201013627 六、發明說明： 【發明所屬之技術領域】 本發明係有關於-削於影像顯示裝置巾的影像優化方 法；特別«於-種用於液晶顯示裝置之影像優化方法。 【先前技術】 液晶顯不ϋ及使用液晶顯示面板的平面顯示裝置已漸漸 成為各類_裝置之域。例如各式面脑示屏、家用的平 面電視、獻賴聽上魏默平板龍翻、行動電話 及數位相機之顯示幕等，均為大量使用液晶顯示面板的產 品。特別是近年來液晶顯示器⑽）的市場需求大幅成長， 因此液晶顯示硫在影像顯示方_更求精準及反應上的 快速，以應付絲大量生產及對於產品品質的保證。 ❹ 0 而在冷陰極射線管顯示器(Cath〇de ray⑽，crt)已逐漸 被液晶顯視器取代並制後，如何使液晶顯視馳夠在影像 表現品質_與冷陰極射線管顯示器相當或更好成為液晶 顯不減術領域中重要的課題。在液晶顯示面板表現動態影 像時’因純魏晶反魏率健及H顯示騎使用之 斷叙方_光狀故，城人料跡顯示影 像中移動倾時會觀_液晶㈣的_ ’飞上述人眼 所產生▲之現象亦被稱之為動態模_〇ti〇n齡）。 目前業界已提歧_決或改善__之方法。該等 4 201013627 方法包3使用可快速反應驅動訊號之液晶已使液晶轉態之 速率增加來達職少動態模糊；但此方法係姐於液晶材料 特性之限制’故改善空間有限。改善動態模糊之方法另包含 插黑晝面法（Black Inserti〇n)或閃燦背光法⑼趾吨201013627 VI. Description of the Invention: [Technical Field] The present invention relates to an image optimization method for cutting an image display device; and in particular, an image optimization method for a liquid crystal display device. [Prior Art] A liquid crystal display device and a flat display device using a liquid crystal display panel have gradually become a domain of various types of devices. For example, various types of facial display screens, flat-panel TVs for home use, display screens for Weimer flat-panel flips, mobile phones, and digital cameras are all products that use a large number of liquid crystal display panels. In particular, in recent years, the market demand for liquid crystal displays (10) has grown substantially. Therefore, liquid crystal display sulfur is more accurate in terms of image display and quick response, in order to cope with the mass production of silk and the guarantee of product quality. ❹ 0 And after the cold cathode ray tube display (Cath〇de ray (10), crt) has been gradually replaced by the liquid crystal display, how to make the liquid crystal display performance in the image performance quality _ equivalent to the cold cathode ray tube display or It is an important issue in the field of liquid crystal display. When the liquid crystal display panel exhibits a dynamic image, 'because of the pure Wei Jing anti-Wei rate and the H display ride the use of the narration _ light, the city's traces show the movement in the image will be observed _ liquid crystal (four) _ 'fly The above phenomenon caused by the human eye is also called dynamic mode _〇ti〇n age). At present, the industry has already made a way to improve or improve __. These 4 201013627 method package 3 uses a liquid crystal that can quickly respond to the driving signal to increase the rate of liquid crystal transition to achieve less dynamic blurring; however, this method is limited by the characteristics of the liquid crystal material. The method of improving the motion blur includes the black insertion method (Black Inserti〇n) or the flash backlight method (9) toe
Backlight)，其中用以減少人眼感受到動態模糊之情形。插黑 晝面法包含在兩張影像中間插入一張全黑的影像，而閃爍背 光法包含在晝素時間中特定時間中將背光模組之光源完全 © 祕。杨，差黑畫面法實触於將f光觀之光源關 掉因此使得能纽率變低。此外，_f光法刺起的光線 亮暗頻繁交錯亦將減低能量效率並加速背光模組中燈管之 耗損。 圖la、圖lb及圖lc所示分別為使用習知影像顯示技術 f液晶顯示裝置之液晶透光率、背級組亮度以及面板顯示 冗度之示意圖。如圖比所示，背光模組所輸出之光線具有 ❹固定的亮度（500 nits)。而當液晶透光率自〇%轉態至6〇% 時，面板顯示亮度也將由〇 nit逐漸提升至3〇〇 nits。由 於人眼是會追跡物體而移動的，也因此可自影像邊緣部分觀 察到液晶層中液晶轉態所引起的面板顯示亮度變化過程丨此 即為動態权糊現象的引起原因。因此面板顯示亮度變化之間 隔越長，人眼所觀察到之動態模糊現象將越明顯。 【發明内容】 本發明之一目的為提供一種液晶顯示裝置之影像優化方 201013627 法二用明於減少人眼對於影像轉換時所產生動態模糊程度。 方去，目的為提供―縣晶顯示裝置之影像優化 體亮度在減少動態模糊程度之同時保持顯示影像之整 本發月之3目的為提供―種液晶齡裝置之影像優化 方法’可用於在減少動態模糊程度之同時提升顯示 對 比度。 ❹ 本㈣提供m顯示裝置之f彡像優财法，包含分 別在-時段之不同部分中控制背光模組向液晶層發射出具 有至少兩鍊異之絲，射上述絲可分為至少一第 一亮度光及一第二亮度光。 此外除了原本使用於驅動液晶層以控制液晶透光率之 液晶驅動訊號之外，本發明之影像優化方法亦包含輸出一液 晶補償鶴訊號，供與原有之液晶驅動訊號同時驅動液晶層 以進-步提升液晶層之液晶透光率供更多自背光模組而來 © 之光線通過。 【實施方式】 本發明揭露一種液晶顯示裝置之影像優化方法，係用於 根據顯示影像之資料來控制背光模組向液晶層輸出具有至 少兩種不同之光線並同時控制液晶層之轉向以及其穿透 率，以在減少人眼感受到動態模糊之同時保持顯示影像之亮 度。