TWI266930B - Four-color pixel structure - Google Patents

Four-color pixel structure Download PDF

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TWI266930B
TWI266930B TW94133989A TW94133989A TWI266930B TW I266930 B TWI266930 B TW I266930B TW 94133989 A TW94133989 A TW 94133989A TW 94133989 A TW94133989 A TW 94133989A TW I266930 B TWI266930 B TW I266930B
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logical
pixel
pixels
elements
row
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TW94133989A
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Chinese (zh)
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TW200712623A (en
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Ming-Chia Shih
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Chi Mei Optoelectronics Corp
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Abstract

A four-color pixel structure includes a plurality of logic pixels. Each logic pixel includes a plurality of sub-pixels. The sub-pixels are classified into first sub-pixels, second sub-pixels, third sub-pixels, and fourth sub-pixels. Each logic pixel includes at least a first sub-pixel, at least a second sub-pixel, at least a third sub-pixel, and at least a fourth sub-pixel, and shares at least one sub-pixel with an adjacent logic pixel.

Description

1266930 九、發明說明: 【發明所屬之技術領域】 本發明係關於-種四色之晝素結構,尤指—種利用共用 -次晝素達到節省次晝f目的之畫素結構。 【先前技術】 液晶顯示器由於具有省電、低幅射與體積輕薄等特點, _已被廣泛地應用於個人電腦之顯示裝置、筆記型電腦與平 •面薄型電視等產品。然後,由於目前液晶顯示器之亮度、 色彩飽和度(color saturation)與色域(C0l0r gamutM;}無法與 傳統陰極射線管(CRT)顯示器相比,因此高階之專業顯示器 • 產品,如電腦緣圖人士所使用之顯示器,目前仍以CRT顯 ’ 示器為主流。有鑑於此,四色液晶顯示器即被提出,以解 決傳統三色(RGB)液晶顯示器於亮度與色彩表現上之缺 點。四色液晶顯示器之各晝素(pixel)係由四個不同顏色之 ® 次畫素(sub-pixel)構成,並配合適當之演算法(aig0rithm)來 組合出所需之色彩’其優點在於可增加液晶顯不器的亮度 (例如使用紅、綠、藍與白色四種次畫素組成一畫素,常用 - 於小尺寸之液晶顯示器),並增加液晶顯示器的色域(例如 . 利用紅、綠、藍與青色四種次畫素組成一晝素)。 由上述可知,相較於三色液晶顯示器,四色液晶顯示器 具有更佳之亮度或色彩表現,故可有效提升液晶顯示器之 1266930 應用範圍。然而,由於液晶顯示器每一次晝素均需利用一 薄膜電晶體作為開關元件,因此隨著次晝素數目之增加, 液晶顯示面板上所需設置之開關元件數目亦隨之增加。舉 . 例來說,一符合XGA(1024*768)規格之三色液晶顯示器具 、 有1024*768*3個次晝素,換言之亦需設置1024*768*3個 關關元件分別控制各次晝素,而對於一 XGA規格之四色液 晶顯示器而言,在相同解析度下則具有1〇24*768*4個次晝 φ 素,亦即需設置1024*768*4個開關元件。請參考第1圖, '第1圖為習知一四色液晶顯示器之畫素結構10示意圖,其 中為方便說明第1圖中僅顯示出6*6個晝素區。如第i圖 所不,晝素結構10包含有36個呈陣列狀排列之晝素12, ’且各晝素12均分別含一紅色(red)次晝素12R、一綠色(green) '次晝素12G、一藍色(blue)次晝素12B與一青色(cyan)次晝 素12C,且紅色次晝素12R、綠色次晝素nG、藍色次晝 素12B與月色次素12C係呈條狀排列(stripe arranged)。如 上所述’於白知四色液晶顯示器之晝素結構1〇中,各晝素 12包含有獨立之四次晝素(紅色次畫素i2R、綠色次畫素 12G、藍色次晝素12B與青色次畫素nc),且各次畫素並 •設置有相對應之紅色濾光片、綠色渡光片、藍色滤光片與 .θ色;m同時利用各次晝素内之開關元件加以控制, 以表達出各旦素12所欲顯不之顏色,進而組合出色彩亮麗 之顯示晝面。 1266930 四色液晶顯示器由於各晝素係由四個不同顏色之次晝 素組成,因此具有較寬廣之色域表現,然而由於開關元件 數目增加了三分之一,製程線寬必須降低,因此導致製程 、 良率較差。除此之外,對於每一次畫素而言,開關元件所 在之區域係為不透光區,因此液晶顯示器之開口率亦會因 % 此下降,同時四色液晶顯示器之成本亦較三色液晶顯示器 增加,而上述原因均造成四色液晶顯示器發展上之難題。 . 【發明内容】 因此,本發明之主要目的在於提供一種四色之畫素結 構,以解決習知技術無法克服之難題。 . 本發明係揭露一種四色之畫素結構,其包含有複數個邏 輯畫素(logic pixel),各邏輯畫素包含有複數個次晝素,組 成各該邏輯畫素之該等次晝素均包含有至少一第一次晝 # 素、至少一第二次晝素、至少一第三次晝素與至少一第四 次晝素,且各該邏輯晝素至少與一相鄰之邏輯晝素共用一 次晝素。 本發明之畫素結構利用共用次畫素之作法減少次晝素 數目,達到提升開口率、製程良率與減少成本的優點,其 可應用於四色顯示裝置、彩色影像擷取裝置之感光元件等。 1266930 為了使貴審查委員能更近一步了解本發明之特徵及 技術内容,請參閱以下有關本發明之詳細說明與附圖。然 而所附圖式僅供參考與輔助說明用,並非用來對本發明加 、 以限制者。 【實施方式】 本發明之要旨在於不影響四色液晶顯示器之解析度的 & 前提下,利用邏輯畫素之觀念以減少所需次晝素數目,以 _ 避免傳統四色液晶顯示器次晝素過多所導致之種種問題。 以下先針對實體畫素與邏輯晝素之觀念作一比較,以利讀 者更清楚理解以下實施例之說明,藉此暸解本發明之特 — 點。以四色液晶顯示器為例,實體晝素(習稱晝素)係指由 • 代表四原色(如紅綠藍青)之四次晝素組成之晝素區,且各 原色並未對其重要性(priority)作區分,換句話說,各實體 晝素均分別包含有獨立而不共用之四次畫素,並利用此四 ® 次晝素之組合表現出所欲顯示之晝素。邏輯晝素亦包含有 代表四原色之次晝素,但各邏輯晝素所包含之次晝素數目 不小於四個,而依據人眼對於不同顏色的敏感度不同,將 . 各原色區分為重要次晝素與次要次晝素,而各邏輯畫素至 _ 少與相鄰邏輯晝素共用一次要次畫素。以紅綠藍青四色液 晶顯示器為例,由於人眼對於紅色與綠色之敏感度較對於 藍色與青色為高,因此紅色次晝素與綠色次晝素係定義為 重要次畫素,而藍色與青色則定義為次要次畫素,而各邏 輯畫f $ 〜具有一未與相鄰邏輯晝素共用之紅色次畫素或 綠色查I 一 用至>丨思京,而視畫素結構之設計不同與相鄰邏輯晝素共 . 演曾二〜藍色次晝素或一青色次晝素,同時在配合適當之 、供的設計下,被共用之次晝素經由事先計算可分別提 /、斤屬之複數個邏輯晝素所需之顏色表現,使各邏輯晝 '、共用次晝素的設計下仍可表現出所需之顯示晝素。舉 、 例來說,若一藍色次畫素係同時被二邏輯畫素共用,且二 ‘ ^輯晝素分別需要之藍色灰階值為120與130,則此藍色 次晝素必須同時表現出此二邏輯晝素所需之藍色灰階,例 如若設定共用之藍色次晝素的灰階值為125,則共用之藍 色次晝素之過濾值(Bfilte产0·5:0·5),而紅色次晝素並未與 、相鄰邏輯晝素共用,則Rfilter=1,以此類推。由上述可知, 本發明利用邏輯畫素之概念,可在液晶顯示器之次畫素數 目減v的情況下,達到相同之顯示效果,而本發明四色液 • 日日顯不态之晝素結構的各種變化則如下列各實施例所示。 其中為清楚彰顯本發明之特點,以下各實施列與相關圖示 中僅顯示出6*6個晝素區。 '处睛茶考第2圖,第2圖係本發明四色液晶顯示器之晝素 I冓 之第一車父佳實施例之示意圖。如第2圖所示,本實 例之四色液晶顯示器之畫素結構20單數列之次書素係、 依序按照藍紅綠青紅綠之次序重覆排列,而雙數列之次書 素排列則按照青紅綠藍紅綠之次序排列,且畫素結構2〇^ 1266930 含有複數個呈陣列狀排列之邏輯晝素22,其中各邏輯晝素 22係呈一矩形,且由位於同一列四次晝素組成,換言之, 同一列之第一個邏輯晝素22由左至右依序包含有一藍色 次晝素22B、一紅色次晝素22R、一綠色次晝素22G與一 青色次畫素22C,第二個邏輯晝素22由左至右依序包含有 一青色次晝素22C、一紅色次晝素22R、一綠色次畫素22G 與一藍色次晝素22B,以此類推,且位於同一列(水平方向) 上之各邏輯晝素22係與其左侧相鄰之邏輯畫素22共用一 藍色次晝素22B或一青色次畫素22C,而與其右側相鄰之 邏輯晝素22共用一青色次晝素22C或一藍色次晝素22B。 另外,於本實施例中藍色次晝素22B與青色次畫素22C的 面積相同,紅色次晝素22R與綠色次晝素22G的面積相 同,且藍色次晝素22B與青色次晝素22C的面積較紅色次 晝素22R與綠色次晝素22G的面積為大(例如藍色次畫素 22B與青色次晝素22C的面積為紅色次晝素22R與綠色次 晝素22G的面積之二倍)。藉由上述次晝素配置,各邏輯晝 素22之紅色次晝素22R與綠色次晝素22G未與相鄰邏輯 畫素22共用,因此R&G filter=l,而各邏輯畫素22之藍 色次晝素22B與青色次畫素22C分別與一相鄰邏輯晝素22 共用,若設定藍色次晝素22B與青色次晝素22C於顯示時 平均分擔本身邏輯晝素22與相鄰邏輯晝素22之所需之灰 階值,貝|J B&C filter=0.5:0.5,如第2圖下方所示。 1266930 如前所述,由於本發明之晝素結構20係利用邏輯畫素 22之概念共用次晝素,達到節省次畫素數目之目的,因此 如第2圖所示,具有6*6個晝素之四色液晶顯示器原本應 , 需要6*6*4(144)個次畫素,而本發明之畫素結構20利用 36個邏輯晝素22僅需6*6*3(108)個次晝素,在節省了 25% 次晝素的情況下,開關元件之數目亦減少了 25%,因此可 避免製程良率下降與開口率下降等問題,卻仍然具有6*6 & 之解析度。 請參考第3圖,第3圖係本發明四色液晶顯示器之畫素 結構30之第二較佳實施例之示意圖。如第3圖所示,本實 - 施例之四色液晶顯示器之畫素結構30大致與前述第一較 、 佳實施例相同,其畫素結構30單數列之次畫素係依序按照 藍紅綠青紅綠之次序重覆排列,而雙數列之次畫素排列則 按照青紅綠藍紅綠之次序排列,且畫素結構30包含有複數 • 個呈陣列狀排列之邏輯晝素32,其中各邏輯晝素32係呈 一矩形,並由位於同一列之四次晝素組成,換言之,同一 列之第一個邏輯畫素32由左至右依序包含有一藍色次畫 , 素32B、一紅色次晝素32R、一綠色次晝素32G與一青色 , 次晝素32C,第二個邏輯晝素32由左至右依序包含有一青 色次晝素32C、一紅色次晝素32R、一綠色次畫素32G與 一藍色次畫素32B,以此類推,且位於同一列(水平方向) 上之各邏輯畫素32係與其左側相鄰之邏輯晝素32共用一 12669301266930 IX. Description of the invention: [Technical field to which the invention pertains] The present invention relates to a four-color halogen structure, and more particularly to a pixel structure that utilizes a common-secondary halogen to achieve a second-order reduction. [Prior Art] Since the liquid crystal display has characteristics such as power saving, low radiation, and light size, it has been widely used in display devices for personal computers, notebook computers, and flat-panel TVs. Then, due to the current brightness, color saturation and color gamut of the liquid crystal display (C0l0r gamutM;} can not be compared with the traditional cathode ray tube (CRT) display, so high-end professional display products, such as computer graphics The display used is still dominated by the CRT display. In view of this, a four-color liquid crystal display has been proposed to solve the shortcomings of the traditional three-color (RGB) liquid crystal display in terms of brightness and color performance. The pixels of the display are composed of four sub-pixels of different colors and combined with an appropriate algorithm (aig0rithm) to combine the desired colors. The advantage is that the LCD can be added. The brightness of the device (for example, using a pixel of four colors of red, green, blue, and white, commonly used - for a small-sized liquid crystal display), and increasing the color gamut of the liquid crystal display (for example, using red, green, and blue) It is known that the four color pixels of cyan form a single element.) As can be seen from the above, the four-color liquid crystal display has better brightness or color performance than the three-color liquid crystal display, so it can be effective. Enhance the application range of the 1266930 LCD. However, since each pixel of the liquid crystal display needs to use a thin film transistor as the switching element, the number of switching elements required on the liquid crystal display panel increases with the increase in the number of sub-tennis. With the increase, for example, a three-color liquid crystal display device conforming to the XGA (1024*768) specification has 1024*768*3 secondary elements, in other words, 1024*768*3 related components are also required. Control each element separately, and for an XGA-size four-color liquid crystal display, it has 1〇24*768*4 times 昼φ at the same resolution, that is, 1024*768*4 Switching element. Please refer to Fig. 1, 'Fig. 1 is a schematic diagram of a pixel structure 10 of a conventional four-color liquid crystal display, in which only 6*6 pixel regions are shown in Fig. 1 for convenience. In the figure, the halogen structure 10 includes 36 arrays of alizarin 12, 'and each of the alizanes 12 contains a red (red) sulphur 12R, a green (green) sputum 12G , a blue (blue) scorpion 12B and a cyan (cyan) sulphur 12C, and red quercetin 12R, green scorpion sulphate nG, blue sulphur sulphin 12B and sucrose sulphate 12C are in a stripe arrangement. As described above, in the 昼 结构 structure of 白白知 four-color liquid crystal display, each Alizarin 12 contains four independent elements (red sub-pixel i2R, green sub-pixel 12G, blue sub-tin 12B and cyan sub-pixel nc), and each pixel has a corresponding setting. Red filter, green light beam, blue filter and .