201232097 六、發明說明： 【發明所屬之技術領域】 本發明係關於液晶顯示元件之製造方法及液晶顯示元件 之製造系統 【先前技術】 專利文獻1記載有將複數個光學.膜按每個光學膜依序積 層於液晶面板’製造液晶顯示元件之方法。具體而言，係 從捲繞積層有光學膜之襯膜而成之連續輥，送出襯膜，留 下襯膜，將光學膜於膜寬方向切斷成特定尺寸（半切斷）， 從而形成片材，並將已剝離襯膜之片材貼附於液晶面板， 在積層於該液晶面板之光學膜上，依序積層形成下一張光 學膜之片材的方法。 先前技術文獻 專利文獻 專利文獻1:日本特開2009-271516號公報 【發明内容】 發明所欲解決的問題 在上述專利文獻1中，由於係將2個以上之片材依序積層 於液晶面板，故擔心異物等會咬入至粘著劑。假設產生了 異物等之交入之隋形，在下一個片材積層處理中，會導致 於液晶面板進一步積層新的片材，作為結果，會導致光學 膜之良率惡化。 又，存在有光學檢查兩面積層有光學膜之液晶面板（液 晶顯示元件），欲騎是Μ在缺陷之要求。以上述專利 160216.doc 201232097 文獻1之製造方法製造之液晶顯示元件亦相同。 然而’光學膜根據其本身之光學特性，亦存在會降低光 學檢查之檢查精度者。作為如此之光學臈，舉例有例如反 射偏光膜等之亮度提高膜或相位差膜等。又，在基於反射 光學影像之缺陷檢查中，反射偏光膜根據其特性，被推斷 為容易使檢查精度降低。 本發明係鑑於上述之實際情況而完成者，提供_種在液 晶面坂積層2個以上之光學膜之片材之情形下，不會降低 光學膜之良率，且不會降低光學檢查（例如，利用反射光 之檢查、利用透射光之檢查)之檢查精度的液晶顯示元件 之製造方法及液晶顯示元件之製造系統。 解決問題之技術手段 為解決上述問題’反復潛心研究’結果終完成以下之本 發明= 本發明之液晶顯示元件之製造方法，包含2個以上光學 、’η材積層v驟，該步驟包含：從將積層有含有粘著劑 之特足膜寬之光學膜之襯膜捲繞而成之連續輥，搬送該襯 膜之襯膜搬送子步驟；留下該襯膜，在與光學膜之長度方 向正乂之膜寬方向，以特定之切斷間隔，將該光學膜切 &形成光予膜之片材之切斷子步驟；搬送液晶面板之 搬送子步驟；及_工^ ^ 面搬送前述液晶面板，一面將已從前述 襯膜刹離之刖述片材介隔前述粘著劑而積層於該液晶面板 側之貼附子步驟；且包含以下步驟： ;良日曰面板之面積層光學膜之片材之第1片材積層步 I60216doc 201232097 驟； 於前述液晶面板之第2面積層光學膜之片材之第2片材積 層步驟； 將兩面形成有冑述光學膜之片#之前述液晶面板進行光 學檢查之檢查步驟；及 前述檢查步驟後，在積層於第1面或第2面之光學膜之片 材上，積層光學膜之片材之第3片材積層步驟。 、根據該構成，由於可在兩面積層光學膜後，將液晶面板 進行光學檢查，例如對良品(正常品)之液晶面板，進一步 積層其他光學膜之片材，故可使光學膜之良率不會降低。 作為上述發明之-實施形態，係連續進行前述第丄片材 積層步驟刖述第2片材積層步驟、前述檢查步驟、及前 述第3片材積層步驟。藉此，由於可連續製造液晶面板之 兩面積層有光學膜之片材(液晶面板之-面積層有2片片材) 之液晶顯示元件’故可提高生產率。X，作為其他實施形 態，亦可在連續進行前述第1片材積層步驟及前述第2片材 積層步驟後’連續進行前述檢查步驟及前述第3片材積層 々驟亦可在連續進行前述第1 >5材積層步驟、前述第2片 材積層步驟及檢杳I& 、 —ν驟後’進行前述第3片材積層步驟。 乍為上述發明之—實施形態’前述檢查步驟係基於對兩 面形成有光學膜之片材之液晶面板照射光所獲得之反射光 學影像而檢查缺陷，且 ;j ^ &查步驟後所積層之光學膜之片材具有使前述檢 查步驟之檢查精度降低的特性。作為該光學膜，示例有反 160216.doc 201232097 制偏光膜專之亮度提高膜。 