液晶顯示裝置包含背光模組以及液晶面板，其中液晶顯 201013627 示裝置之液晶面板顯示亮度係對應於背細組所發出之光 線亮度以及液晶層之穿透率。如背光模組朝向具有6〇%穿透 率之液晶層發出亮度為侧nits之光線時，液晶顯示裝置 將具有實質上0.6*侧= 24Qnits之面板顯示亮度。 圖2a、圖2b及圖2c所示分別為運用本發明影像優化方 法後液晶層讀晶透絲、背域組亮度以及面板顯示亮度 之第-示意圖。如圖2a、圖2b及圖2c所示，本發明影像優 ❹ 化方法實質上係以一時段作單位來控制液晶層之扭轉（液晶 透光率）以及背光模組輸出光線之亮度，其中背光模組輸出 光線之顏色較佳為白色，但不限於此；在不同實施例中，背 光模組亦可輸出具有其他合式顏色之光線。此外，在圖％、 圖2b及圖2c所示之實施例中，時段4〇〇係分為至少第一時 & 410及第二時段420’其中第一時段41〇係在時間軸上先 於第二時段420。在本實施例中，第一時段41〇及第二時段 ❹ 420之時間長度實質上相等’但不限於此；在不同實施例中， 第時^又410及第一時段420之時間長度亦可依據設計上 的需要而相異於對方。 在圖2a所示之實施例中，液晶層係經由一電子訊號驅動 使其液晶透光率係經由〇%上升至80%。同時如圖2b所示’ 背光模組輸出具有兩個不同亮度之光線；換言之，背光模組 輸出第一亮度光（100 nits)以及第二亮度光(500 nits)。而 第—亮度光及第二亮度光係依據一參考背光驅動訊號計算 而出’其中參考背光驅動訊號可用於驅動背光模組以輸出〜 7 201013627 參考亮度光。在本實施例中，參考背光驅動訊號係根據—視 格畫素資料計算㈣，其中視格晝素資料係為包含液晶顯示 裝置一晝格(frame)所需顯示晝面之資料。 在本實施例中，面板顯示亮度在第一時段41〇及第二時 段420中之上升曲線形態係根據一參考數值計算而來；面板 顯不免度在第-時段410及第二時段42〇之上升曲線形態 係實質上分別為該參考數值之三次方及三次根號。上述參考 ❹ 數值係為—直線所具有之數值，對應於參考亮度光用於顯示 面板時所輸出之面板顯示亮度，但不限於此。由於人眼對於 翻之錢係主要發生於面板騎亮度自目標亮度之 1(U上升至目標亮度之9〇%之間所需要之時段；因此，如縮短 上述上升所需時間將同時減低人眼對動態模糊之影響。由於 面板顯示亮度具有指數函數之曲線，也因此所需自最大亮度 10%上升至_之時陳短。由此可知，使用本發卿像優化 ❹雜之液晶顯稀置可提做佳之抗__魏。此外， 圖c所示，晝素之總壳度係為面板顯示亮度在曲線下之 面積，由此可知，影像優化方法可藉由將面板顯示亮度實質 集中於第一時段420之方式來在改善動態模糊現象之同 時保持畫素所需之總亮度。 凡在圖2a及圖2b所示之本實施例中，背光模組在第一時 10中輸出具有第一亮度(100 nits)之光線並在第二時段 4f中輸出具有第二亮度⑽nits)之光線；換言之，背光 极組所輸出光線之亮度係於自第-時段410進入第二時段 8 201013627 420時切換。然，在不同實施例中，背光模組亦可根據液晶 透光率其他不同之條件來決定改變輸出光線亮度之時機。例 如，本發明可設定液晶透絲之―門赌，絲液晶透光率 實質上4於門檀值時切換背光模組輪出之亮度。 此外，在圖2a及圖2b及圖2c所示之本實施例中，為了 提升面板齡亮度上狀料，轉郷紐化方法可根據 輸出-液晶補伽動訊號，供聘與液晶驅動訊號驅動液晶 ❹ 相提升減权液騎鮮。液補伽純號可由根據 背光模組之第-亮度及第二亮度計算而來，但不限於此，液 晶補償驅動訊號亦可根據其他如液晶透光率來計算。而上述 液晶補償驅動訊號與第-亮度及第二亮度之關係可記錄於 一補償訊號查找表中並儲存於一資料儲存裝置中，以供資料 處理器加速液晶補償驅動訊號之計算。一般而言，液晶顯示 裝置之液晶層最終達到之液晶透光率係為6〇%，·然，在圖洗 所示之實施例中，液晶層係同時透過液晶驅動訊號以及液晶 補償驅動訊號之驅動而達到8〇%之液晶透光率。 圖3a、圖3b及圖3c所示分別為運用本發明影像優化方 法後液晶層之液晶透光率、背光模組亮度以及面板顯示亮度 之第一示意圖。在本實施例中，面板顯示亮度在第一時段 410及第二時段420之上升曲線形態係實質上分別為參考數 值之五次方及五次根號。因此面板顯示亮度自最大亮度10% 上升至90%所需之時間較上實施例更短，這也代表著本實施 例可提供較圖2a、圖2b及圖2c所示實施例更佳之抗動態模 201013627 糊功效。除此之外，本實施例影像優化方法係實質上相同於 上述實施例也因此在此不加贅述。 ❹Backlight), which is used to reduce the situation where the human eye feels dynamic blur. Inserting a black surface method involves inserting a black image between two images, and the flashing backlight method includes the light source of the backlight module at a specific time in the pixel time. Yang, the poor black screen method touches the light source of the f-light view, thus making the energy rate lower. In addition, the ray of light rayed by the _f light method will also reduce the energy efficiency and accelerate the loss of the lamp in the backlight module. Figures la, lb, and lc show schematic diagrams of liquid crystal transmittance, back-level brightness, and panel display redundancy using a conventional image display technology. As shown in the figure, the light output from the backlight module has a fixed brightness (500 nits). When the liquid crystal transmittance is changed from 〇% to 6〇%, the brightness of the panel display will gradually increase from 〇 nit to 3〇〇 nits. Since the human eye moves by tracing the object, the change of the display brightness of the panel caused by the liquid crystal transition state in the liquid crystal layer can be observed from the edge portion of the image, which is the cause of the dynamic paste phenomenon. Therefore, the longer the interval between the brightness changes of the panel display, the more obvious the dynamic blur phenomenon observed by the human eye. SUMMARY OF THE INVENTION An object of the present invention is to provide an image optimization method for a liquid crystal display device. The method of the present invention is to reduce the degree of dynamic blurring caused by human eyes for image conversion. The purpose is