1283379 九、發明說明： 【發明所屬之技術領域】 本發明係有關於一種四色全彩化有機電激發光 . 顯示裝置及其製作方法，不僅可有效提高各色光源之穿透 率及色彩飽和度，又可降低耗電量及提高生產良率者。 【先前技術】 # 近年來進行有機電激發光顯示裝置（OLED)相關的研 究及發展，如何達到具有全彩顯示效果的技術往往是該有 機電激發顯示裝置發展成功與否的關鍵，其達到全彩顯示 功能之最常見的製作方法有以下兩種： 1. 分別將可產生紅(R)、綠（G)、藍（B)三原色之有機電激發 光元件獨立設置（Side by Side)，並將此三種色光以適當 比例混合搭配而產生全彩的顯示效果。然而，在製作過 程當中，由於紅、綠、藍三種發光材料必須分開蒸鍍。 • 每個像素的遮罩開口僅僅只有十微米，因此將會提高遮 罩對位時的困難度。 2. 設置有至少一可產生白色光源之有機電激發光元件，搭 配使用技術純熟之彩色濾光片。藉由彩色濾光片的使用 以達到過濾白色光源之目的，並因此產生全彩的顯示效 果。該設置方法與紅、綠、藍發光材料分開蒸鍍的方式 相較之下較為簡潔。然而，由此一方法所製作而成之有 機電激發光裝置所產生之各色光源對彩色濾光片之穿 1283379 透率不佳，容易造成各色光之色彩飽和度不佳、顯示亮 度不足及電源的浪費等問題的產生。 將可產生三原色之有機電激發光顯示元件獨立設置 之構造，如第1圖所示。主要係於一透明基板11表面分 別設置有一第一有機發光單元231、第二有機發光單元 233及第三有機發光單元235。其中，各有機發光單元 23所產生之第一光源S1、第二光源S2及第三光源S3 係分別為一紅色光源、綠色光源及藍色光源，藉由適當 比例之各色光源的混合搭配可達到該有機電激發光顯示 裝置2 0 0全彩化顯示之目的。 於透明基板11之上方設置該有機發光單元23時， 需進行一遮罩對位及蒸鍍之程序。其中，遮罩對位若出 現誤差，將會直接影響該有機發光單元23之設置。例 如，該第二有機發光單元233之遮罩對位不精確，使得 該第二有機發光單元233之設置位置出現偏移。並於原 本該設置有第二有機發光單元233的位置上產生一誤差 區域239。由於，該誤差區域239上並未設有第二有機 發光單元233，因此該誤差區域239將不會產生第二光 派S2。致使該第二有機發光單元233之作用面積由原本 A1減少為A2，而影響該第二光源S2之發光亮度及該顯 示裝置之顯示品質。 【發明内容】 為此，如何針對上述習用技術所遭遇的問題，設計出 7 1283379 一種新穎之全彩有機電激發光顯示裝置及其製作方法，針 對遮罩對位精準度的問題提出有效的解決方法，可達到有 激電機發光顯示裝置之穿透率增加與色彩飽和度提升，此 即為本發明之發明重點。 本發明之主要目的，在於提供一種四色全彩化有機電 激發光顯示裝置，其中藉由第四有機發光單元之設置，可 於其他有機發光單元之遮罩對位發生誤差時，仍可維持該 有機電激發光顳示裝置之顯示效果，並有效提高該有機電 激發光顯示裝置之產品良率者。 本發明之次要目的，在於提供一種四色全彩化有機電 激發光顯示裝置，其中藉由第一有機發光單元、第二有機 發光單元、第三有機發光單元及第四有機發光單元之設 置，可有效提高該有機電激發光顯示裝置之各色光源的穿 透率及色彩飽和度。 本發明之又一目的，在於提供一種四色全彩化有機電 激發光顯示裝置，其中藉由一白色次畫素的設置可有效提 高該有機電激發光顯示裝置之顯示色階。 本發明之又一目的，在於提供一種四色全彩化有機電 激發光顯示裝置之製作方法，不僅可降低遮罩對位時對準 確度的要求，又可有效提高該顯示裝置之光源穿透率及色 彩飽和度。 本發明之又一目的，在於提供一種四色全彩化有機電 激發光顯示裝置之製作方法，其中藉由發光效率的提昇可 有效解決大型顯示面板所面臨之耗電問題，並延長顯示面 8 1283379 板之使用壽命。 口此為達成上述目的，本發明提供一種四色全彩化 有機電激發光顯示裝置，其主要構造係包括有··一彩色濾 • 光片，主要係於一透明基板之表面設有至少一第一彩色光 • ，、至少一第二彩色光阻、至少一第三彩色光阻及至少一 第四彩色光阻；一第一電極，設置於彩色濾光片之表面； 一有機發光單元，包括有至少一第一有機發光單元、至少 _ ^第二有機發光單元、至少一第三有機發光單元及至少一 第四有機發光單元，其中第一有機發光單元、第二有機發 光單元及第三有機發光單元分別設置於彩色濾光片之第一 彩色光阻、第二彩色光阻及第三彩色光阻之垂直延伸位 置，而第四有機發光單元則設置於彩色濾光片之第一彩色 光阻、第二彩色光阻、第三彩色光阻及第四彩色光阻之垂 直延伸位置；及一第二電極，設置於該有機發光單元上。 又’為達上述目的，本發明尚提供一種四色全彩化有 φ 機電激發光顯示裝置之製作方法，其主要係包括有以下步 驟··於一透明基板之表面設置至少一第一彩色光阻、至少 一第二彩色光阻、至少一第三彩色光阻及至少一第四彩色 光阻’依此成為一彩色濾光片；形成有至少一第一電極於 該彩色濾光片上方，·放置一第一遮罩於彩色濾光片之第二 并〉色光阻、第二彩色光阻及第四彩色光阻之垂直延伸位置 ’以一第一洛鍵源進行一第一有機發光單元之蒸鑛程序； 放置一第一遮罩於彩色濾、光片之第一彩色光阻、第三彩色 光阻及第四彩色光阻之垂直延伸位置；以一第二蒸錢源進 9 1283379 行一第二有機發光單元之蒸鍍程序；放置一第三遮罩於彩 色濾光片之第一彩色光阻、第二彩色光阻及第四彩色光阻 之垂直延伸位置；以一第三蒸鍍源進行一第三有機發光單 元之蒸鑛程序；以一第四蒸鑛源並配合一全開式遮罩的使 用，於彩色濾光片之第一彩色光阻、第二彩色光阻、第三 彩色光阻及第四彩色光阻之垂直延伸位置，進行一第四有 機發光單元之蒸鍍程序；及形成有至少一第二電極。 【實施方式】 茲為使貴審查委員對本發明之特徵、結構及所達成 之功效有進一步之瞭解與認識，謹佐以較佳之實施圖例及 配合詳細之說明，說明如後： 首先，請參閱第2圖及第2 A圖，係分別為本發明四 色全彩化有機電激發光顯示裝置一較佳實施例之剖面示 意圖。如圖所示，本發明有機電激發光顯示裝置400主要 係於一彩色濾光片30上設有至少一有機電激發光元件 40。其中，該彩色濾光片30係於一透明基板31之表面設 有至少一黑色矩陣33(Black Matrix)。並於黑色矩陣33之 部分表面及該透明基板31上未設有黑色矩陣33處增設有 一具有光色過濾功能之彩色濾光層35(或稱彩色光阻）。該 彩色濾光層35係包括有一第一彩色光阻351(例如：R)、 第二彩色光阻353(例如：G)、第三彩色光阻355(例如： B)及第四彩色光阻357(係可為一透光部或鏤空部）。又， 於黑色矩陣33及彩色濾光層35上方覆蓋有一平坦障蔽單 1283379 元37，其可為一平坦化層（Over Coat)、一障蔽層（Barrier Layer)或兩者皆是。 於彩色濾光片30之平坦障蔽單元37上設置有至少一 有機電激發光元件40之第一電極41。並於該第一電極41 上依序設有一有機發光單元43及一第二電極45。該有機 發光單元43係包括有至少一第一有機發光單元431、第二 有機發光單元433、第三有機發光單元435及第四有機發 光單元437。 有機電激發光顯示裝置400中，每一個單一畫素(pixel) 内係包括有四個次畫素（sub-pixel)。並於每一次畫素上分 別設有第一彩色光阻351、第二彩色光阻353、第三彩色 光阻355及第四彩色光阻357。而該第一有機發光單元 431、第二有機發光單元433及第三有機發光單元435亦 分別設置於該晝素内之任意一個次畫素的上方。而該第四 有機發光單元437則設置於該晝素内之四個次畫素的上 方。例如，該第一有機發光單元431、第二有機發光單元 433及第三有機發光單元435係分別設置於第一彩色光阻 351、第二彩色光阻353及第三彩色光阻355之垂直延伸 位置，並與第一電極41接觸，而第四有機發光單元437 則設置於第一彩色光阻351、第二彩色光阻353、第三彩 色光阻355及第四彩色光阻357之垂直延伸位置。 層疊之第一有機發光單元431及第四有機發光單元 437所產生之第一光源S1將可穿透該第一彩色光阻351， 並過濾產生一第一色光L1。層疊之第二有機發光單元433 11 1283379 ”四有機發光單兀437所產生之第二光源S2將可穿透 該第二彩色光阻353，並過滤產生-第二色光L2。層疊之 第^有機發光單元435及第四有機發光單元437所產生之 ，三光源S3將可穿透該第三彩色光阻355，並過濾產生一 第三色光L3。該第四有機發光單元437 以將可穿透該第㈣色先阻357，並過濾產生^四 L4 〇 於本發明一實施例中，該第一有機發光單元431、第 二有機發光單元433 &第三有機發光單元435彳分別產生 a。紅色光源、一綠色光源及一藍色光源，而第四有機發光 早70 4 3 7則可產生UU。此時，該第-彩色光阻 351、第二彩色光阻353及第三彩色光阻355將分別為一 紅色光阻R(351)、綠色光阻G(353)及藍色光阻B(355)， 第四彩色光阻357為一透光部或一鏤空部。經由該彩色濾 光層35過濾產生之第一色光u、第二色光L2、第三色光 L3及第四色光L4將分別為—紅色光、綠色光、藍色光及 白色光。其中，藉由該第四色光L4(白色光）與其它色光之 混合可提高該有機電激發光顯示裝置4〇〇之顯示色階。 ¥色濾光層35係為一僅容許特定波長範圍的光源通 過之裝置，並藉此達到光色過濾之目的。例如，該第一彩 色光阻351僅容許波長範圍在64〇nm〜77〇nm之間的光源 通過，當一白色光源（s)穿透該第一彩色光阻351後，第一 衫色光阻351會將波長範圍在64〇nm〜77〇nm以外的其它 色光源加以過濾阻隔。使得通過該第一彩色光阻351之色 12 1283379 : 光波長範圍介於640nm〜770nm之間，也就是肉眼所能减 受之紅色光源，藉此以達到光色過濾之目的。然而，在光 色過濾、的同時，波長在640nm〜770nm以外的色光源將合 被第一彩色光阻351過濾阻隔，將使得光源穿透率只剩 25%至35%，相對地將會降低其顯示亮度。 反之，該第一彩色光阻351所能容許色光通過之波長 範圍係如前述所言是在640nm〜770nm(紅色光阻）。則該第 一彩色光阻351對一紅色光源（例：波長分佈範圍係為 ’ 650nm〜760nm)而言將具有一良好的穿透率，例如在本發 明之實施例中，其光源穿透率即可達到70%以上。 又’於本發明實施例所述之第一有機發光單元431、 第二有機發光單元433及第三有機發光單元435與該第四 有機發光單元437之設置次序係可加以改變。例如，先於 第一電極41上設置有該第四有機發光單元437,而後再於 第四有機發光單元437上方，分別設置有該第一有機發光 k 單元431、第二有機發光單元433及第三有機發光單元 Ψ 435。 藉由該第四有機發光單元437之設置，可克服設置第 一有發光單元431、第二有機發光單元433及第三有機發 光單元435時，因遮罩對位的誤差所造成的良率損失。如 第2 A圖所示，當第二有機發光單元433於遮罩對位程序 進行時有偏移之情形發生。使得在第二彩色光阻353之垂 直延伸位置上的部分區域，形成一未設置有該第二有機發 光單元433之誤差區域439。又，由於該第二彩色光阻353 13 1283379 之垂直延伸位置上尚設置有該第四有機發光單元437，而 使得該偏移之誤差區域439上將會存在有部分之第四有機 發光單7G 437。當第四有機發光單元437所產生之第四光 源S4係為一白色光源時，該第四光源將會經由誃 極41穿透第二彩色光阻353並過濾產生相同的^二色光 L2。 因此’藉由該第四有機發光單元437之設置，將可克 服设置泫第一有機發光單元431、第二有機發光單元433 及第三有機發光單元435時，因遮罩對位的誤差所造成的 良率損失。即便該第一有機發光單元431及/或第二有機發 光單元433及/或第三有機發光單元435於遮罩對位時有^ 差’亦不會影響該有機電激發光顯示裝置400之顯示^ 質’將有利於產品良率之提昇。 再者，請參閱第3圖，係為本發明另一實施例之剖面 示意圖。如圖所示，本發明有機電激發光顯示裝置4〇1， 主要係於一彩色濾光片30上方設置有該第一有機發光單 元431、第二有機發光單元433、第三有機發光單元435 及第四有機發光單元437。其中，該第一有機發光單元 431、第二有機發光單元433、第三有機發光單元435及第 四有機發光單元437係為一可經由電流訊號導通而產生光 源之發光單元。其内部係可分別選擇包括有至少一電洞注 入層 432(Hole Injection Layer)、至少一電洞傳輸層 434(Hole Transport Layer)、至少一有機發光層（Emitting Layer)、至少一電子傳輸層 436(Electron Transport Layer)、 1283379 矣少〆電子注入層438(Electron Injecti〇n Layer)或上述各 元件組合式之其中之一。 又，該第一有機發光單元431、第二有機發光單元 433、第三有機發光單元435及第四有機發光單元437，係 選擇為一單層型有機發光單元或一複數層疊設型有機發 光單元。例如’該第一有機發光單元431、第二有機發光 單元433及第三有機發光單元435係為單層型有機發光單 元。其内部係分別包括有該第一有機發光層4311、第二有 機發光層4331及第三有機發光層4351。該第四有機發光 單元437係可為一複數層疊設型有機發光單元，其内部之 第四有機發光層4371係為一層疊之第五有機發光層4373 及第六有機發光層4375。 接續，請參閱第4圖，係為本發明又一實施例之剔面 禾意圖。如圖所示，於本發明實施例中，係於一基板32 之上表面設置有一有機電激發光元件40。在未設有該有機 電激發光元件40之基板32的部分表面則設有一封裝盏板 於該封裝蓋板39内部包覆有該有機電激發光元件40’ 藉，以保護該有機電激發光元件40並防止外界之空氣及 水乳進入。該封裝蓋板39之底層係設有一第一彩色光阻 51 第二彩色光阻353、一第三彩色光阻355及〆第四 矽，光阻357。藉此以過濾該有機電激發光元件40所產生 ，，一光源S1、第二光源S2、第三光源S3及第四光源S4。 。亥第二電極45係可選擇由一具透光導電特性之材質所製 成，藉此該第一光源S1、第二光源S2、第三光源S3及第 15 1283379 四光源S 4將可穿透該第二電極4 5 ^並達到該有機電激發 光顯示裝置403頂部發光（Top-Emission)之目的。 於本發明實施例中，當有機發光單元43於遮罩對位 時與上述之第2 A圖所示實施例一樣發生遮罩對位之誤 差時。同樣可藉由該第四有機發光單元437之設置，而有 效克服該該遮罩對位誤差所衍生的其他問題。 