θ color; m is simultaneously controlled by the switching elements in each element to express the color of each color 12, and then combined A brightly colored display. 1266930 Four-color liquid crystal display has a wide color gamut because each element is composed of four different color sub-nutrients. However, since the number of switching elements is increased by one-third, the process line width must be reduced, resulting in Process and yield are poor. In addition, for each pixel, the area where the switching element is located is an opaque area, so the aperture ratio of the liquid crystal display is also reduced by %, and the cost of the four-color liquid crystal display is also lower than that of the three-color liquid crystal display. The display has increased, and the above reasons have caused the development of four-color liquid crystal displays. SUMMARY OF THE INVENTION Accordingly, it is a primary object of the present invention to provide a four-color pixel structure that solves the problems that cannot be overcome by the prior art. The present invention discloses a four-color pixel structure including a plurality of logic pixels, each logical pixel including a plurality of secondary pixels, and the secondary pixels constituting each of the logical pixels Each includes at least a first time element, at least a second time element, at least a third element, and at least a fourth element, and each of the logical elements is at least adjacent to the logical unit. A single element is shared. The pixel structure of the invention utilizes the method of sharing sub-pixels to reduce the number of sub-tendins, thereby improving the aperture ratio, the process yield and the cost reduction, and can be applied to the photosensitive elements of the four-color display device and the color image capturing device. Wait. 1266930 For a more detailed understanding of the features and technical aspects of the present invention, the following detailed description of the invention and the accompanying drawings. The drawings are for illustrative purposes only and are not intended to limit the invention. [Embodiment] The present invention aims to reduce the number of sub-prime required by using the concept of logical pixels without affecting the resolution of the four-color liquid crystal display, to avoid the traditional four-color liquid crystal display. Too many problems caused by too much. In the following, a comparison is made between the concept of the physical pixel and the logical element, so that the reader can understand the description of the following embodiments more clearly, thereby understanding the features of the present invention. Taking a four-color liquid crystal display as an example, a solid halogen (known as a vegetarian element) refers to a halogen region composed of four primary colors of four primary colors (such as red, green, blue and blue), and the primary colors are not important to them. The distinction is made in terms of priority. In other words, each element of the entity contains four pixels that are independent and not shared, and the combination of the four levels of the elements is used to express the desired pixels. The logical element also contains sub-prime elements representing the four primary colors, but the number of sub-tendins contained in each logical element is not less than four, and depending on the sensitivity of the human eye to different colors, each primary color is distinguished as important. The secondary pixels are secondary to the secondary pixels, and the logical pixels to _ are less common to the adjacent logical elements. Taking the red, green, blue and blue liquid crystal display as an example, since the sensitivity of the human eye to red and green is higher than that of blue and cyan, the red sub-albumin and the green sub-alkaline are defined as important sub-pixels, and Blue and cyan are defined as secondary sub-pixels, and each logical drawing f $ 〜 has a red sub-pixel that is not shared with adjacent logical elements or a green check I used to > 丨思京, and The design of the pixel structure is different from that of the adjacent logic. The second is a blue or a blue color, and at the same time, with the appropriate design, the shared secondary is calculated by prior calculation. The color performance required by the multiple logical elements of the genus can be separately raised, so that the logic 昼' and the shared sub-tend design can still display the required display elements. For example, if a blue sub-pixel is shared by two logical pixels at the same time, and the blue grayscale values of 120 and 130 respectively are required for the two primes, then the blue sub-prime must be At the same time, the blue gray level required for the two logical elements is displayed. For example, if the gray level value of the shared blue sub-tendin is set to 125, the filtered value of the shared blue sub-tennin (Bfilte is 0. 5). :0·5), and the red sub-tendin is not shared with the adjacent logical element, then Rfilter=1, and so on. As can be seen from the above, the present invention utilizes the concept of a logical pixel to achieve the same display effect in the case where the number of sub-pixels of the liquid crystal display is reduced by v, and the four-color liquid of the present invention The various changes are as shown in the following examples. In order to clearly illustrate the features of the present invention, only 6*6 halogen regions are shown in the following embodiments and related drawings. 'In the second half of the tea examination, the second figure is a schematic diagram of the first embodiment of the first car of the four-color liquid crystal display of the present invention. As shown in FIG. 2, the pixel structure of the four-color liquid crystal display of the present example is repeated in the order of blue, green, green, red, and green, and the sub-sequences of the double-numbered columns are arranged. Then arranged in the order of cyan red, green, blue, red and green, and the pixel structure 2〇^ 1266930 contains a plurality of logical elements 22 arranged in an array, wherein each logical element 22 is a rectangle and is located in the same column four. Subsequent composition, in other words, the first logical element 22 of the same column contains a blue secondary halogen 22B, a red secondary halogen 22R, a green secondary halogen 22G and a cyan secondary painting from left to right. 22C, the second logical element 22 contains a cyan color sulphur 22C, a red sulphur 22R, a green sub-pixel 22G and a blue sulphur 22B, and so on, from left to right. And each logical element 22 located in the same column (horizontal direction) shares a blue secondary element 22B or a cyan sub-pixel 22C with the logical pixel 22 adjacent to the left side thereof, and the logic 相邻 adjacent to the right side thereof The element 22 shares a cyan sinensis 22C or a blue sulphur 22B. In addition, in the present embodiment, the area of the blue sub-halogen 22B and the cyan sub-pixel 22C is the same, the area of the red sub-halogen 22R and the green sub-halogen 22G are the same, and the blue sub-halogen 22B and the cyanine pigment The area of 22C is larger than the area of red scorpion 22R and green scorpion 22G (for example, the area of blue sub-pixel 22B and cyan chlorophyll 22C is the area of red scorpion 22R and green scorpion 22G. Double). With the above-described secondary pixel configuration, the red sub-salvin 22R and the green sub-salvin 22G of each logical element 22 are not shared with the adjacent logical pixels 22, so R&G filter=l, and each logical pixel 22 The blue scorpion 22B and the cyan sub-pixel 22C are respectively shared with an adjacent logical element 22, and if the blue sputum 22B and the cyan sinusoid 22C are set to display, the average logical unit 22 and adjacent are respectively displayed. The desired grayscale value of the logical element 22, BET |J B&C filter=0.5:0.5, as shown at the bottom of Figure 2. 