to provide the image-optimized body brightness of the county-level display device while reducing the degree of dynamic blurring while maintaining the entire image of the display image for the purpose of providing an image optimization method for the liquid crystal age device. Dynamic blur improves display contrast. ❹ (4) Providing an image display device of the m display device, comprising controlling the backlight module to emit at least two chains of different wires to the liquid crystal layer in different portions of the time period, and the wire may be divided into at least one a brightness light and a second brightness light. In addition to the liquid crystal driving signal originally used for driving the liquid crystal layer to control the liquid crystal transmittance, the image optimization method of the present invention also includes outputting a liquid crystal compensation Hexun signal for driving the liquid crystal layer simultaneously with the original liquid crystal driving signal. - Step to increase the liquid crystal transmittance of the liquid crystal layer for more light from the backlight module. [Embodiment] The present invention discloses an image optimization method for a liquid crystal display device, which is configured to control, according to data of a display image, a backlight module to output at least two different lights to a liquid crystal layer while controlling steering of the liquid crystal layer and wearing the same. Transmittance to maintain the brightness of the displayed image while reducing the human eye's perception of motion blur. The liquid crystal display device comprises a backlight module and a liquid crystal panel, wherein the liquid crystal panel display brightness of the liquid crystal display device is corresponding to the brightness of the light emitted by the thin group and the transmittance of the liquid crystal layer. If the backlight module emits light having a brightness of side nits toward a liquid crystal layer having a transmittance of 6%, the liquid crystal display device will have a panel display luminance of substantially 0.6* side = 24 Qnits. Fig. 2a, Fig. 2b and Fig. 2c are respectively a first schematic view showing the brightness of the liquid crystal layer, the brightness of the back domain group and the brightness of the panel display after the image optimization method of the present invention. As shown in FIG. 2a, FIG. 2b and FIG. 2c, the image optimization method of the present invention substantially controls the torsion (liquid crystal transmittance) of the liquid crystal layer and the brightness of the output light of the backlight module in a period of time, wherein the backlight The color of the output light of the module is preferably white, but is not limited thereto; in different embodiments, the backlight module can also output light having other combined colors. In addition, in the embodiment shown in FIG. 2, FIG. 2b and FIG. 2c, the time period 4〇〇 is divided into at least a first time & 410 and a second time period 420′, wherein the first time period 41 is first on the time axis. In the second time period 420. In this embodiment, the time lengths of the first time period 41〇 and the second time period 420420 are substantially equal to each other, but are not limited thereto; in different embodiments, the time lengths of the first time period 410 and the first time period 420 may also be Different from each other according to the needs of the design. In the embodiment shown in Figure 2a, the liquid crystal layer is driven by an electronic signal such that the liquid crystal