該具有彩色濾光層35之封裝蓋板39亦可設置於一彩 色濾光片30之透明基板31之部分上表面（如第2圖所 示）。並藉此以達到該四色全彩化有機電激發光顯示裝置雙 向發光之目的。 另外，請參閱第5圖，係為本發明又一實施例之剖面 示意圖。如圖所示，本發明有機電激發光顯示裝置601係 設計為一主動式（Active Matrix)有機電激發光顯示裝置。主 要係於一透明基板51上設置有至少一薄膜電晶體 53(TFT)，並於該透明基板51及該薄膜電晶體53之部分上 表面覆蓋有至少一平坦保護層54。該平坦保護層54内部 係設置有至少一第一彩色光阻551、第二彩色光阻553、第 三彩色光阻555及第四彩色光阻557。而該平坦保護層54 上則設置有至少一第一電極61，該第一電極61係分別與 相對應之薄膜電晶體53電性相連接。藉此以形成一 COA(color filter on array)之主動式有機電激發光顯示裝 置。 於第一彩色光阻551及第二彩色光阻553垂直延伸位 置之第一電極61上依序設有一第一有機發光單元631及 1283379 一第二有機發光單元633。並於該第一彩色光阻551、第 二彩色光阻553、第三彩色光阻555及第四彩色光阻557 之垂直延伸位置上設置有一第四有機發光單元637。 該第四有機發光單元637係可為一複數層疊型有機發 光單元。例如，包括有一弟五有機發光層6373及一第六 有機發光層6375。該第五有機發光層6373係為一可產生 藍色光源之有機發光層’而該第六有機發光層6375則選 擇為一可產生橙色光源、黃色光源或紅色光源之有機發光 f 層。藉由第五有機發光層6373及第六有機發光層6375適 當之搭配，將使得該第四有機發光單元637所產生之第四 光源S4為一白色光源。該白色光源在穿透第三彩色光阻 555及第四彩色光阻557後，將分別過濾產生一第三色光 L3及一第四色光L4。 又，請參閱第6圖，係為本發明又一實施例之剖面示 意圖。如圖所示，於本發明實施例中，該有機電激發光顯 _ 示裝置603，係於該一彩色滤光片50上依序設有該薄膜電 曰曰體53及平坦保護層54 ’措此以形成一 AOC(array on color filter)之結構。 該有機發光單元63係包含有：第一有機發光單元 631、第二有機發光單元633、第三有機發光單元635及第 四有機發光單元637。該第一有機發光單元631、第二有機 發光單元633、第三有機發光單元635或第四有機發光單 元637可選擇由至少一主發光體(Host Emitter ; H)中摻雜 有至少一摻雜物（Dopant ; D)之摻雜型有機發光單元，同樣 17 1283379 可達到產生各色光源之目的。 每一畫素内係包括有四個次畫素，而第一彩色光阻 551、第二彩色光阻553、第三彩色光阻555及第四彩色光 阻557係分別位於任一次畫素上。該第一彩色光阻551、 苐一彩色光阻553、第三彩色光阻555及第四彩色光阻557 之設置位置係可加以改變。當第一彩色光阻551、第二彩 色光阻553、第二彩色光阻555及第四彩色光阻557之設 置位置改變的同時，該第一有機發光單元631、第二有機 發光單元633及第三有機發光單元635之設置位置亦將隨 之改變。 又，％參閱第7圖，係為本發明又一實施例之俯視圖 本發明所述實施例與上述實施例相異之處在於，該單一: 素中之第一彩色光阻85卜第二彩色光阻853、第三彩色; 阻855及第四彩色光阻857的設置位置並非以—直線方〕 排列。例如，該單—畫素内之彩色光阻係以-矩陣方式4 列（田字型）’如第7圖所示，藉此以提高各色光之混和去 勻度。而當各彩色光阻之設置位置改變的同時，該第一^ 機了431、第二有機發光單元432、第三有機發光為 π π ®有機發光單元434之設置位置亦隨之改變。 :方中該彩色光阻排列方式不侷限於直線或楚 =式亦可為菱形或其他各式各樣 所述之排列方式係可應用於上述之任一實 最後，請參閱第8 A圓至第δ D圖，係分別為本發明 1283379 有機電激發光顯示裝置於蒸鍍程序之剖面示意圖。如圖所 示，本發明有機電激發光顯示裝置400之製作步驟，主要 係於第一電極41設置完成後，透過一蒸鍍之方式於第一電 極41上設置有至少一電洞注入層432及/或至少一電洞傳 輸層434。再於電洞傳輸層434上設置有至少一第一有機 發光單元431之第一有機發光層43U、至少一第二有機發 光單元433之第二有機發光層4331及至少一第三有機發光 單元435之第三有機發光層4351。 > 如第8 A圖所示，將一第一遮罩481放置於第二彩色 光阻353、第三彩色光阻355及第四彩色光阻357之垂直 延伸位置。以一第一蒸鍍源471進行一第一有機發光單元 431之第一有機發光層4311的蒸鍍程序。於第一彩色光阻 351之垂直延伸位置之第一電極41上形成第一有機發光層 4311。其中，該第一蒸鍍源471之第一有機發光材料461 係可依據第一彩色光阻351的顏色而進行選擇。例如，當 第一彩色光阻351係為一紅色光阻時，該第一有機發光材 料461係選擇為一可產生紅色光源之有機發光材料。 如第8 B圖所示，將一第二遮罩483放置於第一彩色 光阻351、第三彩色光阻355及第四彩色光阻357之垂直 延伸位置。再以一第二蒸鍍源473進行一第二有機發光單 元433之第二有機發光層4331的蒸鍍程序。於第二彩色 光阻353之垂直延伸位置之第一電極41上形成第二有機 發光層4331。其中，該第二蒸鍍源473之第二有機發光材 料463係可依據第二彩色光阻353的顏色而進行選擇。例 1283379 如，當第二彩色光阻353係為一綠色光阻，該第二有機發 光材料463係選擇為一可產生綠色光源之有機發光材料。 如第8 C圖所示，將一第三遮罩485放置於第一彩色 光阻351、第二彩色光阻353及第四彩色光阻357之垂直 延伸位置。再以一第三蒸鍍源475進行一第三有機發光單 元435之第三有機發光層4351的蒸鍍程序。於第三彩色 光阻355之垂直延伸位置之第一電極41上形成第三有機 發光層4351。其中，該第三蒸鍍源475之第三有機發光材 料465係可依據第三彩色光阻355的不同而進行選擇。例 如，當第三彩色光阻355係為一藍色光阻，該第三有機發 光材料465係選擇為一可產生藍色光源之有機發光材料。 如第8 D圖所示，當第一有機發光層4311、第二有機 發光層4331及第三有機發光層4351設置完成之後。係可 以一第四蒸鍍源477並配合一全開式遮罩487的使用，進 行一第四有機發光單元437之第四有機發光層4371的蒸 鍍程序。於第一彩色光阻351、第二彩色光阻351、第三 彩色光阻355及第四彩色光阻357之垂直延伸位置形成第 四有機發光層4371。有部分之第四有機發光層4371係位 於第一有機發光層4311、第二有機發光層4331及第三有 機發光層4351之上表面。其中，該第四蒸鍍源477之第 四有機發光材料467係選擇為一可產生白色光源之有機發 光材料。 於實際應用時，該第一有機發光層4311、第二有機發 光層4331、第三有機發光層4351及第四有機發光層4371 20 1283379 之設置次序係可加以改變。例如，可先進行第四有機發光 層4371之設置，再進行第一有機發光層4311、第二有機 發光層4331及第三有機發光層4351的設置。又，該第一 有機發光層4311、第二有機發光層4331及第三有機發光 層4351之設置次序亦可加以改變。 該彩色濾光片30之第一彩色光阻351、第二彩色光阻 353、第三彩色光阻355及第四彩色光阻357之設置位置 係可加以改變。並於該第一彩色光阻351、第二彩色光阻 353、第三彩色光阻355及第四彩色光阻357之位置更改 的同時，該第一有機發光層4311、第二有機發光層4331 及第三有機發光層4351的設置位置亦隨之更改。 當第一有機發光層4311、第二有機發光層4331、第 三有機發光層4351及第四有機發光層4371設置完成之 後，可繼續有機電激發光顯示裝置400之後續製程。例如， 於第四有機發光單元437之第四有機發光層4371上，以 蒸鍍之方式依序形成至少一電子傳輸層436及/或至少一 電子注入層438與第二電極45,藉此以完成該有機電激發 光顯示裝置400之設置。 於上述之製作流程中，該有機發光單元43之蒸鍍相 較於習用以紅（R)、綠（G)、藍（B)三原色之有機電激發光元 件獨立設置，以形成有機電激發光顯示裝置的設置方式而 言，確實可克服於遮罩對位程序中因準確度誤差所造成的 良率損失，並藉此以達到全彩有機電激發光顯示裝置400 產品良率的提昇。 21 1283379 當然，上述製程步驟同樣可適用於主動式（Active Matrix)有機電激發光顯示裝置中，第一有機發光單元 (631)、第二有機發光單元（633)、第三有機發光單元（635) 及第四有機發光單元（637)同樣可依序形成，在此不再贅 述。 綜上所述，當知本發明係有關於一種全彩有機電激發 光顯示裝置及其製作方法，不僅可有效提高各光源之穿透 率及色彩飽和度，又可克服於遮罩對位程序中因準確度誤 差所造成的良率損失並提高生產良率者。故本發明實為一 富有新穎性、進步性，及可供產業利用功效者，應符合專 利申請要件無疑，爰依法提請發明專利申請，懇請貴審 查委員早曰賜予本發明專利，實感德便。 以上所述者，僅為本發明之一較佳實施例而已，並非 用來限定本發明實施之範圍，即凡依本發明申請專利範圍 所述之形狀、構造、特徵及精神所為之均等變化與修飾， 均應包括於本發明之申請專利範圍内。 【圖式簡單說明】 第1圖：係為習用有機電激發光顯示裝置之剖面示意圖。 第2圖：係為本發明全彩有機電激發光顯示裝置一較佳實 施例之剖面示意圖。 第2 A圖：係為本發明上述實施例之剖面示意圖。 第3圖：係為本發明另一實施例之剖面示意圖。 第4圖：係為本發明又一實施例之剖面示意圖。 22 1283379 第5圖：係為本發明主動式有機電激發光顯示裝置之剖面 示意圖。 第6圖··係為本發明又一實施例之剖面示意圖。 第7圖：係為本發明又一實施例之俯視圖。 第8A圖至第8D圖：係分別為本發明被動式有機電激發 光顯示裝置於各製程步驟之剖面示意圖。1283379 IX. Description of the Invention: [Technical Field] The present invention relates to a four-color full-color organic electroluminescence. The display device and the manufacturing method thereof can not only effectively improve the transmittance and color saturation of each color light source. It can also reduce power consumption and increase production yield. [Prior Art] # In recent years, research and development related to organic electroluminescent display devices (OLEDs), how to achieve full color display technology is often the key to the success of the organic electro-active display device, which reaches the full The most common methods for producing color display functions are as follows: 1. Separately set the organic electroluminescent elements that can produce red (R), green (G), and blue (B) colors (Side by Side), and The three color lights are mixed and matched in an appropriate ratio to produce a full-color display effect. However, during the production process, the three luminescent materials of red, green and blue must be separately evaporated. • The mask opening for each pixel is only ten microns, which will increase the difficulty of mask alignment. 