ; ; ; ; ; ; ; ; ; ; ; ; ; ; ; ; ; ; ; ; ; ; ; ; ; ; ; ; ; ; ; * Then the signal is input to the second scan line GU, the thin film transistor on the first scan line 61 is turned on 40, and the data signal is sent to the corresponding first pixel 38 via the vertical data line s〇1. The thin film transistor (10), until the next time the human signal is rewritten, so that the charge is stored on the pixel capacitor in each of the thin film transistors; at this time, the next two scanning-scanning lines G2_1' are activated to all the films on the line. The transistor is opened 44, and the data signal is sent to the corresponding first pixel 42 via the vertical data line soi, and then the thin dielectric transistor 44 is turned off until the signal is rewritten again, during which the charge is stored in each film. Electric, in the body of the halogen capacitor; continue to open the first - scan line GW, the first ___ scan line ... and so on, according to the above way, input the data signal to the corresponding pixel through the data line, in order to the entire face The data signal is written. As mentioned above, the panel has a variety of different polarity transformations, but the polarity is changed the next time the screen data is changed. According to the driving method according to the eighth figure, the polarity changing manner of the liquid crystal panel of the present invention will be as shown in the sixth (8) or sixth (9). The sixth (8) diagram or the sixth (9) diagram indicates that the polarity conversion mode of the liquid crystal panel of the reference is frame inversion. The double-brake driving circuit adopts the polarity conversion mode of the frame jnverSj〇n to effectively reduce the degree of coupling of the ITO electrode voltage. Please refer to the seventh diagram (prior art) and the eighth diagram together (the invention is in the prior art, the panel is Sjngle Gate frame inversion architecture), assuming that the sjngie gate frame inversion architecture ιτο electrode voltage is coupled to a degree of approximately 3:1 (The seventh picture is on the top left R pixel: the seventh picture is on the lower right R picture). The panel of the present invention is under the Double Gate frame inversion architecture (the space configuration is still dot inversion), and the double gate frame inversion architecture is the electrode voltage is The degree of coupling should be (3+4): (1+4) = 7:5 (the eighth picture on the left is only the element: 201024876, gossip and the bottom right R). Therefore, under the Double Gate architecture, the frame is combined. The polarity conversion method of inversion can effectively reduce the vertical crosstalk (cross_ta|k) caused by the difference in the degree of lightness of the |T〇 electrode voltage, thereby improving the picture quality of the panel. The preferred embodiments of the invention are not intended to limit the scope of the invention, so that the shapes, structures, features and spirits described in the scope of the invention should be equally changed or modified. The invention is within the scope of the patent application of the present invention. [First Description of the Drawings] The first figure is a schematic diagram of the prior art active matrix driving circuit. The second drawing shows the prior art active matrix driving circuit with RGB pixel capacitance ' The third figure is the waveform circle of the prior art clock signal and the gate signal. The fourth figure is a schematic diagram of the driving circuit of the novel liquid crystal display panel of the present invention. The fifth figure is a part of the clock signal of the present invention. Waveform diagram of the gate signal. The sixth (a) diagram and the sixth (b) diagram indicate that the liquid crystal panel is frame in version polarity conversion. The seventh diagram is the assumption of the prior art under the Single Gate dot inversion architecture, 丨TO Schematic diagram of the extent to which the electrode is lightly coupled. The eighth is a schematic diagram of the degree to which the 丨TO 桎® voltage is coupled under the Double Gate dot inversion architecture. [Main component symbol description] S02 first data line S04 first data line G1-1 second scan line G2-1 second scan line G3-1 second scan line G4-1 second scan line 12 thin film transistor S01 first data line S03 first data line G1 Scanning line G2 first scanning line G3 first scanning line G4 first scanning line 1 pixel 10 201024876 14 scanning line 18 halogen capacitor 22 scanning driver 32 new liquid crystal display panel 36 thin film transistor 40 thin film transistor 44 thin film transistor 48 thin film transistor 52 scan driver 16 data line 20 data driver 24 active matrix liquid crystal display panel 34 first halogen 38 second halogen 42 third pixel 46 fourth pixel 50 data driver 12