transmittance is increased to 80% via 〇%. At the same time, as shown in Fig. 2b, the backlight module outputs light having two different brightnesses; in other words, the backlight module outputs first brightness light (100 nits) and second brightness light (500 nits). The first brightness light and the second brightness light are calculated according to a reference backlight driving signal, wherein the reference backlight driving signal can be used to drive the backlight module to output the reference brightness light. In this embodiment, the reference backlight driving signal is calculated according to the pixel pixel data (4), wherein the visual pixel data is data including a display surface required for the liquid crystal display device. In this embodiment, the rising curve shape of the panel display brightness in the first time period 41〇 and the second time period 420 is calculated according to a reference value; the panel display inequality is in the first time period 410 and the second time period 42. The ascending curve morphology is essentially the cube and the third root of the reference value. The above reference ❹ value is the value of the straight line, which corresponds to the panel display brightness output when the reference brightness light is used to display the panel, but is not limited thereto. Since the human eye is mainly responsible for the time required for the panel ride to be brighter than the target brightness of 1 (U rises to 9〇% of the target brightness; therefore, shortening the time required for the above increase will also reduce the human eye. The effect of dynamic blurring. Since the panel display brightness has an exponential function curve, it is therefore required to increase from the maximum brightness of 10% to _ when the time is short. It can be seen that the use of this image is optimized for noisy liquid crystal display. It can be mentioned that the best resistance is __Wei. In addition, as shown in Figure c, the total shell of the alizarin is the area under the curve of the panel display brightness. It can be seen that the image optimization method can concentrate the panel display brightness substantially. The first time period 420 is to maintain the total brightness required for the pixels while improving the dynamic blurring phenomenon. In the embodiment shown in FIG. 2a and FIG. 2b, the backlight module has the output in the first time 10 a light of 100 nits and outputting light having a second brightness (10) nits in the second period 4f; in other words, the brightness of the light outputted by the backlight group is from the first period 410 to the second period 8 201013627 420 cut . However, in different embodiments, the backlight module can also determine the timing of changing the brightness of the output light according to other different conditions of the liquid crystal transmittance. For example, the present invention can set the door gambling of the liquid crystal through, and the liquid crystal transmittance of the wire is substantially 4 when the threshold value is switched. In addition, in the embodiment shown in FIG. 2a and FIG. 2b and FIG. 2c, in order to increase the brightness of the panel, the switching method can be driven by the liquid crystal driving signal according to the output-liquid crystal gamma signal. The liquid crystal ❹ phase lifts the weight reduction liquid. The liquid compensation gamma can be calculated based on the first brightness and the second brightness of the backlight module, but is not limited thereto, and the liquid crystal compensation driving signal can also be calculated