根據該構成，可不降低檢查精度地進行光學檢查，且於 檢查後’積層使檢查精度降低之光學膜之片材。 又’作為上述發明之一實施形態，前述第1、第2片材積 層步驟較佳為將2色偏光膜之片材積層於液晶面板之偏光 膜之片材積層步驟，且 前述第3片材積層步驟較佳為在積層於第1面或第2面之2 色偏光膜之片材之一者上，以使該一者之2色偏光膜之片 材之透射軸之方向與反射偏光膜之片材之透射軸之方向為 相同方向的方式，貼附該反射偏光膜之片材之反射偏光膜 之片材積層步驟。 根據該構成’由於在積層反射偏光膜前，檢查兩面積層 有偏,光膜之液晶面板後，在判斷為良品之液晶面板積層反 射偏光膜’而在判斷為不良品之液晶面板不積層該反射偏 光膜即完成，故可提高反射偏光膜之良率。 又’作為上述實施形態，較佳為在前述2色偏光膜之片 材積層步驟中’於前述液晶面板上積層於與膜寬方向正交 - 之長度方向上具有透射軸之2色偏光膜之片材後，在前述 . 反射洛光膜之片材積層步驟中，於該2色偏光膜之片材上 貼附於與膜寬方向正交之長度方向上具有透射軸之反射偏 光膜之片材。 根據該構成，可使用於長度方向（MD方向）具有透射 軸、於膜寬方向上具有吸收軸之2色偏光膜。在其長度方 向（MD方向）具有2色偏光膜之透射軸且在其長度方向 160216.doc 201232097 (MD方向）具有反射偏光膜之透射轴之情形時，由於可使2 色偏光膜、反射偏光膜、液晶面板之搬送方向為相同之方 向故可無需採用旋轉機構等複雜之機構，即可使生產線 為直線路線。 又，另一發明之液晶顯示元件之製造系統，其具備2個 以上光學膜之片材積層裝置，該裝置具備：從將積層有含 有粘著劑之特定膜寬之光學臈之襯膜捲繞而成之連續輥， 搬送該襯膜之襯膜搬送機構；留下該襯膜，在與光學膜之 長度方向正交之膜寬方向，以特定之切斷間隔將該光學膜 切斷，而形成光學臈之片材之切斷機構；搬送液晶面板之 搬送機構，及一面搬送前述液晶面板，一面將已從前述襯 膜赤j離之則述片材介隔前述粘著劑而積層於該液晶面板側 之貼附機構；且包含以下裝置： 於液a曰面板之第1面積層光學膜之片材之第丨片材積層裝 置； 於前述液晶面板之第2面積層光學膜之片材之第2片材積 層裝置； 將兩面形成有前述光學膜之片材之前述液晶面板進行光 學檢查之檢查裝置；及 在利用前述檢查裝置進行檢查後，在積層於第丨面或第2 面之光學膜之片材上積層光學膜之片材之第3片材積層裝 置。 根據該構成，由於可在兩面積層光學膜後，將液晶面板 進行光學檢查，例如對良品（正常品）之液晶面板，進一步 160216.doc 201232097 積層其他光學膜之片材，故可使光學膜之良率不會降低。 作為上述發明之一實施形態，係將前述第丨片材積層裝 置、前述第2片材積層裝置、前述檢查裝置、及前述第3片 材積層裝置配置於連續生產線。藉此，由於可連續製造液 晶面板之兩面積層有光學膜之片材（液晶面板之一面積層 • 有2片片材）之液晶顯示元件’故可提高生產性。又，作為 其他實施形態，亦可將前述第！片材積層裝置及前述第2片 材積層裝置配置於連續生產線，而將前述檢查裝置及前述 第3片材積層裝置配置在與該連續生產線不同之生產線， 亦可將前述第1片材積層裝置、前述第2片材積層裝置及檢 查裝置配置於連續生產線，而於另一生產線配置前述第3 片材積層裝置。 作為上述發明之一實施形態，前述檢查裝置係基於對兩 面形成有光學膜之片材之液晶面板照射光所獲得之反射光 學影像而檢查缺陷，且 在利用前述檢查裝置進行檢查後所積層之光學膜之片材 具有使前述檢查裝置之檢查精度降低的特性。作為該光學 v 膜’示例有反射偏光膜等之亮度提高膜。 根據該構成’可不降低檢查精度地進行光學檢查，且檢 查後’積層使檢查精度降低之光學膜之片材。 