2. Equipped with at least one organic electroluminescent element that produces a white light source, using a color filter that is technically sophisticated. By using a color filter to achieve the purpose of filtering a white light source, and thus producing a full color display effect. The setting method is relatively simple compared with the method of separately evaporating red, green and blue luminescent materials. However, the light source of each color light source produced by the organic electroluminescence device manufactured by the method has poor transmittance to the color filter of 1283379, and the color saturation of each color light is not good, the display brightness is insufficient, and the power source is insufficient. The generation of problems such as waste. A configuration in which an organic electroluminescence display element capable of generating three primary colors is independently provided is shown in Fig. 1. A first organic light emitting unit 231, a second organic light emitting unit 233, and a third organic light emitting unit 235 are disposed on the surface of a transparent substrate 11, respectively. The first light source S1, the second light source S2, and the third light source S3 generated by each of the organic light-emitting units 23 are respectively a red light source, a green light source, and a blue light source, which can be achieved by mixing and matching the light sources of appropriate colors. The organic electroluminescent display device has the purpose of displaying a full color display. When the organic light-emitting unit 23 is disposed above the transparent substrate 11, a mask alignment and vapor deposition process is required. If the error occurs in the mask alignment, the setting of the organic light emitting unit 23 will be directly affected. For example, the mask alignment of the second organic light emitting unit 233 is inaccurate such that the set position of the second organic light emitting unit 233 is shifted. An error region 239 is generated at a position where the second organic light emitting unit 233 is originally disposed. Since the second organic light emitting unit 233 is not provided on the error region 239, the error region 239 will not generate the second light level S2. The area of the second organic light-emitting unit 233 is reduced from the original A1 to A2, which affects the luminance of the second light source S2 and the display quality of the display device. SUMMARY OF THE INVENTION To this end, how to solve the problems encountered by the above-mentioned conventional techniques, a novel full-color organic electroluminescent display device and a manufacturing method thereof are designed, and an effective solution to the problem of mask alignment accuracy is proposed. The method can achieve the increase of the transmittance and the increase of the color saturation of the excitation motor light-emitting display device, which is the focus of the invention. The main object of the present invention is to provide a four-color full-color organic electroluminescence display device, wherein the arrangement of the fourth organic light-emitting unit can maintain the error of the mask alignment of other organic light-emitting units. The organic electroluminescence excitation light display device has a display effect and effectively improves the product yield of the organic electroluminescence display device. A secondary object of the present invention is to provide a four-color full-color organic electroluminescent display device, wherein the first organic light-emitting unit, the second organic light-emitting unit, the third organic light-emitting unit, and the fourth organic light-emitting unit are disposed. The transmittance and color saturation of the respective color light sources of the organic electroluminescence display device can be effectively improved. Another object of the present invention is to provide a four-color full-color organic electroluminescence display device in which the display gradation of the organic electroluminescent display device can be effectively improved by the arrangement of a white sub-pixel. Another object of the present invention is to provide a method for fabricating a four-color full-color organic electroluminescence display device, which not only reduces the accuracy requirement of the mask alignment but also effectively improves the light source penetration of the display device. Rate and color saturation. Another object of the present invention is to provide a method for fabricating a four-color full-color organic electroluminescence display device, wherein the power consumption problem can be effectively solved by increasing the luminous efficiency, and the display surface 8 is extended. 1283379 The service life of the board. In order to achieve the above object, the present invention provides a four-color full-color organic electroluminescent display device, the main structure of which comprises a color filter and a light sheet, which are mainly provided on the surface of a transparent substrate. a first color light, at least a second color photoresist, at least a third color photoresist, and at least a fourth color photoresist; a first electrode disposed on a surface of the color filter; an organic light emitting unit, The method includes a first organic light emitting unit, at least a second organic light emitting unit, at least one third organic light emitting unit, and at least a fourth organic light emitting unit, wherein the first organic light emitting unit, the second organic light emitting unit, and the third The organic light emitting units are respectively disposed at vertical extension positions of the first color photoresist, the second color photoresist, and the third color photoresist of the color filter, and the fourth organic light emitting unit is disposed in the first color of the color filter a vertical extension position of the photoresist, the second color photoresist, the third color photoresist, and the fourth color photoresist; and a second electrode disposed on the organic light emitting unit. In order to achieve the above object, the present invention further provides a method for fabricating a four-color full-color φ electromechanical excitation light display device, which mainly includes the following steps: · providing at least one first colored light on a surface of a transparent substrate The resistor, the at least one second color photoresist, the at least one third color photoresist, and the at least one fourth color photoresist are respectively formed as a color filter; and at least one first electrode is formed over the color filter, · placing a first mask on the second of the color filter and > the color photoresist, the second color photoresist, and the vertical extension of the fourth color photoresist - performing a first organic light emitting unit with a first key source a steaming process; placing a first mask on the color filter, the first