according to other liquid crystal transmittances. The relationship between the liquid crystal compensation driving signal and the first brightness and the second brightness may be recorded in a compensation signal lookup table and stored in a data storage device for the data processor to accelerate the calculation of the liquid crystal compensation driving signal. In general, the liquid crystal layer of the liquid crystal display device finally achieves a liquid crystal transmittance of 6〇%. However, in the embodiment shown in the figure, the liquid crystal layer transmits both the liquid crystal driving signal and the liquid crystal compensation driving signal. Drive to achieve 8〇% liquid crystal transmittance. 3a, 3b, and 3c are first schematic views showing the liquid crystal transmittance, the brightness of the backlight module, and the brightness of the panel after the image optimization method of the present invention. In this embodiment, the rising curve patterns of the panel display brightness in the first time period 410 and the second time period 420 are substantially the fifth and fifth root numbers of the reference value, respectively. Therefore, the time required for the panel display brightness to rise from 10% to 90% of the maximum brightness is shorter than that of the previous embodiment, which also means that the embodiment can provide better anti-dynamics than the embodiment shown in Figures 2a, 2b and 2c. Mold 201013627 paste effect. In addition, the image optimization method of this embodiment is substantially the same as the above embodiment and therefore will not be further described herein. ❹
圖4a、圖4b及圖4c所示分別為運用本發明影像優化方 法後液晶層之液晶透光率、背光模組亮度以及面板顯示亮度 之第三示意圖。在本實施例中，面板顯示亮度在第一時段 410及第二時段420之上升曲線形態係f質上分別為零以及 參考數值之五次根號。換言之，背光模級在第-時段41〇中 係為關閉的狀態、。由於面板顯示亮度在第—時段_係為 零；因此為了維持晝素在該時段侧中整體的亮度，本實施 例之液晶婦_職係驗晶層之液晶透絲逐漸增加 至應’以供更多光線在第二時段中通過。除此之夕^， 本實施例f彡像優化方法健質上相_上竹施例也因此 在此不加警诚。 此外，本發明之影像優化方法較佳同時進行液晶層 態動作以及背光模組輸出光線之動作；換言之，在該時段働 中，背光模組係於液晶層之液晶透光率達到1定值之前就 已開啟。在本發明之實施例中，影像優化方法可於該時段侧 之任何部分中進行液晶層的轉態動作並控制背光模挺种 時段棚巾輸出光線；也因此面板可於液晶層轉態完成（達 到一固定值)之前，就已開始輸出具有亮度之光線M曰於不 同實施射，影紐财法亦可選雜地於不同時間點中 制液晶層之轉態動作以及背光模組輪出光線之起始工 圖5所示為本發明影像優化方法實施例之步驟圖。如圖$ 10 2010136274a, 4b and 4c are respectively a third schematic diagram showing the liquid crystal transmittance, the brightness of the backlight module, and the brightness of the panel after the image optimization method of the present invention. In the present embodiment, the panel display brightness is zero in the rising curve form of the first period 410 and the second period 420, respectively, and the fifth root of the reference value. In other words, the backlight mode is in a closed state in the first period 41 〇. Since the display brightness of the panel is zero in the first period, the liquid crystal light of the liquid crystal system of the present embodiment is gradually increased to be used in order to maintain the overall brightness of the pixel in the period of the period. More light passes in the second time period. In addition to this, the embodiment of the present embodiment of the image quality optimization method is also not prudent. In addition, the image optimization method of the present invention preferably performs the liquid crystal layering action and the action of the backlight module outputting light; in other words, in the period of time, the backlight module is before the liquid crystal transmittance of the liquid crystal layer reaches a fixed value. It is already open. In the embodiment of the present invention, the image optimization method can perform the transition state of the liquid crystal layer in any part