1266930 As described above, since the pixel structure 20 of the present invention uses the concept of the logical pixel 22 to share the secondary pixels, the purpose of saving the number of sub-pixels is achieved, so as shown in Fig. 2, there are 6*6 昼The four-color liquid crystal display originally requires 6*6*4 (144) sub-pixels, and the pixel structure 20 of the present invention utilizes 36 logical elements 22 only 6*6*3 (108) times. In the case of saving 25% of the secondary elements, the number of switching elements is also reduced by 25%, so that problems such as a decrease in process yield and a decrease in aperture ratio can be avoided, but still have a resolution of 6*6 & . Please refer to FIG. 3, which is a schematic diagram of a second preferred embodiment of the pixel structure 30 of the four-color liquid crystal display of the present invention. As shown in Fig. 3, the pixel structure 30 of the four-color liquid crystal display of the present embodiment is substantially the same as that of the first comparative example described above, and the pixel elements of the pixel sequence 30 are sequentially arranged in blue. The order of red, green, green, red and green is repeated, and the sub-pixel arrangement of the double-numbered columns is arranged in the order of cyan, green, blue, red, and green, and the pixel structure 30 contains a plurality of logical elements 32 arranged in an array. Each of the logical elements 32 is a rectangle and consists of four elements in the same column. In other words, the first logical pixel 32 of the same column contains a blue sub-picture from left to right. 32B, a red scorpion 32R, a green scorpion 32G and a cyan, sulphur 32C, the second logical sinus 32 contains a cyan sinusin 32C, a red scorpion in order from left to right 32R, a green sub-pixel 32G and a blue sub-pixel 32B, and so on, and each logical pixel 32 in the same column (horizontal direction) is shared with a logical element 32 adjacent to its left side by a 1266930

藍色次晝f 32B或-#色次晝素32C,㈣其右側相鄰之 破輯晝素32共用-青色次晝素32C或〜藍色次晝素32B。 值得注意的是本實施例之藍色次畫素32b、青色次畫素 32C紅色次晝素徽與綠色次畫素如的面積均相同。 藉由上述次晝素配置,各邏輯晝素32d色次晝素32R與 綠色次晝素32G未與相鄰邏輯晝素32_,因此R&G _㈣,而各邏輯晝素32之藍色次晝素32b與青色次晝 素320分別與一相鄰邏輯晝素%共用,因此設定b&c 山61-〇.5:〇.5,如第3圖下方所示。 上述二實施彳狀晝钱構設計均可“挑的次畫素 的=:==:ϊ: 一欠畫素 模組所提供之光源本身雖為自然光 北 日顯不态之晝素結構時可斜蚪 月光模組之光源的色偏情況而细調整不同顏色之 的面積方式’使顯示晝面不致失真而相最佳二旦,、 另外值得注㈣是上述二實_之畫素結構的次書== 亦可作適度變化,例如晝素結構之單數狀次心係= 按照藍紅綠青紅綠之次序重覆排列,而雙數列之次^ 列則按照青綠紅藍綠紅之次序排列。 |素排 之晝素 睛參考第4 ® ’第4圖係本發明四色液晶顯示器 12 1266930 結構40之第三較佳實施例之示意圖。如第4圖所示,本實 施例之四色液晶顯示器之畫素結構40之單數列之次畫素 係依序按照紅青綠藍之次序重覆排列,而雙數列之次畫素 則係依綠藍紅青之次序重覆排列。晝素結構40包含有複數 個邏輯晝素42,其中各邏輯晝素42均由七個次晝素組成 之十字形(以水平方向而言呈1-5-1排列),且部分邏輯晝素 42包含有一紅色次畫素42R、四綠色次畫素42G、一藍色 次晝素42B與一青色次畫素42C,而部分邏輯畫素42則包 含有四紅色次晝素42R、一綠色次畫素42G、一藍色次畫 素42B與一青色次畫素42C。藉由上述次畫素配置,各邏 輯晝素42之紅色次畫素42R與綠色次畫素42G係為五相 鄰邏輯晝素42所共用,故設定R&G filter=0.5:0.125:0.125:0.125:0.125(上列數值於第 4 圖中表 格之位置代表各相對位置不同之邏輯畫素42),而邏輯畫素 32之藍色次晝素32B與青色次晝素32C分別為二相鄰晝素 32共用,因此設定B&Cfilter=0.5:0.5,如第4圖下方所示。 由上述可知,本實施例之畫素結構40利用36個邏輯晝 素42僅需6*6*2(72)個次畫素,即可顯示出6*6個畫素之 四色液晶顯示器原本應需要6*6*4(144)個次晝素,因此節 省了 50%次晝素。在此情況下,開關元件之數目亦減少了 50%,避免了製程良率下降與開口率下降等問題,卻仍然 具有6*6之解析度。 13 1266930 請參考第5圖,第5圖為本發明四色液晶顯示器之畫素 結構50之第四較佳實施例之示意圖。如第5圖所示,晝素 結構50之次晝素排列與邏輯晝素52之形狀、組成、R&G filter與B&C filter等均與上述第三實施例相同,而本實施 例與上述實施例不同之處在於,紅色次畫素42R與綠色次 畫素42G之面積較藍色次畫素42B與青色次晝素42C之面 積為大,其理由為針對背光模組之光源色偏作校正,已於 4 前說明故在此不多作贅述。而本實施例之晝素結構50利用 - 36個邏輯畫素52亦僅需61612(72)個次畫素,即可顯示出 616個晝素之四色液晶顯示器原本應需要61614(144)個次 畫素,因此節省了 50%次晝素。 14 1 請參考第6圖與第7圖,第6圖係本發明四色液晶顯示 器之畫素結構60之第五較佳實施例之示意圖;第7圖為第6 圖之晝素結構60之邏輯晝素62之示意圖。如第6圖所示, ® 本實施例之四色液晶顯示器之畫素結構60之單數列之次 晝素係依序按照紅綠藍之次序重覆排列,而雙數列之次晝 素則係依青紅綠之次序重覆排列,其中值得注意的是紅色 , 次畫素62R與綠色次晝素62G之面積係為藍色次晝素62B , 與青色次晝素62C之一半。晝素結構60包含有複數個邏輯 晝素62,且邏輯晝素62又區分為由13個次晝素組成之正 方形邏輯畫素62與6個次晝素組成之十字形邏輯畫素62 二種,如第7圖所示。其中正方形邏輯晝素62包含有四個 1266930 青色次晝素62C、一個藍色次晝素62B、四個紅色次晝素 62R與四個綠色次畫素62G,或是一個青色次晝素62C、 四個藍色次畫素62B、四個紅色次畫素62R與四個綠色次 晝素62G,而十字形邏輯畫素62包含有一個紅色次畫素 62R、一^固綠色次晝素62G、二個数色次晝素62B與二個 青色次晝素62C,其具有二種排列方式,如第7圖所示。 各邏輯晝素62之紅色次晝素62R與綠色次畫素62G均為 _ 五個相鄰之邏輯晝素62共用,因此設定R&G . filter=0.5:0.125:0.125:0.125:0.125,而藍色次畫素 62B 與青 色次畫素62C則與九個相鄰邏輯晝素62共用,故設定B&C filter=0.25:0.125:0.125:0.125:0.125:0.0625:0.0625:0.0625:0. 0625:0.0625,如第6圖所示。 請參考第8圖,第8圖係本發明四色液晶顯示器之晝素 結構80之第六較佳實施例之示意圖。如第8圖所示,本實 ⑩施例之四色液晶顯示器之晝素結構80與第五實施例之畫 素結構相肖,亦即單數列之次晝素係依序按照紅綠藍之次 序重覆排列,而雙數列之次晝素則係依青紅綠之次序重覆 •排列’且紅色次晝素82R與綠色次晝素伽之面積係為藍 色次晝素82B與青色次畫素82c之—半。本實施例與第五 實施例不同之處在於晝素結構8〇所包含之複數個邏輯晝 素82係為*六個次晝素組成之正方形,各邏輯畫素82包 含有二個紅色次晝素82R、二個綠色次晝素8扣…個藍 15 1266930 色次晝素82B與一個青色次晝素82C,而各邏輯畫素82所 包含之次畫素排列方式則隨邏輯晝素82位置之不同而區 分為四種,如第8圖所示。藉由上述次畫素配置各紅色次 畫素82R、綠色次晝素82G、藍色次畫素82B與青色次畫 素82C均各自為四個邏輯晝素82所共用,因此設定 R&G&B&Cfilter=0.25:0.25:0.25:0.25,如第 8 圖所示。 0 請參考第9圖,第9圖係本發明四色液晶顯示器之畫素 . 結構90之第七較佳實施例之示意圖。如第9圖所示,本實 施例之四色液晶顯示器之畫素結構90之單數列之次畫素 係依序按照紅綠藍之次序重覆排列,而雙數列之次畫素則 係依綠青紅之次序重覆排列。晝素結構90包含有複數個邏 - 輯晝素92,各邏輯畫素92係為八個次晝素組成之十字形, 且依其位置之不同而分別為四種具有不同顏色之次晝素組 成。第一種次晝素組成為一個紅色次晝素92R、四個綠色 ⑩ 次晝素92G、二個藍色次晝素92B與一個青色次晝素92C, 第二種次畫素組成為一個紅色次晝素92R、四個綠色次晝 素92G、一個藍色次晝素92B與二個青色次畫素92C,第 _ 三種次晝素組成為四個紅色次晝素92R、一個綠色次晝素 92G、二個藍色次晝素92B與一個青色次畫素92C,第四 種次晝素組成為四個紅色次畫素92R、一個綠色次晝素 92G、一個藍色次畫素92B與二個青色次畫素92C。此外, 各邏輯晝素92之紅色次晝素92R與綠色次畫素92G均為 16 1266930 五個相鄰之邏輯畫素92共用,因此設定R&G filter二0·5:0·125:0· 125:0· 125:0.125,而藍色次晝素 92B 與青 色次畫素92C則為六個相鄰邏輯晝素92共用,故設定B&C filter=0.125:0.125:0.25:0.25:0.125:0.125,如第 9 圖所示。 請參考第10圖,第10圖係本發明四色液晶顯示器之晝 素結構100之第八較佳實施例之示意圖。如第10圖所示, I 本實施例之四色液晶顯示器之畫素結構100之單數列之次 . 晝素係依序按照紅綠藍青之次序重覆排列,而雙數列之次 晝素則係依綠藍紅青之次序重覆排列,且藍色次畫素102B 與青色次畫素102C之面積係為紅色次畫素102R與綠色次 晝素102G之一半。畫素結構100包含有複數個邏輯晝素 102,各邏輯晝素102係為八個次晝素組成之類十字形,且 依其位置之不同而分別為二種具有不同顏色之次畫素組 成。第一種次畫素組成為一個紅色次晝素102R、四個綠色 ⑩ 次畫素102G、二個藍色次晝素102B與二個青色次晝素 102C,第二種次畫素組成為四個紅色次畫素102R、一個綠 色次晝素102G、二個藍色次畫素102B與二個青色次畫素 . 102C。藉由上述次畫素配置,各邏輯畫素102之紅色次晝 素102R與綠色次晝素102G均為五個相鄰之邏輯畫素102 共用,因此設定 R&Gfilter=0.5:0.125:0.125:0.125:0.125, 而藍色次晝素102B與青色次晝素102C則為四個相鄰邏輯 晝素 102 共用,故設定 B&C filter=0.25:0.25:0.25:0.25,如 17 1266930 第ίο圖所示。 請參考第11圖,第11圖係本發明四色液晶顯示器之晝 素結構110之第九較佳實施例之示意圖。如第11圖所示, 本實施例之四色液晶顯示器之畫素結構110之單數列之次 畫素係依序按照紅藍綠藍之次序重覆排列,而雙數列之次 晝素則係依綠青紅青之次序重覆排列,且藍色次晝素112B - 與青色次晝素112C之面積係為紅色次晝素112R與綠色次 . 畫素112G之一半。畫素結構110包含有複數個邏輯晝素 112,各邏輯晝素112係為十一個次畫素組成之十字形,且 依其位置之不同而分別為四種具有不同顏色之次晝素組 成。第一種次畫素組成為一個紅色次畫素112R、四個綠色 次晝素112G、四個藍色次畫素112B與二個青色次畫素 112C,第二種次畫素組成為一個紅色次晝素112R、四個綠 色次晝素112G、二個藍色次晝素112B與四個青色次晝素 • 112C,第三種次晝素組成為四個紅色次畫素112R、一個綠 色次晝素112G、四個藍色次晝素112B與二個青色次畫素 112C,第四種次晝素組成為四個紅色次晝素112R、一個綠 . 色次畫素112G、二個藍色次晝素112B與四個青色次畫素 112C。藉由上述次畫素配置,各邏輯畫素112之紅色次畫 素112R與綠色次晝素112G均為五個相鄰之邏輯畫素112 共用,因此設定 R&Gfilter二0·5:0·125:0·125:0·125:0·125, 而藍色次畫素112Β與青色次晝素112C則為六個相鄰邏輯 18 1266930Blue 昼f 32B or -#色次素素32C, (4) The right side adjacent to the ruthenium 32 is shared - cyan sinensis 32C or ~ blue sulphur 32B. It should be noted that the areas of the blue sub-pixel 32b, the cyan sub-pixel 32C red sub-small element emblem and the green sub-pixel element of the present embodiment are all the same. With the above-described secondary pixel configuration, each logical element 32d color secondary pixel 32R and green secondary element 32G are not adjacent to the adjacent logical element 32_, thus R&G_(4), and the blue color of each logical element 32 The prime 32b and the cyan secondary pigment 320 are respectively shared with an adjacent logical element%, so b&c mountain 61-〇.5:〇.5 is set, as shown in the lower part of FIG. The above two implementations of the 昼 昼 构 构 构 均可 均可 = = = = = = = = = = = = : : : : : = = = = = = = = = = = = = = = = = = = = = The color shift of the light source of the slanting moonlight module and the fine adjustment of the area of the different colors 'to make the display surface not distorted and the best for the second time, and another worthy note (4) is the second _ the pixel structure of the second Book == can also be moderately changed, for example, the singular sub-center system of the alizarin structure = repeated in the order of blue, red, green, green, red, and green, and the sub-columns of the double-numbered columns are arranged in the order of cyan, red, blue, green, and red. The fourth embodiment of the present invention is a schematic diagram of a third preferred embodiment of the four-color liquid crystal display 12 1266930 structure 40 of the present invention. As shown in FIG. 4, the four colors of the present embodiment are shown. The sub-pixels of the singular column of the pixel structure 40 of the liquid crystal display are sequentially arranged in the order of red, green, and blue, and the sub-pixels of the double-numbered columns are repeatedly arranged in the order of green, blue, and red. 40 includes a plurality of logical elements 42, wherein each logical element 42 is seven times The cross-shaped composition of the prime (in the horizontal direction is 1-5-1), and the partial logical element 42 includes a red sub-pixel 42R, four green sub-pixels 42G, a blue sub-salmon 42B and one The cyan sub-pixel 42C, and the partial logic pixel 42 includes four red sub-salvin 42R, one green sub-pixel 42G, one blue sub-pixel 42B and one cyan sub-pixel 42C. In the configuration, the red sub-pixel 42R and the green sub-pixel 42G of each logical element 42 are shared by five adjacent logical elements 42, so R&G filter=0.5:0.125:0.125:0.125:0.125 is set (upper column) The values in the table in Fig. 4 represent the logical pixels 42) whose relative positions are different, and the blue pixels 32B and the cyan pixels 32C of the logical pixels 32 are shared by the two adjacent pixels 32, respectively. B&Cfilter=0.5:0.5 is set as shown in Fig. 4. As can be seen from the above, the pixel structure 40 of the present embodiment requires only 6*6*2 (72) sub-pixels using 36 logical elements 42. , the four-color LCD display that can display 6*6 pixels should originally require 6*6*4(144) times of eucalyptus, thus saving 50% of the eucalyptus. In this case The number of switching elements is also reduced by 50%, which avoids problems such as a decrease in process yield and a decrease in aperture ratio, but still has a resolution of 6*6. 