color photoresist of the light sheet, the third color photoresist, and the vertical extension position of the fourth color photoresist; and a second steam source into the 9 1283379 Performing an evaporation process of a second organic light emitting unit; placing a third mask on the first color resist of the color filter, the second color resist, and the fourth color resist in a vertical extension position; The vapor deposition source performs a third organic light emission a steaming process of the unit; using a fourth steam source and a full-open mask for the first color photoresist, the second color photoresist, the third color photoresist, and the fourth color of the color filter a vertical extending position of the photoresist, performing an evaporation process of a fourth organic light emitting unit; and forming at least one second electrode. [Embodiment] In order to give your reviewers a better understanding and understanding of the features, structure and efficacies of the present invention, please refer to the better implementation of the legend and the detailed description, as explained below: First, please refer to 2 and 2A are schematic cross-sectional views showing a preferred embodiment of the four-color full-color organic electroluminescent display device of the present invention. As shown in the figure, the organic electroluminescent device 400 of the present invention is mainly provided with a plurality of organic electroluminescent elements 40 on a color filter 30. The color filter 30 is provided with at least one black matrix 33 on the surface of a transparent substrate 31. A color filter layer 35 (or a color photoresist) having a light color filtering function is added to a portion of the surface of the black matrix 33 and the black matrix 33 on the transparent substrate 31. The color filter layer 35 includes a first color photoresist 351 (for example: R), a second color photoresist 353 (for example, G), a third color photoresist 355 (for example, B), and a fourth color photoresist. 357 (can be a light transmission part or hollow part). Further, a black mask 33 and a color filter layer 35 are overlaid with a flat barrier sheet 1283379, which may be an over Coat, a barrier layer or both. The first electrode 41 of the at least one organic electroluminescent element 40 is disposed on the flat barrier unit 37 of the color filter 30. An organic light emitting unit 43 and a second electrode 45 are sequentially disposed on the first electrode 41. The organic light emitting unit 43 includes at least one first organic light emitting unit 431, a second organic light emitting unit 433, a third organic light emitting unit 435, and a fourth organic light emitting unit 437. In the organic electroluminescent display device 400, each single pixel includes four sub-pixels. A first color photoresist 351, a second color photoresist 353, a third color photoresist 355, and a fourth color photoresist 357 are respectively disposed on each pixel. The first organic light emitting unit 431, the second organic light emitting unit 433, and the third organic light emitting unit 435 are also disposed above any of the secondary pixels in the pixel. The fourth organic light-emitting unit 437 is disposed above the four sub-pixels in the pixel. For example, the first organic light emitting unit 431, the second organic light emitting unit 433, and the third organic light emitting unit 435 are respectively disposed on the vertical extension of the first color photoresist 351, the second color photoresist 353, and the third color photoresist 355. Positioned and in contact with the first electrode 41, and the fourth organic light emitting unit 437 is disposed on the vertical extension of the first color photoresist 351, the second color photoresist 353, the third color photoresist 355, and the fourth color photoresist 357 position. The first light source S1 generated by the stacked first organic light emitting unit 431 and the fourth organic light emitting unit 437 can penetrate the first color resist 351 and filter to generate a first color light L1. The stacked second organic light emitting unit 433 11 1283379 "the second light source S2 generated by the four organic light emitting unit 437 will penetrate the second color resist 353 and filter to generate - the second color light L2. The three light sources S3 will pass through the third color photoresist 355 and be filtered to generate a third color light L3. The fourth organic light emitting unit 437 will be transparent. The fourth (fourth) color first resists 357, and is filtered to generate a fourth L4. In an embodiment of the present invention, the first organic light emitting unit 431, the second organic light emitting unit 433 & third organic light emitting unit 435 are respectively generated a. a red light source, a green light source and a blue light source, and the fourth organic light emitting 70 4 3 7 can generate UU. At this time, the first color photoresist 351, the second color photoresist 353 and the third color photoresist 355 will be a red photoresist R (351), a green photoresist G (353) and a blue photoresist B (355), and the fourth color resist 357 is a light transmitting portion or a hollow portion. The first color light u, the second color light L2, the third color light L3 and the fourth color generated by the layer 35 filtering L4 will be red light, green light, blue light, and white light, respectively, wherein the display color of the organic electroluminescent display device 4 can be improved by mixing the fourth color light L4 (white light) with other color lights. The color filter layer 35 is a device that allows only a light source of a specific wavelength range to pass through, and thereby achieves the purpose of color filter. For example, the first color photoresist 351 is only allowed to have a wavelength range of 64 〇 nm~ A light source between 77 〇 nm passes through. When a white light source (s) penetrates the first color photoresist 351, the first shirt color resist 351 emits other color light sources having a wavelength ranging from 64 〇 nm to 77 〇 nm. Filtering is blocked, so that the color 12 1283379 passing through the first color photoresist 351 has a wavelength