又’作為上述發明之一實施形態，前述第1、第2片材積 層裝置較佳為將2色偏光膜之片材積層於液晶面板之偏光 膜之，彳材積層裝置，且 月1J述第3片材積層裝置較佳為在積層於第1面或第2面之2 1602I6.doc 201232097 色偏光膜之片材之一者上’以使該一者之2色偏光膜之片 材之透射轴方向與反射偏光膜之片材之透射軸方向為相同 方向的方式’貼附該反射偏光膜之片材之反射偏光膜之片 材積層裝置。 根據該構成，由於在積層反射偏光膜前，檢查兩面積層 有2色偏光膜之液晶面板後，在判斷為良品之液晶面板積 層反射偏光膜，而在判斷為不良品之液晶面板不積層該反 射偏光膜即完成’故可提高反射偏光膜之良率。 又，作為上述實施形態，較佳為前述2色偏光膜之片材 積層裝置，於前述液晶面板上積層於與膜寬方向正交之長 度方向上具有透射軸之2色偏光膜之片材後，前述反射偏 光膜之片材積層裝置，於該2色偏光膜之片材上貼附於與 膜寬方向正父之長度方向上具有透射軸之反射偏光膜之片 材。 根據該構成，可使用於長度方向（MD方向）具有透射 軸、於膜寬方向上具有吸收軸之2色偏光膜。在其長度方 向（MD方向）具有2色偏光膜之透射軸，且在其長度方向 (MD方向）具有反射偏光膜之透射軸之情形時，由於可使2 色偏光膜、反射偏光膜、液晶面板之搬送方向為相同之方 向，故可無需採用旋轉機構等複雜之機構，即可使生產線 為直線路線。 又與另一發明之液晶顯示元件之製造方法，包含2個以 光予膜之片材積層步驟，該步驟包含：從將相鄰積層有 复片之3有枯著劑之光學膜之片材之襯膜㈣以^ I60216.doc 201232097 續輥’搬送該襯膜之襯膜搬送子步驟；搬送液晶面板之搬 送子步驟；及一面搬送前述液晶面板，一面將已從前述襯 腹剝離之前述片材介隔前述枯著劑而積層於該液晶面板側 之貼附子步驟；且包含以下步驟： 於液晶面板之第1面積層光學膜之片材之第丨片材積層步 - 驟； 於則述液晶面板之第2面積層光學膜之片材之第2片材積 層步驟； 將兩面形成有前述光學膜之片材之前述液晶面板進行光 學檢查之檢查步驟；及 則述檢查步驟後，在積層於第丨面或第2面之光學膜之片 材上，積層光學膜之片材之第3片材積層步驟。 藉此，由於可使用將相鄰積層有複數片之光學膜之片材 之襯膜捲繞而成之連續輥（所謂的有缺口連續輥），故可省 略切斷子步驟。 又，另一發明之液晶顯示元件之製造系統，其具備2個 以上光學膜之片材積層裝置，該裝置具備：將相鄰積層有 ^ 複數片之含有粘著劑之光學膜之片材之襯膜捲繞而成之連 • 續輥，搬送該襯膜之襯膜搬送機構；搬送液晶面板之搬送 機構；及一面搬送前述液晶面板，一面將已從前述襯膜剝 離之前述片材介隔前述粘著劑積層於該液晶面板側之貼附 機構；且包含以下裝置： 於液晶面板之第1面積層光學膜之片材之第丨片材積層裝 置； 160216.doc 201232097 於前述液晶面板之第2面積層光學臈之片材之第2片材積 層裝置； 將兩面形成有前述衫膜之片材之前述液晶面板進行光 學檢查之檢查裝置；及 在利用前述檢查裝置之檢查後’在積層於^面或第㉔ 之光學膜之片材上積層光學膜之片材之第3片材積層裝 置。 由於可使用將相鄰積層有複數片之光學膜之片材之概膜 捲繞而成之連續輥（所謂的有缺口連續輥），故只要省略切 斷機構之設置或預先設置切斷機構，即可使切斷機構停 止。 又，作為上述製造方法之一實施形態，前述片材積層步 驟進一步包含檢查光學膜之膜檢查子步驟，且 前述切斷子步驟較佳為根據膜檢查子步驟之檢查結果， 將該光學膜切斷。檢查是指對光學膜之缺陷進行檢查。 又，在根據檢查結果切斷光學膜之情形，可構成為避開缺 陷部份進行切斷。較佳的是將缺陷部份作為不良品，切斷 成特定尺寸，並以例如排除裝置等進行排除，以便不會貼 附於液晶面板。 又，在上述之實施形態中’較佳的是在前述膜檢查子步 驟中’在將前述襯膜從前述光學膜剝離之狀態下，進行前 述光學膜之檢查，於檢查後，介隔前述粘著劑，將襯膜貼 附於前述光學膜。