of the period of the period and control the output light of the shed towel during the backlight mode; therefore, the panel can be completed in the liquid crystal layer ( Before reaching a fixed value, it has begun to output the light with brightness M. In different implementations, the film and the new method can also select the mixed state of the liquid crystal layer at different time points and the light of the backlight module. FIG. 5 is a step diagram of an embodiment of an image optimization method of the present invention. As shown in $10 201013627
所示’影像優化方法包含步驟700，根據視格晝素資料計算 出參考背光驅動訊號’其中參考背光驅動訊號可供驅動背光 模組以產生一參考亮度光；步驟720包含根據參考背光驅動 訊號計算出至少第一背光驅動訊號及第二背光驅動訊號。在 本實施例中’第一背光驅動訊號之振幅較佳大於參考背光驅 動訊號之振幅而第二背光驅動訊號之振幅較佳係小於參考 背光驅動訊號之振幅，但不限於此；在不同實施例中，第一 煮光驅動訊號及第一背光驅動訊號亦可依據不同設計同時 大於或小於參考背光驅動訊號之振幅。 步驟740包含根舰格晝素資料計算出一液晶驅動訊 號’供在一時段中驅動液晶層，本步驟之目的為控制液晶層 之穿透率以供光線通過。此外，為了配合液晶顯示裝置晝面 之顯示，上述該時段較佳對應於液晶顯示裝置之晝格時間 (Frame time)。本發明影像優化方法另包含步驟·，分別 使用第-背光驅動職及第二背光驅動職以㈣背光模 組向液晶層輸出至少第-亮度光及第二亮度光 度光及第二亮度光之亮度係不相等。 、 ① 之光此繞 圖6所私實補巾，本㈣之雜優化方法 之先線輪出步驟另包含步驟76卜將時段分為至少 二’其中第一時段係於時間上先於該第二時 度:====-時段之時間長 X此外，光線輸出步驟另 201013627 包含步驟762，於自該第-時段進入第二時段時切換輪出之 „本實施例中，如背光模組經驅動而在第—時段輪出 第-受度光，步驟762則將於自第—時段進入第二 動背光模組輸出第二亮度光。 圖7所示為本發明影像優化方法之變化實施例。如圖* 所示’影像優化方法另包含步驟800，建立一個驅動訊號查 找表’其中驅動訊號查找表包含至少一個驅動訊號設定；步 © 驟_包含於驅動峨設定中登錄參考背光驅動訊號以及相 對應之第-縣驅動魏以及第二背光驅動訊^每一驅動 訊號設定所包含之資概佳包含參考峨、第一背 光駆動訊號以及第二背光驅動訊號之振幅資料，但不限於 此。步驟820則包含根據參考背光驅動訊號以及驅動訊號查 找表，取得相對應之第-背光驅動訊號及第二背光驅動訊 號。 〇 _ 7所示之實施财，液晶顯示裝置包含—資料儲存 裝置及-資料處理器；而驅動訊號查找表較佳係儲存於資料 健存裝置中，其中記鍾係電性連接於液晶顯示裝置之資料 處理器。資料處理器係用於根據視格書素資料取 媒動訊號，之後舰理議 自驅動訊號誠表賴職ϋ光鶴訊號以及第二 背光驅動訊號。 如圖8所示，本發明影像優化方法另包含步驟9〇〇，包含 建立一補償訊號查找表，其中補償訊號查找表包含至少一補 12 201013627 ❹ Ο 償訊號設定。步驟910包含於該補償訊號設定中登錄該第一 背光驅動訊號及該第二背光驅動訊號以及相對應之液晶補 償驅動訊號。每一驅動訊號設定所包含之資料較佳包含液晶 補償驅動訊號、第一背光驅動訊號以及第二背光驅動訊號之 振幅資料，但不限於此。步驟920包含根據第一背光驅動訊 號、第二背光驅動訊號及補償訊號查找表取得液晶補償驅動 訊號’其中本實施例之第一背光驅動訊號以及第二背光驅動 訊號之振幅係用於在補償訊號查找表中尋找相對應之液晶 補償驅動訊號。步驟930包含輸出一液晶補償驅動訊號並與 液晶驅動訊號在該時段中同時驅動該液晶層。因此液晶補償 驅動訊號係用於與液晶驅動訊號增加液晶層之穿透率並配 合背光模組之光線以增加面板顯示亮度。 此外，本發明之影像優化方法亦可使用於具有複數顯示 區域之液晶顯7F裝置，其中每—顯示區域具有對應之液晶層 及背光模組。上述液晶顯示裝置包含所t含之顯示區域可以 矩陣(如3*3矩陣)之方式設置或排列，但不限於此；在不同 實施例中’液晶顯示裝置亦可具有不同數目之顯示區域或以 其他不同方式設置或排列之顯示區域。 /雖然前述的描述及圖示已揭示本發明之較佳實施例，必 須瞭_各種獅、料錢和喊可驗祕本發明較佳 實施例，而不會脫離如所附㈣專利顧所界定的本發明原 及細。熟悉該㈣者將可齡本發明可能使用於 恨夕开Μ、結構、佈置、比例、材料、元件和組件的修改。 201013627 ，此’本文於此簡*的實補於所錢點，雜視為用以 兒月本發明’㈣用以限制本發明。本發卿棚應由後附 申請專鄕_界定，麵蓋其合法均_，並雜於先前 的描述。 【圖式簡單說明】 ❹ ❹ 圖1 :、圖lb及圖lc所示分別為使用習知影像顯示技術之液 f顯示裝置之液晶透絲、#賴組亮細及面板顯示亮 度之示意圖； 圖曰圖2b及圖2c所示分別為運用本發明影像優化方法後 ί晶層之液晶透光率、背賴組亮妙及Φ板顯示亮度之 第一示意圖； 圖=圖3b及圖3c所示分別為運用本發明影像優化方法後 =曰曰層之液晶透光率、背域組亮度以及面細示亮度之 第二示意圖； 、圖4b及囷4c所不分別為運用本發明影像優化方法後 =曰曰層之液晶透光率、f光麻亮度以及面蝴示 第三示意圖； 圖5所：為本發像優化方法實關之步驟圖； 圖6所示為本發明影像優化方法另-實施例之步驟圖； 不為本發明影像優化方法第三實施例之步驟圖；以及 圖8所示為本發明影像優化方法細實施例之步驟圖。 14 201013627The image optimization method includes a step 700 of calculating a reference backlight driving signal according to the visual element data, wherein the reference backlight driving signal is used to drive the backlight module to generate a reference brightness light; and step 720 includes calculating according to the reference backlight driving signal. At least a first backlight driving signal and a second backlight driving signal are output. In this embodiment, the amplitude of the first backlight driving signal is preferably greater than the amplitude of the reference backlight driving signal, and the amplitude of the second backlight driving signal is preferably smaller than the amplitude of the reference backlight driving signal, but is not limited thereto; The first boiling light driving signal and the first backlight driving signal may also be larger or smaller than the amplitude of the reference backlight driving signal according to different designs. Step 