range of 640 nm to 770 nm, that is, a red light source that can be reduced by the naked eye, thereby achieving the purpose of color filter. However, in the case of light color filtering, the color light source having a wavelength other than 640 nm to 770 nm is filtered and blocked by the first color photoresist 351, so that the light source transmittance is only 25% to 35%, which is relatively lowered. Its display brightness. Conversely, the first The wavelength range in which the color resist 351 can allow the color light to pass is 640 nm to 770 nm (red resist) as described above. Then the first color resist 351 is paired with a red light source (for example, the wavelength distribution range is '650 nm). ～760 nm) will have a good transmittance, for example, in the embodiment of the present invention, the light source transmittance can reach 70% or more. Further, the first organic light-emitting unit according to the embodiment of the present invention The arrangement order of the second organic light emitting unit 433 and the third organic light emitting unit 435 and the fourth organic light emitting unit 437 can be changed. For example, the fourth organic light emitting unit 437 is disposed on the first electrode 41, and then the first organic light emitting unit 431, the second organic light emitting unit 433, and the second organic light emitting unit 433 are respectively disposed above the fourth organic light emitting unit 437. A three organic light emitting unit Ψ 435. By the arrangement of the fourth organic light emitting unit 437, the yield loss caused by the error of the mask alignment when the first light emitting unit 431, the second organic light emitting unit 433, and the third organic light emitting unit 435 are disposed can be overcome. . As shown in Fig. 2A, the second organic light emitting unit 433 is offset when the mask alignment process is performed. An error region 439 in which the second organic light-emitting unit 433 is not disposed is formed in a partial region at a vertically extending position of the second color resist 353. Moreover, since the fourth organic light emitting unit 437 is still disposed at a vertical extending position of the second color photoresist 353 13 1283379, a portion of the fourth organic light emitting unit 7G is present on the offset error region 439. 437. When the fourth light source S4 generated by the fourth organic light emitting unit 437 is a white light source, the fourth light source will penetrate the second color photoresist 353 via the cathode 41 and filter to generate the same dichromatic light L2. Therefore, by the arrangement of the fourth organic light emitting unit 437, the errors of the mask alignment may be overcome when the first organic light emitting unit 431, the second organic light emitting unit 433, and the third organic light emitting unit 435 are disposed. Yield loss. Even if the first organic light emitting unit 431 and/or the second organic light emitting unit 433 and/or the third organic light emitting unit 435 have a difference in the mask alignment, the display of the organic electroluminescent display device 400 is not affected. ^ Quality' will be beneficial to the improvement of product yield. Furthermore, please refer to Fig. 3, which is a schematic cross-sectional view showing another embodiment of the present invention. As shown in the figure, the organic electroluminescent display device 4〇1 of the present invention is mainly provided with a first organic light emitting unit 431, a second organic light emitting unit 433, and a third organic light emitting unit 435 disposed above a color filter 30. And a fourth organic light emitting unit 437. The first organic light emitting unit 431, the second organic light emitting unit 433, the third organic light emitting unit 435, and the fourth organic light emitting unit 437 are light emitting units capable of generating a light source through current signals. The internal system may include at least one hole injection layer 432, at least one hole transport layer 434, at least one organic light emitting layer, and at least one electron transport layer 436. (Electron Transport Layer), 1283379 El 〆 〆 〆 〆 438 (Electron Injecti 〇 n Layer) or one of the above combinations of components. The first organic light emitting unit 431, the second organic light emitting unit 433, the third organic light emitting unit 435, and the fourth organic light emitting unit 437 are selected as a single layer type organic light emitting unit or a plurality of stacked organic light emitting units. . For example, the first organic light-emitting unit 431, the second organic light-emitting unit 433, and the third organic light-emitting unit 435 are single-layer type organic light-emitting units. The internal system includes the first organic light-emitting layer 4311, the second organic light-emitting layer 4331, and the third organic light-emitting layer 4351, respectively. The fourth organic light-emitting unit 437 can be a plurality of stacked organic light-emitting units, and the fourth organic light-emitting layer 4371 is a laminated fifth organic light-emitting layer 4373 and a sixth organic light-emitting layer 4375. Next, please refer to Fig. 4, which is a plan view of another embodiment of the present invention. As shown in the figure, in the embodiment of the present invention, an organic electroluminescent element 40 is disposed on a surface of a substrate 32. A portion of the surface of the substrate 32 on which the organic electroluminescent device 40 is not disposed is provided with a package yoke. The organic electroluminescent device 40' is coated on the package cover 39 to protect the organic electroluminescent device. Element 40 prevents the outside air and water from entering. The bottom surface of the package cover 39 is provided with a first color photoresist 51, a second color photoresist 353, a third color photoresist 355, and a fourth iridium, photoresist 357. Thereby, the light source S1, the second light source S2, the third light source S3, and the fourth light source S4 are generated by filtering the organic electroluminescent device 40. . The second electrode 45 can be selected from a material having a