藉此，無需考慮襯膜内在之相位差，及 襯膜所附著或内在之異物或瑕疵等之缺陷，即可進行光學 160216.doc 12 201232097 膜之缺陷檢查0 又’在上述之實施形態中’較佳的是前述切斷子步驟進 -步包含排除子步驟’其係將膜檢查子步驟之檢杳結果判 獻·為不良品之光學膜切斷成特定尺寸，並將判斷為 之光學膜之片材排除。以缺陷檢查判斷為不良品之情^口 係以避開光學膜之缺陷部份的方式，切斷成特定尺 稱為跳躍切割之情形)，而判斷為不良品之含有缺陷之片 材藉由例如周知之排出裝置排除(除去)。藉 高光學膜之良率。 』穴ΐ田杈 【實施方式】 光孥膜只要為於最外層含有#著劑層者即可，可為單層 之光學膜’亦可為積層有光學膜之積層光學膜。又’，亦可 為於光學膜積層有其他膜構件之構成。又，作為光學膜舉 例有例如偏光子、偏光膜，值忠 悔亢胰偏先膜係在偏光子與其兩面或 單面積層偏光子保護膜而成。又，亦有積層用於保護偏光 子或偏光m，以冑免輸送上之傷€等之表面保護膜之情 形。又，作為其他之光學膜，示例有相位差膜、亮度提高 滅等之光學補償膜。作為經積層之光學膜，亦可於偏光子 或偏光膜，積層相位差膜及/或亮度提高膜。 偏光膜舉例有例如2色偏光膜。2色偏光膜係藉由包含 ㈧乾燥實施過染色、交聯及延伸處理之聚乙烯醇系膜， 而獲得偏光子之步驟；⑻於該偏光子之單侧或兩側貼合 保護層之步驟；(c)貼合後進行加熱處理之步驟之製造方 法而製造。聚乙稀醇系膜之染色、交聯、延伸之 ^ *»、、 I60216.doc 201232097 需分別進行’可同時進行’且各處理之順序亦可任意 者，作為聚乙稀醇系膜，亦可使用實施㈣ 稀醇系膜。一般而言，係將聚乙稀醇系膜浸潰於含有峨或 一色性色素之》谷液’吸附峨或二色彳生备本^ 巴性色素進行染色後清 洗，並在含有硼酸或硼砂等之溶液中 τ 以延伸倍率3仵〜7 倍單軸延伸後進行乾燥。在含有碘._ ° ,及一色性色素之溶液中 進行延伸後，在含有硼酸或硼砂等 八叩/寻之，谷液中進一步延伸 (二段延伸）後’而進行乾燥，藉 w & 由於使碘之配向增 高’偏光度特性變佳，故而較佳 亮度提高膜舉例有例如具有反射軸與透射軸之反射偏光 膜。反射偏光膜係藉由將例如2種不同材料之聚合物膜A、 B交互複數片積層後延伸而獲得。在延伸方向僅材料a之 折射率增加變化，展現雙折射性，材料AB界面之具有折 射率差之延伸方向成為反射軸，而未產生折射率差之方向 (非延伸方向）成為透射軸。 又，光學膜所含之粘著劑並無特別限制，舉例有例如丙 烯酸系粘著劑、石夕系粘著劑、胺基甲酸酯系粘著劑等。襯 膜可使用例如塑膠膜（例如，聚對苯二甲酸乙二酯系膜、 聚烯烴系膜等）等之膜。又，視必要可使用以矽系或長鏈 …土糸氟糸或硫化翻等之適當之剝離劑經塗層處理者等 之適宜者。 (光學膜及連續幸昆） 在本實施形態令，並不限制於在襯膜形成光學膜之形 態°例如’亦可以輥狀捲繞之連續輥構成。作為連續輥舉 160216.doc 14 201232097 例有例如⑴將具有襯膜與含有形成於該襯膜上之钻著劑之 光學膜的光學膜積層體輥狀捲繞者。該情形，液晶顯=元 件之連續製造系統具有切斷機構，其不切斷襯膜而將其: 1，將該光學膜（含有魅著劑）以特定之切斷間隔切斷（半切 斷），以從光學膜形成光學膜之片材。在該切斷中，亦可 例如基於連續製造系統内之缺陷檢查裝置之檢查結果，以 將良品之片材與不良品之片材進行區別的方式，進行切 斯。 又，作為連續輥，舉例有例如（2)將具襯膜與含有形成 於該襯膜上之粘著劑之光學膜之片材的光學膜積層體輥狀 捧繞者（所謂的有缺口光學膜之連續輥）。 (液晶顯示元件） 液晶顯示元件為於液晶面板之單面或兩面至少形成有（2 色）偏光膜之片材者，且因應所需裝入驅動電路。液晶面 板可使用例如垂直配向（VA)型、平面轉換（lps)型等之任 意類型者。