740 includes calculating a liquid crystal driving signal for the driving of the liquid crystal layer for a period of time. The purpose of this step is to control the transmittance of the liquid crystal layer for light to pass through. Further, in order to match the display of the face of the liquid crystal display device, the period of time described above preferably corresponds to the frame time of the liquid crystal display device. The image optimization method of the present invention further comprises the steps of: using the first backlight driver and the second backlight driver respectively to output at least the brightness of the second brightness light and the second brightness light and the second brightness light to the liquid crystal layer by the (4) backlight module. The systems are not equal. The light of 1 is wrapped around the private cover of Figure 6. The first step of the hybrid optimization method of this (4) further includes a step 76 of dividing the time period into at least two 'where the first time period is prior to the time Second time: ====- The time length of the time period X In addition, the light output step further 201013627 includes a step 762, switching the wheel out when entering the second time period from the first time period. In this embodiment, such as a backlight module After driving, the first-receiving light is rotated in the first period, and step 762 is to enter the second moving backlight module to output the second brightness light from the first period. FIG. 7 shows a variation implementation of the image optimization method according to the present invention. For example, as shown in FIG. *, the image optimization method further includes step 800, establishing a driving signal lookup table, wherein the driving signal lookup table includes at least one driving signal setting; step © step _ is included in the driving port setting to register the reference backlight driving signal. And the corresponding first-counter driving Wei and the second backlight driving signal, each of the driving signal settings includes the reference information, the first backlight swaying signal and the amplitude information of the second backlight driving signal, but not The step 820 includes obtaining a corresponding first-backlight driving signal and a second backlight driving signal according to the reference backlight driving signal and the driving signal lookup table. The implementation of the liquid crystal display device includes data storage. The device and the data processor are preferably stored in the data storage device, wherein the clock is electrically connected to the data processor of the liquid crystal display device. The data processor is used according to the image book. The data is taken from the media signal, and then the ship's self-driving signal is based on the light signal and the second backlight driving signal. As shown in Fig. 8, the image optimization method of the present invention further comprises the step 9〇〇, including establishing a compensation. a signal lookup table, wherein the compensation signal lookup table includes at least one supplement 12 201013627 ❹ 偿 compensation signal setting. Step 910 includes registering the first backlight driving signal and the second backlight driving signal and corresponding liquid crystal compensation in the compensation signal setting. Drive signal. The information included in each drive signal setting preferably includes a liquid crystal compensation drive signal and a first backlight drive. And the amplitude information of the second backlight driving