light-transmitting conductive property, whereby the first light source S1, the second light source S2, the third light source S3, and the 15th light source S4 of the 15 1283379 can be penetrated. The second electrode is configured to achieve the top-emission of the organic electroluminescent display device 403. In the embodiment of the present invention, when the organic light-emitting unit 43 is aligned in the mask, the error of the mask alignment occurs as in the embodiment shown in the second embodiment. Other problems caused by the mask alignment error can be effectively overcome by the arrangement of the fourth organic light-emitting unit 437. The package cover 39 having the color filter layer 35 may also be disposed on a portion of the upper surface of the transparent substrate 31 of the color filter 30 (as shown in Fig. 2). Thereby, the purpose of the bidirectional illumination of the four-color full-color organic electroluminescence display device is achieved. Further, please refer to Fig. 5, which is a schematic cross-sectional view showing still another embodiment of the present invention. As shown, the organic electroluminescent display device 601 of the present invention is designed as an active matrix organic electroluminescent display device. At least one thin film transistor 53 (TFT) is disposed on a transparent substrate 51, and at least a flat protective layer 54 is covered on the upper surface of the transparent substrate 51 and the thin film transistor 53. The first protective layer 54 is provided with at least a first color photoresist 551, a second color photoresist 553, a third color photoresist 555, and a fourth color photoresist 557. The flat protective layer 54 is provided with at least one first electrode 61 electrically connected to the corresponding thin film transistor 53. Thereby, an active organic electroluminescent display device of COA (color filter on array) is formed. A first organic light emitting unit 631 and a second organic light emitting unit 633 are sequentially disposed on the first electrode 61 of the first color resist 551 and the second color resist 553. A fourth organic light emitting unit 637 is disposed at a vertical extending position of the first color photoresist 551, the second color photoresist 553, the third color photoresist 555, and the fourth color photoresist 557. The fourth organic light emitting unit 637 can be a plurality of stacked organic light emitting units. For example, a fifth organic light-emitting layer 6373 and a sixth organic light-emitting layer 6375 are included. The fifth organic light-emitting layer 6373 is an organic light-emitting layer ′ which can generate a blue light source, and the sixth organic light-emitting layer 6375 is selected as an organic light-emitting layer f which can generate an orange light source, a yellow light source or a red light source. The fourth organic light-emitting layer 6373 and the sixth organic light-emitting layer 6375 are properly matched, so that the fourth light source S4 generated by the fourth organic light-emitting unit 637 is a white light source. After passing through the third color photoresist 555 and the fourth color photoresist 557, the white light source is filtered to generate a third color light L3 and a fourth color light L4, respectively. Further, please refer to Fig. 6, which is a cross-sectional view showing still another embodiment of the present invention. As shown in the figure, in the embodiment of the present invention, the organic electroluminescent display device 603 is provided with the thin film electric body 53 and the flat protective layer 54' on the color filter 50. This is done to form an AOC (array on color filter) structure. The organic light emitting unit 63 includes a first organic light emitting unit 631, a second organic light emitting unit 633, a third organic light emitting unit 635, and a fourth organic light emitting unit 637. The first organic light emitting unit 631, the second organic light emitting unit 633, the third organic light emitting unit 635 or the fourth organic light emitting unit 637 may be selectively doped with at least one doping by at least one main illuminant (Host Emitter; H) The doped organic light-emitting unit of Dopant (D), the same 17 1283379 can achieve the purpose of generating various color light sources. Each pixel includes four sub-pixels, and the first color photoresist 551, the second color photoresist 553, the third color photoresist 555, and the fourth color photoresist 557 are respectively located on any pixel. . The positions of the first color photoresist 551, the first color photoresist 553, the third color photoresist 555, and the fourth color photoresist 557 can be changed. When the positions of the first color photoresist 551, the second color photoresist 553, the second color photoresist 555, and the fourth color photoresist 557 are changed, the first organic light emitting unit 631, the second organic light emitting unit 633, and The setting position of the third organic light emitting unit 635 will also change accordingly. Further, % is referred to to Fig. 7, which is a top view of still another embodiment of the present invention. The embodiment of the present invention is different from the above embodiment in that the single color first photoresist is 85 The photoresist 853 and the third color; the positions of the resistor 855 and the fourth color resist 857 are not arranged in a straight line manner. For example, the color resist in the single-pixel is in a matrix of four columns (field type) as shown in Fig. 7, thereby improving the blending uniformity of the respective colors of light. When the setting positions of the respective color photoresists are changed, the positions of the first organic light-emitting unit 431, the second organic light-emitting unit 432, and the third organic light-emitting π π® organic light-emitting unit 434 are also changed. The arrangement of the color photoresist in the square is not limited to a straight line or a rhombus type or a rhombic shape or any other arrangement as described above can be applied to any of the above-mentioned real ends, please refer to the 8A round to The δ D diagram is a schematic