13 1266930 Please refer to FIG. 5, and FIG. 5 is a four-color color of the present invention. A schematic diagram of a fourth preferred embodiment of the pixel structure 50 of the liquid crystal display. As shown in FIG. 5, the pixel arrangement of the halogen structure 50 and the shape and composition of the logic element 52, R&G filter and B& C filter and the like are the same as the above-described third embodiment, and the present embodiment is different from the above embodiment in that the area of the red sub-pixel 42R and the green sub-pixel 42G is smaller than the blue sub-pixel 42B and the cyan color. The area of 42C is large, and the reason for correcting the color shift of the light source for the backlight module has been explained before 4, so it will not be repeated here. In the present embodiment, the pixel structure 50 uses only 36612 (72) sub-pixels with -36 logical pixels 52, and the four-color liquid crystal display of 616 pixels can be required to be 61614 (144). Sub-pixels, thus saving 50% of the quality. 14 1 Please refer to FIG. 6 and FIG. 7 , FIG. 6 is a schematic diagram of a fifth preferred embodiment of the pixel structure 60 of the four-color liquid crystal display of the present invention; FIG. 7 is a diagram of the pixel structure 60 of FIG. 6 . Schematic diagram of logical element 62. As shown in FIG. 6, the singular order of the singular column of the pixel structure 60 of the four-color liquid crystal display of the present embodiment is sequentially arranged in the order of red, green and blue, and the sub-sequence of the double-numbered column is Repeatedly arranged in the order of cyan red and green, it is worth noting that red, the area of sub-pixel 62R and green sub-vitamin 62G is blue ascorbicin 62B, and one-half of cyanine 62C. The halogen structure 60 includes a plurality of logical elements 62, and the logical element 62 is further divided into a square logical pixel 62 composed of 13 secondary elements and a cross logical pixel 62 composed of 6 secondary elements. As shown in Figure 7. The square logical element 62 contains four 1266930 cyan sulphur 62C, one blue sulphur 62B, four red sulphur 62R and four green sub-pixels 62G, or one cyan sulphur 62C, The four blue sub-pixels 62B, the four red sub-pixels 62R and the four green sub-vitamins 62G, and the cross-shaped logic pixel 62 includes a red sub-pixel 62R, a solid green sub-alkaline 62G, Two color-colored secondary halogen 62B and two cyan secondary halogen 62C have two arrangements, as shown in FIG. The red subsegment 62R and the green subpixel 62G of each logical element 62 are both _ five adjacent logical elements 62, so R&G. filter=0.5:0.125:0.125:0.125:0.125 is set, and The blue sub-pixel 62B and the cyan sub-pixel 62C are shared with nine adjacent logical elements 62, so B&C filter=0.25:0.125:0.125:0.125:0.125:0.0625:0.0625:0.0625:0. 0625 : 0.0625, as shown in Figure 6. Please refer to FIG. 8. FIG. 8 is a schematic view showing a sixth preferred embodiment of the halogen structure 80 of the four-color liquid crystal display of the present invention. As shown in Fig. 8, the pixel structure 80 of the four-color liquid crystal display of the present embodiment is similar to the pixel structure of the fifth embodiment, that is, the singular order of the singular order is in accordance with the red, green and blue The order is repeated, and the sub-sequences of the double-numbered columns are repeated in the order of cyan red and green. The area of the red sub-albumin 82R and the green sub-supplemental gamma is blue sub-albumin 82B and cyan times. Pictured 82c - half. The difference between this embodiment and the fifth embodiment is that the plurality of logical elements 82 included in the unitary structure 8〇 are squares composed of *six secondary elements, and each logical pixel 82 includes two red squares. Prime 82R, two green sucralose 8 buckles... a blue 15 1266930 color secondary sulphate 82B and a cyan secondary sulphur 82C, and each of the logical pixels 82 contains the sub-pixel arrangement with the logical element 82 position The difference is divided into four types, as shown in Figure 8. Each of the red sub-pixels 82R, the green sub-stimuli 82G, the blue sub-pixel 82B, and the cyan sub-pixel 82C is shared by the four logical elements 82 by the above-described sub-pixels, so R&G&B&Cfilter=0.25: 0.25: 0.25: 0.25, as shown in Figure 8. 0 Referring to FIG. 9, FIG. 9 is a diagram of a four-color liquid crystal display of the present invention. A schematic diagram of a seventh preferred embodiment of the structure 90. As shown in FIG. 9, the sub-pixels of the singular column of the pixel structure 90 of the four-color liquid crystal display of the present embodiment are sequentially arranged in the order of red, green and blue, and the sub-pixels of the double-numbered columns are The order of green and blue is repeated. The halogen structure 90 includes a plurality of logical elements 92, each logical pixel 92 is a cross shape composed of eight secondary elements, and four different colors are different according to their positions. composition. The first sub-sputum consists of a red scorpion 92R, four green 10 sulphur 92G, two blue sulphur 92B and one cyan sulphur 92C, and the second sub-pixel consists of a red The secondary sputum 92R, the four green scorpion 92G, one blue scorpion 92B and two blue chloroplast 92C, the _ three sub-sucrose consists of four red scorpion 92R, one green scorpion 92G, two blue scorpion 92B and one cyan sub-pixel 92C, the fourth sub-success is composed of four red sub-pixels 92R, one green sub-purine 92G, one blue sub-pixel 92B and two Cyan secondary pixels 92C. In addition, the red subsegment 92R and the green subpixel 92G of each logical element 92 are 16 1266930 and five adjacent logical pixels 92 are shared, so the R&G filter is set to 0·5:0·125:0. · 125:0· 125:0.125, while the blue sub-purin 92B and the cyan sub-pixel 92C are shared by six adjacent logical elements 92, so set B&C filter=0.125:0.125:0.25:0.25:0.125 : 0.125, as shown in Figure 9. Please refer to FIG. 10, which is a schematic view showing an eighth preferred embodiment of the pixel structure 100 of the four-color liquid crystal display of the present invention. As shown in Fig. 10, the singular order of the pixel structure 100 of the four-color liquid crystal display of the present embodiment is the same as that of the order of the red, green, and blue. The order is repeated in the order of green, blue, and red, and the area of the blue sub-pixel 102B and the cyan sub-pixel 102C is one-half of the red sub-pixel 102R and the green sub-alkaline 102G. The pixel structure 100 includes a plurality of logical elements 102, each logical element 102 is a cross shape composed of eight secondary elements, and is composed of two sub-pixels having different colors depending on their positions. . The first sub-pixel consists of a red scorpion 102R, four green 10th pixel 102G, two blue sulphur 102B and two cyan sulphur 102C, and the second sub-pixel consists of four. Red sub-pixels 102R, one green sub-salmon 102G, two blue sub-pixels 102B and two cyan sub-pixels. 