圖1所示之液晶面板4之構成為將液晶層密封於 對向配置之一對基板（第丨基板、第2基板）間。 (實施形態1) (液晶顯示元件之製造方法） 以下說明實施形態1 ^液晶顯示元件之製造方法包含2個 以上光學膜之片材積層步驟，該步驟包含：從捲繞積層有 含有枯著劑之特定膜寬之光學膜的襯膜而成之連續輥，搬 送該襯膜之襯膜搬送子步驟；留下該襯膜，在與光學膜之 長度方向正交之膜寬方向，以特定之切斷間隔將該光學膜 160216.doc .15- 201232097 切斷，而形成光學膜之片材之切斷子步驟；搬送液晶面板 之搬送子步驟；及一面搬送前述液晶面板，一面將已從前 述襯膜剝離之前述片材介隔前述粘著劑而積層於該液晶面 板側之貼附子步驟，該2個以上之片材積層步驟為例如後 述之第1片材積層步驟、第2片材積層步驟、及第3片材積 層步驟。液晶顯示元件之製造方法包含以下步驟：於液晶 面板之第1面（例如目視側）積層光學膜之片材之第丨片材積 層步驟；於前述液晶面板之第2面（例如背面側）積層光學膜 之片材之第2片材積層步驟；將兩面形成有前述光學膜之 片材之則述液晶面板進行光學檢查之檢查步驟；及前述檢 查步驟後，在積層於第丨面或第2面之光學膜之片材上，積 層光學膜之片材之第3片材積層步驟。 以下，將積層於液晶面板之兩面之光學膜設為2色偏光 膜，將在檢查步驟後貼附於一者之2色偏光膜之片材而積 層於液晶面板側之光學膜作為反射偏光膜進行說明。將積 層於液晶面板之背面側之2色偏光膜及反射偏光膜，作為 於與膜寬方向正交之長度方向上具有透射軸者，而將積層 於液晶面板之目視側之2色偏光膜作為於膜寬方向上具有 透射軸者進行說明。即，前述第丨、第2片材積層步驟為將 2色偏光膜之片材積層於液晶面板之偏光膜之片材積層步 驟，前述第3片材積層步驟為在積層於第〗面或第2面之2色 偏光膜之片材之一者上，以使該一者之2色偏光膜之片材 之透射軸方向與反射偏光膜之片材之透射軸方向為相同方 向的方式，貼附該反射偏光膜之片材之反射偏光臈之片材 160216.doc 201232097 積層步驟。在本實施形態中，連續進行第丨片材積声步 驟、第2片材積層步驟、檢查步驟、及第3片材積層步驟。 、圖1係顯示液晶顯示元件之製造方法之_例之流程圖。 省先’於液晶面板之-面（例如目視側）積層2色偏光膜 材(SI)。-面參照圖2’ 一面具體地進行說明。首先，準 借2色偏光膜之連續輕1 η。胳？ A &土 & <只罕。將2色偏先膜及襯膜從連續 輥送出，搬送至下游側（襯膜搬送子步驟、S12)。作為該 搬送機構，係以例如進給輥、張力輥、調節輥、用於檢測 進給量之感測II、控制該等之搬送速度或進給量等之控制 部等構成。留下襯膜，在與2色偏光膜之長度方向正交之 膜寬方向，以特定之間隔將該2色偏光膜切斷，形成2色偏 光膜之片材（切斷子步驟、S13)。作為切斷機構，舉例有 例如雷射裝置、切割器等。使襯膜為内側，在剝離機構前 端部折返，將2色偏光膜之片材從該襯膜剝離，供給至貼 附位置且，一面搬送液晶面板，—面將從概膜剝離之2 色偏光膜之片材介隔粘著劑而積層於液晶面板側（貼附子 步驟、S14)。作為貼附機構，舉例有例如貼附用輥。再 者，具有捲繞已剝離片材之襯膜之捲繞子步驟，與將液晶 面板搬送至貼附位置之搬送子步驟。又，搬送子步驟係將 貼附有2色偏光膜之液晶面板搬送至與下一個反射偏光膜 之貼％位置。作為液晶面板之搬送機構，係以例如〖對貼 附用輥、搬送用輥 '吸附板、用以控制該等之搬送速度或 進給量等之控制部等構成。 其次，於液晶面板之另一面（例如背面側）積層2色偏光 160216.doc 17 201232097 膜之片材（S2)。以使在步驟“中積層之2色偏光膜之片材 之透射軸、與此處積層之2色偏光膜之片材之透射軸9〇〇交 叉的方式，將2色偏光膜之片材積層於液晶面板之另一 面。再者’因應所需’亦可使液晶面板上下反轉。