cross-sectional view of the 1283379 organic electroluminescent display device of the present invention in an evaporation process. As shown in the figure, the manufacturing process of the organic electroluminescent display device 400 of the present invention is mainly provided after the first electrode 41 is disposed, and at least one hole injection layer 432 is disposed on the first electrode 41 by evaporation. And/or at least one hole transport layer 434. The first organic light emitting layer 43U of the at least one first organic light emitting unit 431, the second organic light emitting layer 4331 of the at least one second organic light emitting unit 433, and the at least one third organic light emitting unit 435 are disposed on the hole transport layer 434. The third organic light-emitting layer 4351. > As shown in Fig. 8A, a first mask 481 is placed at a vertically extending position of the second color photoresist 353, the third color photoresist 355, and the fourth color photoresist 357. The vapor deposition process of the first organic light-emitting layer 4311 of the first organic light-emitting unit 431 is performed by a first vapor deposition source 471. A first organic light-emitting layer 4311 is formed on the first electrode 41 at a vertically extending position of the first color photoresist 351. The first organic light-emitting material 461 of the first vapor deposition source 471 can be selected according to the color of the first color photoresist 351. For example, when the first color photoresist 351 is a red photoresist, the first organic light-emitting material 461 is selected as an organic light-emitting material that can generate a red light source. As shown in FIG. 8B, a second mask 483 is placed at a vertically extending position of the first color photoresist 351, the third color photoresist 355, and the fourth color photoresist 357. Further, a vapor deposition process of the second organic light-emitting layer 4331 of the second organic light-emitting unit 433 is performed by a second evaporation source 473. A second organic light-emitting layer 4331 is formed on the first electrode 41 at a vertically extending position of the second color resist 353. The second organic light-emitting material 463 of the second vapor deposition source 473 can be selected according to the color of the second color photoresist 353. Example 1283379 For example, when the second color photoresist 353 is a green photoresist, the second organic light-emitting material 463 is selected to be an organic light-emitting material that can generate a green light source. As shown in Fig. 8C, a third mask 485 is placed at a vertical extension of the first color photoresist 351, the second color photoresist 353, and the fourth color photoresist 357. Further, a vapor deposition process of the third organic light-emitting layer 4351 of the third organic light-emitting unit 435 is performed by a third evaporation source 475. A third organic light-emitting layer 4351 is formed on the first electrode 41 at a vertically extending position of the third color photoresist 355. The third organic light-emitting material 465 of the third evaporation source 475 can be selected according to the third color photoresist 355. For example, when the third color photoresist 355 is a blue photoresist, the third organic light-emitting material 465 is selected to be an organic light-emitting material that produces a blue light source. As shown in Fig. 8D, after the first organic light-emitting layer 4311, the second organic light-emitting layer 4331, and the third organic light-emitting layer 4351 are disposed. The evaporation process of the fourth organic light-emitting layer 4371 of a fourth organic light-emitting unit 437 can be performed by using a fourth evaporation source 477 in conjunction with the use of a full-open mask 487. A fourth organic light-emitting layer 4371 is formed at a vertically extending position of the first color photoresist 351, the second color photoresist 351, the third color photoresist 355, and the fourth color photoresist 357. A portion of the fourth organic light-emitting layer 4371 is positioned on the upper surface of the first organic light-emitting layer 4311, the second organic light-emitting layer 4331, and the third organic light-emitting layer 4351. The fourth organic light-emitting material 467 of the fourth evaporation source 477 is selected as an organic light-emitting material capable of generating a white light source. In practical applications, the order of arrangement of the first organic light-emitting layer 4311, the second organic light-emitting layer 4331, the third organic light-emitting layer 4351, and the fourth organic light-emitting layer 4371 20 1283379 may be changed. For example, the fourth organic light-emitting layer 4371 may be disposed first, and then the first organic light-emitting layer 4311, the second organic light-emitting layer 4331, and the third organic light-emitting layer 4351 may be disposed. Further, the order of arrangement of the first organic light-emitting layer 4311, the second organic light-emitting layer 4331, and the third organic light-emitting layer 4351 may be changed. The positions of the first color photoresist 351, the second color photoresist 353, the third color photoresist 355, and the fourth color photoresist 357 of the color filter 30 can be changed. And the first organic light-emitting layer 4311 and the second organic light-emitting layer 4331 are simultaneously changed at positions of the first color photoresist 351, the second color photoresist 353, the third color photoresist 355, and the fourth color photoresist 357. The installation position of the third organic light-emitting layer 4351 is also changed. After the first organic light-emitting layer 4311, the second organic light-emitting layer 4331, the third organic light-emitting layer 4351, and the fourth organic light-emitting layer 4371 are disposed, the subsequent process of the organic electroluminescent display device 400 can be continued. For example, at least one electron transport layer 436 and/or at least one electron injection layer 438 and the second electrode 45 are sequentially formed on the fourth organic light-emitting layer 4371 of the fourth organic light-emitting unit 437 by evaporation. The setting of the organic electroluminescent display device 400 is completed. In the above-mentioned production process, the vapor deposition of the organic light-emitting unit 43 is independently set to the organic electroluminescent light elements of the three primary colors of red (R), green (G), and blue (B) to form organic electroluminescent light. In terms of the arrangement of the display device, it is possible to overcome the yield loss caused by the accuracy error in the mask alignment program, and thereby achieve the improvement of the product yield of the full-color organic electroluminescent display device 400. 