102C. With the above sub-pixel configuration, the red sub-stencil 102R and the green sub-salvin 102G of each logical pixel 102 are shared by five adjacent logical pixels 102, so R&Gfilter=0.5:0.125:0.125 is set: 0.125:0.125, while blue sulphur 102B and cyan sulphur 102C are shared by four adjacent logical elements 102, so set B&C filter=0.25:0.25:0.25:0.25, such as 17 1266930 ίο Shown. Please refer to FIG. 11, which is a schematic view showing a ninth preferred embodiment of the pixel structure 110 of the four-color liquid crystal display of the present invention. As shown in FIG. 11, the sub-pixels of the singular column of the pixel structure 110 of the four-color liquid crystal display of the present embodiment are sequentially arranged in the order of red, blue, green and blue, and the sub-sequences of the double-numbered columns are Repeatedly arranged in the order of green, green and red, and the area of blue sputum 112B - and cyanine 112C is red sputum 112R and green sub. The pixel structure 110 includes a plurality of logical elements 112, each of which is a cross shape composed of eleven sub-pixels, and is composed of four sub-dimorphisms having different colors depending on their positions. . The first sub-pixel consists of a red sub-pixel 112R, four green sub-stimuli 112G, four blue sub-pixels 112B and two cyan sub-pixels 112C, and the second sub-pixel is composed of a red color. The secondary scorpion 112R, the four green scorpion 112G, the two blue sulphur 112B and the four cyan phthalocyanine • 112C, the third scorpion is composed of four red sub-pixels 112R, one green Alizarin 112G, four blue quercetin 112B and two cyan sub-pixels 112C, the fourth sub-halogen is composed of four red sulphur 112R, one green, chromochromatic 112G, two blue The secondary pigment 112B and the four cyan secondary pixels 112C. With the above sub-pixel configuration, the red sub-pixel 112R and the green sub-pixel 112G of each logical pixel 112 are shared by five adjacent logical pixels 112, so R&Gfilter is set to 0·5:0· 125:0·125:0·125:0·125, while the blue subpixel 112Β and the cyan pigment 112C are six adjacent logics 18 1266930

晝素112共用,故設定B&C filter=0.125:(U25:0.25:0.25:(U25:0.125,如第 11 圖所示。 - 本發明之第五至第九等實施例之晝素結構利用36個邏 輯晝素僅需6*6* 1.5(54)個次畫素,即可顯示出6*6個晝素 之四色液晶顯示器原本應需要6*6*4(144)個次晝素,因此 節省了 62.5%次晝素。在此情況下,開關元件之數目亦減 _ 少了 62.5%,避免了製程良率下降與開口率下降等問題, , 卻仍然具有6*6之解析度。 "月參考第12圖,第12圖係本發明四色液晶顯示器之畫 素〜構120之第十較佳實施例之示意圖。如第圖所示, 本實施例之四色液晶顯示器之晝素結構120之單數列之次 |素係依序按照紅藍之次序重覆排列,而雙數列之次畫素 _ ^係依青綠之次序重覆排列。晝素結構120包含有複數個 邏輯晝素122,各邏輯晝素122係為九個次晝素組成之正 =形,且依其位置之不同而分別為四種具有不同顏色之次 |素組成。第—種次晝素組成為—個紅色次畫素122R、四 •=綠色次晝素122G、二個藍色次晝素122β與二個青色次 •思素i22c,第二種次晝素組成為二個紅色次畫素122R、 二個綠色次晝素122G、一個藍色次晝* 122B與四個青色 一人晝素122C,第三種次晝素組成為二個紅色次畫素 〜個綠色次畫素122G、四個藍色次晝素122B與一個青色 19 1266930 次晝素122C’第四種次晝素組成為四個紅色次晝素i22R、 一個綠色次晝素122G、二個藍色次晝素122B與二個青色 次晝素122C。藉由上述次晝素配置,各邏輯畫素ι22之紅 ‘ 色次晝素122R、綠色次晝素122G、藍色次晝素122B與青Since the halogen 112 is shared, B&C filter=0.125: (U25: 0.25: 0.25: (U25: 0.125, as shown in Fig. 11) - Utilization of the halogen structure of the fifth to ninth embodiments of the present invention 36 logical elements only need 6 * 6 * 1.5 (54) sub-pixels, you can show that 6 * 6 halogen four-color LCD monitors should originally need 6 * 6 * 4 (144) times Therefore, 62.5% of the secondary elements are saved. In this case, the number of switching elements is also reduced by 62.5%, which avoids problems such as a decrease in process yield and a decrease in aperture ratio, but still has a resolution of 6*6. "Monthly reference to Fig. 12, Fig. 12 is a schematic view showing a tenth preferred embodiment of the pixel-structure 120 of the four-color liquid crystal display of the present invention. As shown in the figure, the four-color liquid crystal display of the present embodiment The singular column of the morpheme structure 120 is sequentially arranged in the order of red and blue, and the sub-pixels of the double-numbered column are repeatedly arranged in the order of green. The tiling structure 120 contains a plurality of logics.昼素122, each logical element 122 is a positive = shape composed of nine sub-successes, and four different colors depending on their positions. Sub-prime composition. The first-order morpheme consists of - red sub-pixel 122R, four == green scorpion 122G, two blue scorpion 122β and two cyan sub-sino i22c, second The species consists of two red sub-pixels 122R, two green sub-purines 122G, one blue sub-昼*122B and four cyan one-person alizarin 122C, and the third sub-halogen is composed of two red times. Pixels ~ a green sub-pixel 122G, four blue sub-salvin 122B and a cyan 19 1266930 sub-sucrose 122C 'the fourth sub-sucrose composed of four red sub-salmon i22R, one green sub-sulphur 122G Two blue scorpion 122B and two cyan sulphur 122C. With the above-mentioned secondary morpheme configuration, each logical pixel ι22 red 'color scorpion 122R, green scorpion 122G, blue 昼素122B and 青

•色次晝素122C均為九個相鄰之邏輯晝素122共用,因此設 定 R&G&B&C filter=0.0625:0.125:00625:0.125:0.25:0.125:0.0625:0.125:0. 0 0625 ’如第12圖所示。 請參考第13圖’第13圖係本發明四色液晶顯示器之晝 素結構130之第十一較佳實施例之示意圖。如第13圖所 不’本實施例之四色液晶顯示器之晝素結構13〇與第十實 施例之次晝素配置相同,其單數列之次畫素係依序按照紅 藍之次序重覆排列,而雙數列之次晝素則係依青綠之次序 重覆排列。畫素結構130包含有複數個邏輯畫素132,各 邏輯晝素122係由一個紅色次晝素132R、一個綠色次畫素 132G、一個藍色次畫素132B與一個青色次晝素mc組成 之正方形’且依邏輯畫素132之位置之不同,其所包含之 • 四-人晝素之相對位置亦有所不同,如第13圖所示。藉由上• The color sinusoidal 122C is shared by nine adjacent logical elements 122, so set R&G&B&C filter=0.0625:0.125:00625:0.125:0.25:0.125:0.0625:0.125:0. 0 0625 'As shown in Figure 12. Please refer to Fig. 13 and Fig. 13 is a schematic view showing an eleventh preferred embodiment of the pixel structure 130 of the four-color liquid crystal display of the present invention. The pixel structure 13 of the four-color liquid crystal display of the present embodiment is the same as that of the tenth embodiment, and the sub-pixels of the singular column are sequentially repeated in the order of red and blue. Arranged, and the secondary elements of the double-numbered columns are repeatedly arranged in the order of green. The pixel structure 130 includes a plurality of logical pixels 132, each logical element 122 is composed of a red secondary pigment 132R, a green secondary pixel 132G, a blue secondary pixel 132B and a cyan secondary pixel mc. The square' and the position of the logical pixel 132 are different, and the relative positions of the four-human elements are also different, as shown in Figure 13. By using

• 述次畫素配置,各邏輯晝素132之紅色次晝素122R、綠色 -人晝素122G、藍色次畫素i22b與青色次畫素122C均分 別為四個相鄰之邏輯晝素132共用,因此設定R&G&B&C filter 〜〇·25:〇·25··〇·25:0·25,如第 13 圖所示。 20 1266930 本發明第十與第十一實施例之之 輯晝素僅需6*6*1(36)個次晝素^素、:構利用36個邏 四色液晶顯示器原本應需要τ出6 6個旦素之 省了 75%次晝素。在此情况下,=4)個次晝素,因此節 75%’避免了製程良率下降 ^目亦減夕了 具有6*6之解析度。 旱下降㈣題,卻仍然 相較於習知技術,本發明 計利用共用次晝素之作法,可在示器之晝素結構設 少次畫素數目,進而達到提升響:咖前提下減 本的優點。其中值得注意的是 =&良率與減少成 t〇丄 、綠、藍與青等四;f斧僅 ==晝素結構之特徵,非本發明之限制, 因此其斜_色之組合_於本㈣之晝素 次畫素之相對尺寸亦可依需炎 ^ ° Η關开杜夕饮 而求作凋-。此外,各次晝素之 所揭不之晝素結構除應用於四色液晶顯示器之外,亦可應 用於其他顯示農置’如石夕基液晶顯示器,或數位相機、掃 描器或攝影機等彩色影像擷取裝置之感光元件上,如CCD 感光元件等。 以上所述僅為本發明之較佳實施例,凡依本發明申請專 21 1266930 利範圍所做之均等變化與修飾,皆應屬本發明專利之涵蓋範圍。 【圖式簡單說明】 第1圖係習知一四色液晶顯示器之晝素結構示意圖。 第2圖係本發明四色液晶顯示器之晝素結構之第一較佳實 施例之示意圖。 第3圖係本發明四色液晶顯示器之晝素結構之第二較佳實 0 施例之示意圖。 . 第4圖係本發明四色液晶顯示器之晝素結構之第三較佳實 施例之示意圖。 第5圖係本發明四色液晶顯示器之畫素結構之第四較佳實 施例之示意圖。 第6圖係本發明四色液晶顯示器之晝素結構之第五較佳實 施例之示意圖。 第7圖為第6圖之畫素結構之邏輯晝素之示意圖。 • 第8圖係本發明四色液晶顯示器之晝素結構之第六較佳實 施例之示意圖。 第9圖係本發明四色液晶顯示器之晝素結構之第七較佳實 . 施例之示意圖。 第10圖係本發明四色液晶顯示器之畫素結構之第八較佳 實施例之示意圖。 第11圖係本發明四色液晶顯示器之晝素結構之第九較佳 實施例之示意圖。 22 1266930 第12圖係本發明四色液晶顯示器之晝素結構之第十較佳 實施例之不意圖。 第13圖係本發明四色液晶顯示器之畫素結構之第十一較 佳實施例之示意圖。 【主要元件符號說明】 10,20,30,40,50,60,80,90,100,110,120,130 畫素結構 12,22,32,42,52,62,82,92,102,112,122,132 邏輯畫素 12R,22R,32R,42R,52R,62R,82R,92R,102R, 112R,122R,132R 紅色次晝素 12G,22G,32G,42G,52G,62G,82G,92G,102G, 112G,122G,132G 綠色次晝素 12B,22B,32B,42B,52B,62B,82B,92B,102B, 112B,122B,132B 藍色次晝素 12C,22C,32C,42C,52C,62C,82C,92C,102C, 112C,122C,132C 青色次晝素 23• In the description of the pixel configuration, each of the logical elements 132 of the red subsegment 122R, the green-human sputum 122G, the blue sub-pixel i22b and the cyan sub-pixel 122C are respectively four adjacent logical elements 132 Shared, so set R&G&B&C filter ~〇·25:〇·25··〇·25:0·25, as shown in Figure 13. 