在本實 施形.態中’由於積層於液晶面板之目視側之2色偏光膜在 其膜寬方向具有透射軸’而積層於液晶面板之背面側之2 色偏光膜在與其膜寬方向正交之長度方向具有透射軸，故 無品9 0。旋轉液晶面板’即可在直線路線上，將2色偏光膜 分別積層於液晶面板之目視側及背面側。 再次一面參照圖2 —面進行說明。準備2色偏光膜之連續 輥（S11)。2色偏光膜之膜寬度wi較佳為大於積層於該2色 偏光膜上之反射偏光膜之膜寬度W2。將2色偏光膜及襯膜 從連續輥送出’搬送至下游側（襯膜搬送子步驟、s丨2)。 留下襯膜’在與2色偏光膜之長度方向正交之膜寬方向， 以特定之切斷間隔L1將該2色偏光膜切斷，形成2色偏光膜 之片材（切斷子步驟、S 13)。使襯膜為内側，在剝離機構 則端部折返’將2色偏光膜之片材從該襯膜剝離，供給至 貼附位置。且’ 一面搬送液晶面板，一面將從襯膜剝離之 2色偏光膜之片材介隔粘著劑積層於液晶面板側（貼附子步 驟、S14)。 其次’將兩面積層有2色偏光膜之液晶面板進行檢查（檢 查步驟、S3)。檢查步驟係基於對兩面形成有2色偏光膜之 片材之液晶面板照射光而獲得之反射光學影像，檢查缺陷 (反射式檢查）。將所獲得之反射光學影像之圖像資料進行 160216.doc -18- 201232097 匮像解析，擷取缺陷。所擷取之缺陷之種類、尺寸、數量 筹與特疋之判斷基準（臨限值）比較，從而判斷是良品還是 不良品（判斷子步驟、S4)。若判斷之結果為良品，則於液 晶面板積層反射偏光膜之片材（S5)。另一方面，若判斷之 結果為不i s ’則不積層反射偏光膜之片材，排除液晶面 板（排除步驟、S6)。 以下，一面參照圖2，一面說明積層於2色偏光膜之片材 之反射偏光膜之片材積層步驟。準備反射偏光膜之連續輥 G21)。反射偏光膜之膜寬度W2較佳為小於已積層之2色偏 光膜之膜寬度Wl(參照圖4)。將反射偏光膜及襯膜從連續 輥送出’搬送至下游側（襯膜搬送子步驟、S22)。留下襯 膜在與反射偏光膜之長度方向正交之膜寬方向，以特定 之切斷間隔L2將該反射偏光膜切斷，形成反射偏光膜之片 材（切斷子步驟、S23)。此處，反射偏光膜之切斷間隔L2 較佳為小於上述2色偏光膜之切斷間隔l 1 (參照圖4)。使反 射偏光膜之片材之膜寬度W2及切斷間隔L2，分別小於貼 附反射偏光膜之片材之2色偏光膜之片材的膜寬度wi及切 斷間隔L1 ’從而可進行考慮有各自之片材之貼附偏差之貼 合〇 使;親膜為内側，在剝離機構前端部折返，將反射偏光膜 之片材從該襯膜剝離，並供給至貼附位置。且，一面搬送 液晶面板，一面將從襯膜剝離之反射偏光膜之片材介隔粘 著劑貼附於2色偏光膜之片材（貼附子步驟，S24)。貼附機 構與上述貼附機構相同。搬送子步驟係將貼附有反射偏光 1602l6.doc 19 201232097 膜之液晶面板搬送至下一個步驟。 作為上述實施形態之其他實施形態，在膜寬方向具有透 射軸之2色偏光膜，積層與膜寬方向正交之長度方向具有 透射軸之反射偏光膜之情形，將液晶面板之搬送路線構成 為L字狀，在將2色偏光膜之片材積層於液晶面板後，沿著 L字狀之搬送路線搬送該液晶面板，將反射偏光膜之片材 以使該等之透射軸方向為相同方向的方式，積層於該2色 偏光膜之片材》 亦可於液晶面板之背 於液晶面板之目視側 又’作為上述實施形態之其他例， 面側積層2色偏光膜之片材，其次， 積層2色偏光膜之片材，然後，進行檢查，接著在已積層 於背面側之2色偏光膜之片材貼附反射偏光膜。 又，作為上述實施形態之其他例，片材積層步驟進一步 包含檢查光學膜(2色偏光膜、反射偏光膜)之膜檢查子步 驟，切斷子㈣絲㈣檢查子㈣之檢查結果，切斷該 光學膜。再者，切斷子步驟進一步包含排除子步驟，其係 以膜檢查子步驟之檢查結果，將韻為不良品之光學膜切 斷成特定尺寸（以避開缺陷的方式切斷（所謂的跳躍切 割）），排除判斷為不良品之光學膜之片材。