21 1283379 Of course, the above process steps are equally applicable to an active matrix organic electroluminescent display device, a first organic light emitting unit (631), a second organic light emitting unit (633), and a third organic light emitting unit (635). And the fourth organic light emitting unit (637) can also be formed in order, and will not be described herein. In summary, the invention relates to a full-color organic electroluminescent display device and a manufacturing method thereof, which can not only effectively improve the transmittance and color saturation of each light source, but also overcome the mask alignment program. Those who suffer from yield loss due to accuracy errors and increase production yield. Therefore, the present invention is a novelty, progressive, and available for industrial use. It should be in accordance with the patent application requirements. The invention patent application is filed according to law, and the reviewing committee is required to give the invention patent as soon as possible. The above description is only a preferred embodiment of the present invention, and is not intended to limit the scope of the present invention, which is equivalent to the changes in shape, structure, features and spirit of the present invention. Modifications are intended to be included in the scope of the patent application of the present invention. BRIEF DESCRIPTION OF THE DRAWINGS Fig. 1 is a schematic cross-sectional view showing a conventional organic electroluminescence display device. Fig. 2 is a schematic cross-sectional view showing a preferred embodiment of the full color organic electroluminescence display device of the present invention. 2A is a schematic cross-sectional view of the above embodiment of the present invention. Figure 3 is a schematic cross-sectional view showing another embodiment of the present invention. Figure 4 is a cross-sectional view showing still another embodiment of the present invention. 22 1283379 Fig. 5 is a schematic cross-sectional view showing the active organic electroluminescence display device of the present invention. Fig. 6 is a schematic cross-sectional view showing still another embodiment of the present invention. Figure 7 is a plan view showing still another embodiment of the present invention. 8A to 8D are schematic cross-sectional views showing the passive organic electroluminescent display device of the present invention in each process step.
【主要元件符號說明】 11 透明基板 23 有機發光單元 231 第一有機發光單元 233 第二有機發光單元 235 第三有機發光單元 239 誤差區域 30 彩色渡光片 31 透明基板 32 基板 33 黑色矩陣 35 彩色濾、光層 351 第一彩色光阻 353 第二彩色光阻 355 第三彩色光阻 357 第四彩色光阻 37 平坦障蔽單元 39 封裝蓋板 40 有機電激發光元件 41 第一電極 43 有機發光單元 431 第一有機發光單元 4311 第一有機發光層 432 電洞注入層 433 第二有機發光單元 4331 第二有機發光層 434 電洞傳輸層 435 第三有機發光單元 4351 第三有機發光層 436 電子傳輸層 437 第四有機發光單元 4371 第四有機發光層 4373 第五有機發光層 23 1283379[Main component symbol description] 11 transparent substrate 23 organic light emitting unit 231 first organic light emitting unit 233 second organic light emitting unit 235 third organic light emitting unit 239 error region 30 color light guide 31 transparent substrate 32 substrate 33 black matrix 35 color filter Light layer 351 first color photoresist 353 second color photoresist 355 third color photoresist 357 fourth color photoresist 37 flat barrier unit 39 package cover 40 organic electroluminescent element 41 first electrode 43 organic light emitting unit 431 First organic light emitting unit 4311 first organic light emitting layer 432 hole injection layer 433 second organic light emitting unit 4331 second organic light emitting layer 434 hole transport layer 435 third organic light emitting unit 4351 third organic light emitting layer 436 electron transport layer 437 Fourth organic light emitting unit 4371 fourth organic light emitting layer 4373 fifth organic light emitting layer 23 1283379
4375 第六有機發光層 438 電子注入層 439 誤差區域 45 第二電極 461 第一有機發光材料 463 第二有機發光材料 465 第三有機發光材料 467 第四有機發光材料 471 第一蒸鍍源 473 第二蒸鍵源 475 第三蒸鍍源 477 第四蒸鍍源 481 第一遮罩 483 第二遮罩 485 第三遮罩 487 第四遮罩 50 彩色濾光片 51 透明基板 53 薄膜電晶體 54 平坦保護層 551 第一彩色光阻 553 第二彩色光阻 555 第三彩色光阻 557 第四彩色光阻 61 第一電極 63 有機發光單元 631 第一有機發光單元 633 第二有機發光單元 635 第三有機發光單元 637 第四有機發光單元 6373 第五有機發光層 6375 第六有機發光層 200 有機電激發光顯示裝置 400 有機電激發光顯示裝置 401 有機電激發光顯示裝置 403 有機電激發光顯示裝置 601 主動式有機電激發光顯示裝置 603 主動式有機電激發光顯示裝置 244375 sixth organic light-emitting layer 438 electron injection layer 439 error region 45 second electrode 461 first organic light-emitting material 463 second organic light-emitting material 465 third organic light-emitting material 467 fourth organic light-emitting material 471 first vapor-deposited source 473 second Steaming source 475 Third evaporation source 477 Fourth evaporation source 481 First mask 483 Second mask 485 Third mask 487 Fourth mask 50 Color filter 51 Transparent substrate 53 Thin film transistor 54 Flat protection Layer 551 first color photoresist 553 second color photoresist 555 third color photoresist 557 fourth color photoresist 61 first electrode 63 organic light emitting unit 631 first organic light emitting unit 633 second organic light emitting unit 635 third organic light emitting Unit 637 fourth organic light emitting unit 6373 fifth organic light emitting layer 6375 sixth organic light emitting layer 200 organic electroluminescent display device 400 organic electroluminescent display device 401 organic electroluminescent display device 403 organic electroluminescent display device 601 active Organic electroluminescence display device 603 Active organic electroluminescence display device 24