20 1266930 The tenth and eleventh embodiments of the present invention only need 6*6*1(36) sub-success, and the 36-color four-color liquid crystal display should originally require τ output 6 6% of the cells are saved by 75%. In this case, =4) times, so the 75%' avoids the drop in process yield. The drought declines (4), but still compared to the conventional technology, the invention uses the method of sharing the secondary sputum, and the number of pixels in the morpheme structure of the display can be set to a small number of pixels, thereby achieving the improvement of the sound: The advantages. It is worth noting that =& yield is reduced to four, such as t〇丄, green, blue, and blue; f axe only == characteristics of the structure of the alizarin, not the limitation of the present invention, so the combination of oblique_color_ The relative size of the prime pixels in this (4) can also be used as a result of the need for inflammation. In addition, the elementary structure that is not revealed by each element can be applied to other display fields such as Shishiji LCD monitors, digital cameras, scanners or cameras, in addition to four-color liquid crystal displays. The photosensitive element of the image capturing device, such as a CCD photosensitive element. The above description is only the preferred embodiment of the present invention, and all changes and modifications made to the scope of the application of the present invention should be within the scope of the present invention. [Simple description of the drawing] Fig. 1 is a schematic diagram of the structure of a conventional four-color liquid crystal display. Fig. 2 is a view showing a first preferred embodiment of the halogen structure of the four-color liquid crystal display of the present invention. Fig. 3 is a view showing a second preferred embodiment of the halogen structure of the four-color liquid crystal display of the present invention. Fig. 4 is a view showing a third preferred embodiment of the halogen structure of the four-color liquid crystal display of the present invention. Fig. 5 is a view showing a fourth preferred embodiment of the pixel structure of the four-color liquid crystal display of the present invention. Fig. 6 is a view showing a fifth preferred embodiment of the halogen structure of the four-color liquid crystal display of the present invention. Figure 7 is a schematic diagram of the logical elements of the pixel structure of Figure 6. Fig. 8 is a view showing a sixth preferred embodiment of the halogen structure of the four-color liquid crystal display of the present invention. Figure 9 is a seventh preferred embodiment of the halogen structure of the four-color liquid crystal display of the present invention. Fig. 10 is a view showing an eighth preferred embodiment of the pixel structure of the four-color liquid crystal display of the present invention. Figure 11 is a view showing a ninth preferred embodiment of the halogen structure of the four-color liquid crystal display of the present invention. 22 1266930 Figure 12 is a schematic view of a tenth preferred embodiment of the halogen structure of the four-color liquid crystal display of the present invention. Figure 13 is a view showing an eleventh preferred embodiment of the pixel structure of the four-color liquid crystal display of the present invention. [Main component symbol description] 10,20,30,40,50,60,80,90,100,110,120,130 pixel structure 12,22,32,42,52,62,82,92,102, 112,122,132 Logical pixels 12R, 22R, 32R, 42R, 52R, 62R, 82R, 92R, 102R, 112R, 122R, 132R Red scorpion 12G, 22G, 32G, 42G, 52G, 62G, 82G, 92G , 102G, 112G, 122G, 132G green scorpion 12B, 22B, 32B, 42B, 52B, 62B, 82B, 92B, 102B, 112B, 122B, 132B blue sulphur 12C, 22C, 32C, 42C, 52C, 62C, 82C, 92C, 102C, 112C, 122C, 132C cyanine

Claims (1)

1266930 十、申請專利範圍: 1. 一種四色之畫素結構,包含有: 複數個邏輯晝素(logic pixel),各該邏輯畫素包含有複數 個次晝素,組成各該邏輯畫素之該等次晝素均包含 有至少一第一次晝素、至少一第二次晝素、至少一 第三次畫素與至少一第四次晝素,且各該邏輯畫素 至少與一相鄰之邏輯畫素共用一次晝素。 2. 如申請專利範圍第1項所述之晝素結構,其中各該邏輯 畫素係呈一矩形,且各該邏輯畫素係由呈一第一方向排 列之一第一次晝素、一第二次畫素、一第三次晝素與一 第四次晝素所組成。 3. 如申請專利範圍第2項所述之畫素結構,其中各該第三 次晝素係為於該第一方向上相鄰之二邏輯晝素所共 用,且各該第四次晝素係為於該第一方向上相鄰之二邏 輯晝素所共用。 4. 如申請專利範圍第3項所述之晝素結構,其中該第一次 畫素、該第二次畫素、該第三次晝素與該第四次晝素具 有相同之尺寸。 24 1266930 5. 如申請專利範圍第3項所述之畫素結構,其中該第三次 晝素與該第四次晝素之尺寸係為相同,而該第一次晝素 與該第二次晝素之尺寸係為相同。 6. 如申請專利範圍第5項所述之畫素結構,其中該第三次 畫素與該第四次畫素之尺寸大於該第一次晝素與該第 二次晝素之尺寸。 * 7.如申請專利範圍第1項所述之晝素結構,其中各該邏輯 畫素係為一十字形並係由七次畫素組成。 8. 如申請專利範圍第7項所述之畫素結構,其中該等邏輯 晝素係區分為一第一邏輯畫素組與一第二邏輯畫素組。 9. 如申請專利範圍第8項所述之畫素結構,其中該第一邏 φ 輯晝素組之各該邏輯晝素係由一第一次畫素、四第二次 素晝、一第三次晝素與一第四次晝素所組成,且該第一 次晝素係位於該十字型之中心位置,而該四第二次晝素 係分別位於該十字型之四端點位置。 &quot; 10.如申請專利範圍第9項所述之晝素結構,其中該第二邏 輯晝素組之各該邏輯晝素係由四第一次晝素、一第二次 素晝、一第三次晝素與一第四次晝素所組成,且該第二 25 1266930 次晝素係位於該十字型之中心位置,而該四第一次畫素 係分別位於該十字型之四端點位置。 1L如申請專利範圍第10項所述之晝素結構,其中各該第 一次晝素係為五個邏輯畫素所共用,各該第二次畫素係 為五個邏輯晝素所共用,各該第三次晝素係為二個邏輯 畫素所共用,且各該第四次畫素係為二個邏輯畫素所共用。 ® 12.如申請專利範圍第1項所述之晝素結構,其中各該邏輯 晝素係呈一矩形,且各該邏輯畫素區分為四面積相等並 呈陣列排列之區域。 13. 如申請專利範圍第12項所述之晝素結構,其中各該邏 輯晝素係由二第一次晝素、二第二次晝素、一第三次晝 素與一第四次晝素組成,該第一次畫素與該第二次畫素 _ 之面積均為該區域的面積之一半,且該第三次晝素與該 第四次晝素之面積等同於該區域的面積。 14. 如申請專利範圍第13項所述之畫素結構,其中各該邏 輯晝素之該第三次晝素與該第四次晝素係分別位於呈 一對角(orthogonal)方向排列之二區域,而呈另一對角方 向排列之二區域均包含有一第一次畫素與一第二次晝素。 26 1266930 15.如申請專利範圍第14項所述之晝素結構,其中各該第一 次晝素係為四個邏輯畫素所共用,各該第二次畫素係為 四個邏輯晝素所共用,各該第三次晝素係為四個邏輯畫 素所共用,且各該第四次畫素係為四個邏輯畫素所共用。 ‘ 16.如申請專利範圍第1項所述之晝素結構,其中該等邏輯 畫素係區分為一第一邏輯晝素組與一第二邏輯晝素組。 * 17.如申請專利範圍第16項所述之晝素結構,其中該第一 邏輯晝素組之各邏輯畫素係呈矩形,並由十三個次畫素 組成,而該第二邏輯畫素組之各該邏輯畫素係呈十字 形,並由六個次晝素組成。 18. 如申請專利範圍第17項所述之晝素結構,其中該第一 邏輯畫素組之部分邏輯晝素包含有四第一次晝素、四第 馨二次晝素、一第三次晝素與四第四次晝素,且該第一邏 輯晝素組之其他邏輯晝素包含有四第一次晝素、四第二 次晝素、四第三次晝素與一第四次晝素。 19. 如申請專利範圍第18項所述之晝素結構,其中該第二 邏輯晝素組之各該邏輯畫素包含有一第一次晝素、一第 二次晝素、二第三次畫素與二第四次畫素,且各該第一 次晝素與各該第二次畫素之面積係為各該第三次晝素 27 1266930 與各該第四次晝素之面積之一半。 20. 如申請專利範圍第19項所述之畫素結構,其中各該第 一次晝素與各該第二次畫素之面積係為各該第三次晝 素與各該第四次晝素之面積之一半。 21. 如申請專利範圍第20項所述之畫素結構,其中各該第一次 . 晝素係為五個邏輯畫素所共用,各該第二次畫素係為五 ^ 個邏輯晝素所共用,各該第三次晝素係為九個邏輯晝素 所共用,且各該第四次晝素係為九個邏輯畫素所共用。 22. 如申請專利範圍第1項所述之晝素結構,其中各該邏輯 晝素包含有八次晝素,且該八次晝素以一第一方向而言 排列成一第一列、一第二列與一第三列,該第一列包含 有二次晝素、該第二列包含有四次畫素、該第三列包含 φ 有二次晝素,且該第一列之該二次畫素與該第三列之該 二次晝素均係與該第二列中央之二次晝素相對應。 23. 如申請專利範圍第22項所述之晝素結構,其中該等邏 輯畫素係區分為一第一邏輯晝素組與一第二邏輯晝素 ' 組,該第一邏輯晝素組之各該邏輯晝素均包含有一第一 次晝素與四第二次畫素,而該第二邏輯晝素組之各該邏 輯晝素包含有四第一次晝素與一第二次晝素。 28 1266930 24. 如申請專利範圍第23項所述之晝素結構,其中該第一 邏輯晝素組之各該邏輯晝素之該第一次晝素係為該第 二列之該四次畫素中之中間二次晝素之其一,且該四第 二次晝素係分別位於該第二列之二邊緣位置,以及該第 一列與該第三列與該第一次畫素相鄰之位置。 25. 如申請專利範圍第24項所述之晝素結構,其中該第一 邏輯晝素組之部分各該邏輯晝素另包含有一第三次畫 素與二第四次晝素,且該第一邏輯畫素組之其他各該邏 輯畫素另包含有二第三次畫與一第四次畫素。 26. 如申請專利範圍第25項所述之畫素結構,其中該第二 邏輯畫素組之各該邏輯晝素之該第二次畫素係為該第 二列之該四次畫素中之中間二次晝素之其一,該四第一 次晝素係分別位於該二列之二邊緣位置,以及該第一列 與該第三列與該第二次畫素相鄰之位置。 27. 如申請專利範圍第26項所述之晝素結構,其中該第二 邏輯畫素組之部分各該邏輯晝素另包含有一第三次畫 素與二第四次晝素,且該第二邏輯畫素組之其他各該邏 輯畫素另包含有二第三次晝與一第四次晝素。 29 1266930 28.如申請專利範圍第27項所述之畫素結構,其中各該第一次 畫素係為五個邏輯晝素所共用,各該第二次畫素係為五個 邏輯晝素所共用,各該第三次晝素係為六個邏輯畫素所 共用,且各該第四次晝素係為六個邏輯畫素所共用。 ’ 29.如申請專利範圍第1項所述之晝素結構,其中各該邏輯 晝素包含有九次畫素,且該九次畫素以一第二方向而言 0 排列成一第一行、一第二行、一第三行、一第四行與一 . 第五行,該第一行包含有一次畫素、該第二行包含有二 次晝素、該第三行包含有三次畫素、該第四行包含有二 次晝素、該第五行包含有一次畫素,且該第一行之該次 晝素與該第五行之該次晝素係對應於該第三行中央之 該次畫素,該第二行之該二次晝素與該第四行之該二次 畫素係對應於該第三行相鄰之該二次畫素。 ❿ 30.如申請專利範圍第29項所述之畫素結構,其中該第二 行之該二次畫素與該第四行之該二次晝素之尺寸係小 於該第一行之該次畫素、該第三行之該三次晝素與該第 五行之該次畫素之尺寸。 31.如申請專利範圍第30項所述之晝素結構,其中該等邏 輯畫素區分為一第一邏組畫素組與一第二邏輯晝素 組,且該第一邏輯晝素組之各該邏輯晝素包含有一第一 30 1266930 次晝素、四第二次畫素、二第三次晝素與二第四次晝 素,而該第二邏輯晝素組之各該邏輯晝素包含有四第一 次晝素、一第二次畫素、二第三次畫素與二第四次晝素。 32. 如申請專利範圍第31項所述之畫素結構,其中該第一 邏輯晝素組之各該邏輯晝素之該第一次晝素係位於該 第三行之中央位置,該四第二次晝素係分別位於該第一 - 行、該第五行與該第三行之二端點位置,且該第二第三 . 次晝素與該二第四次晝素係位於該第二行與該第四行。 33. 如申請專利範圍第32項所述之晝素結構,其中該第二 邏輯畫素組之各該邏輯晝素之該第二次畫素係位於該 第三行之中央位置,該四第一次晝素係分別位於該第一 行、該第五行與該第三行之二端點位置,且該第二第三 次畫素與該二第四次畫素係位於該第二行與該第四行。 34. 如申請專利範圍第33項所述之畫素結構,其中各該第 一次晝素係為五個邏輯晝素所共用,各該第二次晝素係為 五個邏輯晝素所共用,各該第三次晝素係為四個邏輯晝 素所共用,且各該第四次畫素係為四個邏輯晝素所共用。 35. 如申請專利範圍第1項所述之畫素結構,其中各該邏輯 畫素包含有Η—次畫素,且該十一次畫素以一第二方向 31 1266930 而言排列成一第一行、一第二行、一第三行、一第四行 與一第五行,該第一行包含有一次晝素、該第二行包含 有三次晝素、該第三行包含有三次畫素、該第四行包含 有三次畫素、該第五行包含有一次晝素,且該第二行之 該三次素、該第三行之該三次晝素與該第四行之該三次 晝素係相互對應,而該第一行之該次畫素與該第五行之 該次晝素係對應於該第二行、該第三行與該第四行中央 ▲ 之該等次畫素。 36. 如申請專利範圍第35項所述之畫素結構,其中該第二 行之該三次晝素與該第四行之該三次畫素之尺寸係小 於該第一行之該次晝素、該第三行之該三次畫素與該第 五行之該次晝素之尺寸。 37. 如申請專利範圍第36項所述之晝素結構,其中該等邏 ⑩ 輯晝素區分為一第一邏輯畫素組與一第二邏輯畫素 組,且該第一邏輯畫素組之各該邏輯晝素包含有一第一 次晝素與四第二次晝素,而該第二邏輯晝素組之各該邏 β 輯晝素包含有四第一次晝素與一第二次晝素。 ' 38.如申請專利範圍第37項所述之晝素結構,其中該第一 邏輯晝素組之各該邏輯畫素之該第一次晝素係為該第 三行之中間位置,且該四第二次晝素係分別位於該第一 32 1266930 行、該第五行與該第三行之二邊緣位置。 39.如申請專利範圍第38項所述之晝素結構,其中該第一 邏輯晝素組之部分各該邏輯晝素另包含有四第三次畫 素與二第四次畫素,且該第一邏輯晝素組之其他各該邏 輯畫素另包含有二第三次畫與四第四次畫素。 • 40.如申請專利範圍第39項所述之晝素結構,其中該第二 邏輯晝素組之各該邏輯晝素之該第二次畫素係為該第 三行之中間位置,且該四第一次晝素係分別位於該第一 行、該第五行與該第三行之二邊緣位置。 41. 如申請專利範圍第40項所述之晝素結構,其中該第二 邏輯晝素組之部分各該邏輯晝素另包含有四第三次晝 素與二第四次晝素,且該第二邏輯晝素組之其他各該邏 ❿ 輯晝素另包含有二第三次晝與四第四次畫素。 42. 如申請專利範圍第41項所述之晝素結構,其中各該第 一次畫素係為五個邏輯晝素所共用,各該第二次晝素係 為五個邏輯畫素所共用,各該第三次晝素係為六個邏輯 ' 晝素所共用,且各該第四次晝素係為六個邏輯晝素所共 用0 33 1266930 43. 如申請專利範圍第1項所述之晝素結構,其中各該邏輯 晝素係呈一矩形,並包含有九個次畫素,且該九次晝素 以一第一方向而言排列成一第一列、一第二列與一第三 列,該第一列包含有三次畫素、該第二列包含有三次畫 素且該第三列包含有三次畫素。 44. 如申請專利範圍第43項所述之晝素結構,其中部分邏 - 輯晝素包含有四第一次畫素、一第二次畫素、二第三次 ^ 晝素與二第四次晝素,部分邏輯晝素包含有二第一次畫 素、二第二次畫素、一第三次畫素與四第四次晝素,部分邏 輯晝素包含有二第一次晝素、二第二次晝素、四第三次 晝素與一第四次晝素,且其他邏輯畫素包含有一第一次 晝素、四第二次畫素、二第三次晝素與二第四次晝素。 45. 如申請專利範圍第44項所述之晝素結構,其中各該第 • 一次畫素係為九個邏輯畫素所共用,各該第二次晝素係 為九個邏輯晝素所共用,各該第三次晝素係為九個邏輯 畫素所共用,且各該第四次晝素係為九個邏輯晝素所共 用。 ' 46.如申請專利範圍第1項所述之畫素結構,其中各該邏輯 畫素係呈一矩形,且各該邏輯畫素區分為四面積相等並 呈陣列排列之區域。 34 1266930 47.如申請專利範圍第46項所述之晝素結構,其中各該邏 輯晝素皆係由一第一次晝素、一第二次畫素、一第三次 晝素與一第四次晝素組成。 ' 48.如申請專利範圍第47項所述之畫素結構,其中各該邏 輯晝素之該第一次晝素與該第二次畫素係分別位於呈 一對角(orthogonal)方向排列之二區域,而該第三次晝素 胃 與該第四次晝素則位於呈另一對角方向排列之二區域。 