又，膜檢查子 步驟亦可讀取預先附著於光學膜或襯膜之缺陷資訊，基於 該缺陷資訊’以避開缺陷的方式切斷。作為缺陷檢查方 法有例如對光學膜攝影透射光或反射光產生之圖像，將 該圖像進行圖像處理，解析缺陷，判斷是良品還是不良 品。再者’圖像處理之運算法可適㈣知之方法，可藉由' 160216.doc 201232097 例如利用一值化處理之濃淡判斷檢測缺陷。將缺陷檢查中 獲得之缺陷之資訊與其位置資訊（例如，位置座標）一起連 接，發送至控制裝置（未圖示），有助於切斷子步驟之切斷 處理。 又，進而作為其他例，較佳為在膜檢查子步驟中，在將 襯膜從光學膜（2色偏光膜、反射偏光膜）剝離之狀態下，進 行光#膜之檢查，檢查後，將襯膜介隔粘著劑貼合於光學 膜。 又，可取代上述實施形態之2色偏光膜之連續輥或反射 偏光膜之連續輥，使用所謂的有缺口之2色偏光膜之連續 輥或有缺口之反射偏光膜之連續輥。該情形，可省略切斷 子步驟。 又，在上述實施形態中，雖係連續進行2色偏光膜（第 1、第2)片材積層步驟、檢查步驟、及反射偏光膜（第3)片 材積層步驟者，但實施形態並不限制於此。例如，作為其 他實施形態’亦可在連續進行第^材積層步驟及第2片材 積層步驟後，連續進行檢查步驟及第3片材積層步驟，亦 可在連續進行第1片材積層步驟、第2片材積層步驟及檢查 步驟後，進行第3片材積層步驟。在未連續之步驟間，亦 可將液晶面板收納於收納部。 又，在上述實施形態中，積層於液晶面板之一面之2片 片材為2色偏光膜及反射偏光膜，但並不限制於此，可為 其他光學膜’亦可在相同之片材積層步驟中積層第3片材 (以後）之光學膜。 1602I6.doc 21 201232097 (液晶顯示元件之製造系統） 一面參照圖3 —面說明實施形態丨之液晶顯示元件之製造 系統。液晶顯示元件之製造系統具備2個以上光學膜之片 材積層裝置，該裝置具備：從捲繞積層有含有粘著劑之特 定膜寬之光學膜的襯膜而成之連續輥，搬送該襯膜之襯膜 搬送機構；留下該襯膜，在與光學膜之長度方向正交之膜 寬方向，以特定之切斷間隔將該光學膜切斷，形成光學膜 之片材之切斷機構；搬送液晶面板之搬送機構；及一面搬 送前述液晶面板，一面將從前述襯膜剝離之前述片材介隔 前述粘著劑積層於該液晶面板側之貼附機構，該2個以上 之片材積層裝置為例如後述之第1片材積層裝置、第2片材 積層裝置、及第3片材積層裝置，液晶顯示元件之製造系 統具備以下裝置：於液晶面板之第丨面（例如目視側）積層光 學膜之片材之第1片材積層裝置；於前述液晶面板之第2面 (例如背面側）積層光學膜之片材之第2片材積層裝置；將兩 面形成有前述光學膜之片材之前述液晶面板進行光學檢查 之檢查裝置，及利用前述檢查裝置之檢查後，在積層於第 1面或第2面之光學膜之片材，積層光學膜之片材之第3片 材積層裝置。在本實施形態中，係將第1片材積層裝置、 第2片材積層裝置、檢查裝置 '及第3片材積層裝置配置於 連續生蓋線。 以下’將積層於液晶面板之兩面之光學膜設為2色偏光 膜’將在利用檢查裝置之檢查後貼附於一者之2色偏光膜 之片材’藉此積層於液晶面板側之光學膜作為反射偏光膜 160216.doc • 22- 201232097 進行說明。將積層於液晶面板之背面側之2色偏光膜及反 射偏光膜’作為與膜寬方向正交之長度方向具有透射軸 者’而將積層於液晶面板之目視側之2色偏光膜，作為膜 寬方向具有透射軸者進行說明。即，前述第1、第2片材積 層裝置為將2色偏光膜之片材積層於液晶面板之偏光獏之 片材積層裝置’前述第3片材積層裝置係在積層於第1面或 第2面之2色偏光膜之片材之一者上，以使該一者之2色偏 光膜之片材之透射軸方向與反射偏光膜之片材之透射軸方 向為相同方向的方式，貼附該反射偏光膜之片材之反射偏 光膜之片材積層裝置。 2色偏光膜之片材積層裝置5〇丨係於液晶面板之目視側積 層2色偏光膜之片材。