signal, but is not limited thereto. Step 920 includes obtaining a liquid crystal compensation driving signal according to the first backlight driving signal, the second backlight driving signal and the compensation signal lookup table, wherein the first backlight of the embodiment The driving signal and the amplitude of the second backlight driving signal are used to find a corresponding liquid crystal compensation driving signal in the compensation signal lookup table. Step 930 includes outputting a liquid crystal compensation driving signal and simultaneously driving the liquid crystal with the liquid crystal driving signal in the period. Therefore, the liquid crystal compensation driving signal is used to increase the transmittance of the liquid crystal layer with the liquid crystal driving signal and to match the light of the backlight module to increase the display brightness of the panel. Furthermore, the image optimization method of the present invention can also be used for having multiple display areas. The liquid crystal display 7F device has a corresponding liquid crystal layer and a backlight module in each display area. The liquid crystal display device may be arranged or arranged in a matrix (such as a 3*3 matrix), but is not limited thereto; in different embodiments, the liquid crystal display device may have a different number of display regions or Display areas that are set or arranged in other different ways. / </ RTI> While the foregoing description and drawings have disclosed the preferred embodiments of the present invention, various embodiments of the present invention are required, and the preferred embodiments of the present invention are not deviated from the appended claims. The invention is original and detailed. Those skilled in the art will appreciate that the invention may be used in the modification of the hate, structure, arrangement, proportions, materials, components and components. 201013627, this is a supplement to the present invention, and is used to limit the present invention. The shed should be defined by the attached _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ [Simple description of the drawings] ❹ ❹ Figure 1 : Figure lb and Figure lc show the liquid crystal display of the liquid f display device using the conventional image display technology, the brightness of the # ray group and the brightness of the panel display; 2b and FIG. 2c are respectively a first schematic diagram of the liquid crystal transmittance, the brightness of the backlight layer, and the brightness of the Φ plate after applying the image optimization method of the present invention; FIG. 3b and FIG. After the invention of the image optimization method, the second schematic diagram of the liquid crystal transmittance, the back domain brightness, and the surface brightness of the enamel layer; and FIG. 4b and FIG. 4c are not respectively used after applying the image optimization method of the present invention. The third schematic diagram of the liquid crystal transmittance, the f-brightness, and the surface shading; FIG. 5 is a step diagram of the actual image optimization method; FIG. 6 is a diagram showing another embodiment of the image optimization method of the present invention. FIG. 8 is a step diagram of a third embodiment of the image optimization method of the present invention; and FIG. 8 is a step diagram of a detailed embodiment of the image optimization method of the present invention. 14 201013627
❹ 【主要元件符號說明】 400時段 410第一時段 420第二時段❹ [Main component symbol description] 400 time period 410 first time period 420 second time period