49·如申請專利範圍第48項所述之晝素結構,其中各該第 一次晝素係為四個邏輯晝素所共用,各該第二次畫素係 為四個邏輯晝素所共用,各該第三次晝素係為四個邏輯 晝素所共用,且各該第四次晝素係為四個邏輯晝素所共 用。 50.如申請專利範圍第1項所述之晝素結構,其中該第一次 晝素係為一紅色(red)次晝素、該第二次晝素係為一綠色 (green)次晝素、該第三次晝素係為一藍色(blue)次晝 素,且該第四次晝素係為一青色(cyan)次晝素。 5L如申請專利範圍第1項所述之畫素結構,其中該晝素結 構係應用於一四色液晶顯示器上。 35 1266930 52.如申請專利範圍第1項所述之晝素結構,其中該晝素結 構係應用於一彩色影像擷取裝置上。1266930 X. Patent application scope: 1. A four-color pixel structure, comprising: a plurality of logic pixels, each of the logical pixels comprising a plurality of secondary pixels, forming each of the logical pixels Each of the secondary pixels includes at least a first halogen, at least a second halogen, at least a third pixel, and at least a fourth pixel, and each of the logical pixels is at least one phase The logical pixels of the neighbor share a single element. 2. The morpheme structure of claim 1, wherein each of the logical pixels has a rectangular shape, and each of the logical pixels is arranged by a first direction, one of the first morpheme, one The second pixel consists of a third element and a fourth element. 3. The pixel structure as claimed in claim 2, wherein each of the third halogens is shared by two adjacent logical elements in the first direction, and each of the fourth pixels is It is shared by two adjacent logical elements in the first direction. 4. The morpheme structure of claim 3, wherein the first pixel, the second pixel, and the third element have the same size as the fourth element. 24 1266930 5. The pixel structure of claim 3, wherein the third element is the same as the size of the fourth element, and the first element and the second time The size of the alizarin is the same. 6. The pixel structure of claim 5, wherein the size of the third pixel and the fourth pixel is greater than the size of the first element and the second element. * 7. The unitary structure as described in claim 1, wherein each of the logical pixels is a cross and consists of seven pixels. 8. The pixel structure of claim 7, wherein the logical elements are divided into a first logical pixel group and a second logical pixel group. 9. The pixel structure as claimed in claim 8 , wherein each of the first logical elements of the first logical group consists of a first pixel, a fourth second element, and a first The third halogen is composed of a fourth halogen, and the first halogen is located at the center of the cross, and the fourth second halogen is located at the four end positions of the cross. &quot; 10. The morpheme structure as described in claim 9 wherein each of the logical elements of the second logical group consists of four first morpheme, one second morpheme, one first The third halogen is composed of a fourth halogen, and the second 25 1266930 secondary element is located at the center of the cross, and the fourth first pixel is located at the fourth end of the cross. position. 1L is the halogen structure as described in claim 10, wherein each of the first elementary elements is shared by five logical pixels, and each of the second pixel elements is shared by five logical elements. Each of the third pixels is shared by two logical pixels, and each of the fourth pixels is shared by two logical pixels. ® 12. The unitary structure as described in claim 1, wherein each of the logical elements has a rectangular shape, and each of the logical pixels is divided into four regions of equal area and arranged in an array. 13. The structure of a vegan element as described in claim 12, wherein each of the logical elements consists of two first morpheme, two second morpheme, one third quinone and one fourth 昼a prime composition, the area of the first pixel and the second pixel _ is one and a half of the area of the area, and the area of the third element and the fourth element is equivalent to the area of the area . 14. The pixel structure of claim 13, wherein the third element of each of the logical elements and the fourth element are arranged in an orthogonal direction. The regions, and the two regions arranged in another diagonal direction, each include a first pixel and a second pixel. 26 1266930 15. The morpheme structure according to claim 14, wherein each of the first morpheme is shared by four logical pixels, and each of the second pixels is four logical elements. In common, each of the third pixels is shared by four logical pixels, and each of the fourth pixels is shared by four logical pixels. </ RTI> 16. The morpheme structure of claim 1, wherein the logical pixels are divided into a first logical group and a second logical group. * 17. The unitary structure as described in claim 16, wherein each logical pixel of the first set of logical elements is rectangular and consists of thirteen sub-pixels, and the second logical drawing Each of the logical pixels of the prime group is in the shape of a cross and consists of six secondary elements. 18. The morpheme structure as described in claim 17 wherein the part of the logical element of the first logical pixel group comprises four first morpheme, four dioxin secondary quinone, and a third time The morpheme and the fourth fourth morpheme, and the other logical elements of the first logical group include four first morpheme, four second morpheme, four third morpheme and one fourth Russell. 19. The morpheme structure of claim 18, wherein each of the logical pixels of the second set of logical elements comprises a first morpheme, a second morpheme, and a second temperament And the second and fourth pixels, and the area of each of the first element and each of the second pixels is one and a half of the area of each of the third element 27 1266930 and each of the fourth elements. . 20. The pixel structure of claim 19, wherein the area of each of the first element and each of the second pixels is each of the third element and each of the fourth time One and a half of the area. 21. The pixel structure as described in claim 20, wherein each of the first time is shared by five logical pixels, and each of the second pixels is five logical elements. In common, each of the third morpheme is shared by nine logical elements, and each of the fourth singular elements is shared by nine logical pixels. 22. The morpheme structure of claim 1, wherein each of the logical elements comprises eight pixels, and the eight elements are arranged in a first direction in a first column, a first a second column and a third column, the first column contains a secondary pixel, the second column contains four pixels, the third column contains φ has a secondary element, and the second column The secondary pixels and the secondary elements of the third column correspond to the secondary elements in the center of the second column. 23. The pixel structure as described in claim 22, wherein the logical pixels are divided into a first logical element group and a second logical element group, the first logical element group Each of the logical elements includes a first pixel and a fourth pixel, and each of the logic elements of the second group of logic includes four first and second pixels. . 28 1266930. The method as claimed in claim 23, wherein the first element of the logical element of the first logical element group is the fourth time of the second column One of the intermediate secondary elements in the prime, and the fourth second element is located at two edge positions of the second column, and the first column and the third column are associated with the first pixel The location of the neighbor. 25. The morpheme structure of claim 24, wherein the portion of the first set of logical elements further comprises a third pixel and a second pixel, and the Each of the other logical pixels of a logical pixel group further includes two third and fourth pixels. 26. The pixel structure of claim 25, wherein the second pixel of each logical element of the second logical pixel group is the fourth pixel of the second column One of the intermediate secondary halogens, the first first element is located at the edge position of the two columns, and the first column and the third column are adjacent to the second pixel. 27. The morpheme structure of claim 26, wherein the portion of the second logical pixel group further comprises a third pixel and a second fourth pixel, and the The other logical pixels of the second logical pixel group further include two third and fourth fourth pixels. 29 1266930 28. The pixel structure of claim 27, wherein each of the first pixels is shared by five logical elements, and each of the second pixels is five logical elements. In common, each of the third morpheme is shared by six logical pixels, and each of the fourth vowels is shared by six logical pixels. 29. The morpheme structure of claim 1, wherein each of the logical elements comprises nine pixels, and the nine pixels are arranged in a first direction in a second direction, a second row, a third row, a fourth row, and a fifth row, the first row containing a primary pixel, the second row containing a secondary pixel, and the third row containing a third pixel The fourth row includes a secondary pixel, the fifth row includes a primary pixel, and the secondary element of the first row and the secondary element of the fifth row correspond to the central portion of the third row The secondary pixel, the second pixel of the second row and the second pixel of the fourth row correspond to the second pixel adjacent to the third row. The pixel structure of claim 29, wherein the second pixel of the second row and the second pixel of the fourth row are smaller than the first row. The pixel, the third element of the third line, and the size of the pixel of the fifth line. 31. The unitary structure as described in claim 30, wherein the logical pixels are divided into a first logical group and a second logical element group, and the first logical element group Each of the logical elements includes a first 30 1266930 secondary pixels, four second pixels, two third pixels, and two fourth pixels, and each of the logical elements of the second logical group Contains four first morpheme, one second pixel, two third pixel and two fourth morpheme. 32. The pixel structure of claim 31, wherein the first element of the logical element of the first logical element group is located at a central position of the third line, the fourth The secondary halogen system is located at the end positions of the first line, the fifth line and the third line, respectively, and the second third and second fourth elements are located in the second Line with the fourth line. 33. The morpheme structure of claim 32, wherein the second pixel of each logical element of the second logical pixel group is located at a central position of the third row, the fourth a primordial system is located at the end position of the first row, the fifth row and the third row, respectively, and the second third pixel and the second fourth pixel are located in the second row The fourth line. 34. The pixel structure as described in claim 33, wherein each of the first elementary systems is shared by five logical elements, each of which is shared by five logical elements. Each of the third pixels is shared by four logical elements, and each of the fourth pixels is shared by four logical elements. 35. The pixel structure as claimed in claim 1, wherein each of the logical pixels comprises a Η-subpixel, and the eleven pixels are arranged in a first direction in a second direction 31 1266930. a row, a second row, a third row, a fourth row, and a fifth row, the first row containing a single pixel, the second row containing three pixels, and the third row containing three pixels The fourth line includes three pixels, the fifth line includes a single element, and the third line of the third element, the third line of the third element and the fourth line of the third element Corresponding to each other, the sub-pixel of the first row and the sub-pixel of the fifth row correspond to the sub-pixels of the second row, the third row and the center ▲ of the fourth row. 36. The pixel structure of claim 35, wherein the third pixel of the second row and the third pixel of the fourth row are smaller than the minor element of the first row, The third pixel of the third row and the size of the second pixel of the fifth row. 37. The morpheme structure as described in claim 36, wherein the morpheme is divided into a first logical pixel group and a second logical pixel group, and the first logical pixel group Each of the logical elements includes a first time element and a fourth time element, and the second group of the second group of logic elements includes four first time elements and a second time element Russell. 38. The unitary structure as described in claim 37, wherein the first element of the logical pixel of the first logical element group is an intermediate position of the third line, and the The fourth second element is located at the first 32 1266930 row, the fifth row and the third row. 39. The unitary structure as described in claim 38, wherein the portion of the first logical element group further comprises four third pixels and two fourth pixels, and the The other logical pixels of the first logical element group additionally include two third and fourth fourth pixels. 40. The unitary structure as described in claim 39, wherein the second pixel of each of the logical elements of the second logical element group is an intermediate position of the third line, and the The first first element is located at the edge of the first row, the fifth row and the third row, respectively. 41. The morpheme structure as described in claim 40, wherein the portion of the second logical element group further comprises four third and second fourth elements, and the The other logical elements of the second logical element group further include two third and fourth fourth pixels. 42. The patent structure as described in claim 41, wherein each of the first pixels is shared by five logical elements, and each of the second elements is shared by five logical pixels. Each of the third sputum systems is shared by six logical enthalpies, and each of the fourth morpheme is shared by six logical elements. 0 33 1266930 43. As described in claim 1 a unitary structure, wherein each of the logical elements has a rectangular shape and includes nine sub-pixels, and the nine pixels are arranged in a first direction, a first column, a second column and a first In the third column, the first column contains three pixels, the second column contains three pixels, and the third column contains three pixels. 44. If the structure of the morpheme mentioned in item 43 of the patent application is applied, some of the singular elements include four first pixels, one second pixel, two third times, and two fourth. The secondary morpheme contains two first pixels, two second pixels, a third pixel, and four fourth pixels. The partial logic element contains two first pixels. Second, the second time, the fourth and the fourth, and the other logical elements, including the first element, the second, the second, and the third. The fourth time. 45. If the structure of the element is as described in item 44 of the patent application, each of the first pixels is shared by nine logical pixels, and each of the second elements is shared by nine logical elements. Each of the third morpheme is shared by nine logical pixels, and each of the fourth morpheme is shared by nine logical elements. 46. The pixel structure of claim 1, wherein each of the logical pixels has a rectangular shape, and each of the logical pixels is divided into four regions of equal area and arranged in an array. 34 1266930 47. The morpheme structure of claim 46, wherein each of the logical elements is a first morpheme, a second morpheme, a third morpheme and a first Four times the composition of the elements. 48. The pixel structure of claim 47, wherein the first pixel of the logical element and the second pixel are respectively arranged in an orthogonal direction. The second region, and the third halogen stomach and the fourth halogen are located in two regions arranged in another diagonal direction. 49. The morpheme structure as described in claim 48, wherein each of the first morpheme is shared by four logical elements, each of which is shared by four logical elements. Each of the third elements is shared by four logical elements, and each of the fourth elements is shared by four logical elements. 50. The alizarin structure as claimed in claim 1, wherein the first alizarin system is a red (red) scorpion, and the second auxin is a green (green) The third element is a blue (blue) scorpion, and the fourth element is a cyan scorpion. 5L is the pixel structure as described in claim 1, wherein the pixel structure is applied to a four-color liquid crystal display. 35. The method of claim 12, wherein the elementary structure is applied to a color image capturing device. 十一、圖式:XI. Schema: 3636
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