2色偏光膜之片材積層裝置502係於 液.晶面板之背面側積層2色偏光膜之片材。反射偏光膜之 片材積層裝置503係在積層於液晶面板之背面側之2色偏光 膜之片材，積層反射偏光膜之片材。2色偏光膜之膜寬度 W1較佳為大於反射偏光膜之膜寬度W2(參照圖4)。在本實 施形態中，兩者之關係為2色偏光膜之膜寬度W1 >反射偏 光膜之膜寬度W2(參照圖4)。 如圖3所示，片材積層裝置50丨包含襯膜搬送機構1〇1、 液晶面板搬送機構102、及貼附機構1〇3(貼附輥50a、驅動 輥50b)。又，片材積層裝置502包含襯膜搬送機構2〇1、液 晶面板搬送機構202、貼附機構203(貼附輥50a、驅動輥 5()b)。又’片材積層裝置503包含液晶面板搬送機構302、 襯膜搬送機構301、貼附機構3〇3(貼附輥50a、驅動輥 160216.doc -23- 201232097 5Ob)。在本實施形態中’從液晶面板4之上側（目視側）貼附 2色偏光膜之片材1 3 1 ’其次’使貼附有片材i 3 1之液晶面 板4上下反轉’從該液晶面板4之上側（背面側）貼附2色偏光 膜之片材131。且’在以反射式檢查裝置400進行檢查後， 從該液晶面板4之上側（背面側）貼附反射偏光膜之片材 2 3 1。再者’該貼附方法並不受限制，可從液晶面板之下 側貼附一者或兩者之2色偏光膜之片材，亦可從液晶面板 之下側貼附反射偏光膜之片材。 又’在本實施形態中，由於積層於液晶面板之目視側之 2色偏光膜在其膜寬方向具有透射轴，而積層於液晶面板 之背面側之2色偏光膜在與其膜寬方向正交之長度方向具 有透射軸，故無需將液晶面板旋轉90。，即可以直線路線 將2色偏光膜分別積層於液晶面板之目視側與背面側。 首先’說明2色偏光膜之片材積層裝置501。 (液晶面板搬送機構） 液晶面板搬送機構10 2係將液晶面板4搬送供給至貼附機 構103。在本實施形態中’液晶面板搬送機構1 〇2之構成為 具有搬送親80及吸附板等。藉由旋轉搬送輥8〇，或移送吸 附板’將液晶面板4向生產線下游側搬送。 (襯膜搬送機構） 襯膜搬送機構101係從連續輥1送出積層有含有粘著劑之 2色偏光膜13之襯膜12’留下襯膜12，將2色偏光膜13以特 定之切斷間隔切斷，於襯膜12上形成2色偏光膜之片材 131，並使襯膜12作為内側，在剝離機構4〇之前端折返， 160216.doc -24 - 201232097 將2色偏光膜之片材13 1(含有粘著劑）從襯膜丨2剝離，供給 至貼附機構103、203。因此，襯膜搬送機構ιοί包含切斷 機構20、調節輥30、剝離機構4〇、及捲繞機構6〇。 切斷機構20係以吸附機構2〇a固定襯膜12，留下襯膜， 將2色偏光膜13以特定間隔切斷，於襯膜丨2上形成2色偏光 腹-之片材13 1。作為切斷機構2 〇 ’舉例有例如切割器、雷 射裝置等。 調節輥3 0具有保持襯膜丨2之張力之功能。襯膜搬送機構 101係經由調節輥30搬送襯膜12。 剝離機構40在於液晶面板4貼附片材131之情形時，使襯 胰12作為内側，在其前端部折返，將片材131從襯膜丨之剝 離。在本實施形態中，作為剝離機構4〇，係於前端部使用 尖銳刀口部’但並不限定於此。 捲燒機構60係捲繞經剝離片材13丨之襯膜12。再者，亦 可於貼附機構103與捲繞機構6〇之間，進一步具備進給 輥。 (貼附機構） 貼附機構103係從由液晶面板搬送機構1〇2供給之液晶面 板4之上側（目視側）介隔粘著劑貼附由襯膜搬送機構1 〇 1供 給之2色偏光膜之片材131。在本實施形態中，貼附機構 1 <)3係由貼附輥5〇a、驅動輥5〇b構成。 其次，說明2色偏光膜之片材積層裝置5〇2。由於片材積 層裝置501、502由相同之符號表示之各構成要素為相同之 功能’故簡單地進行說明。 160216.doc •25· 201232097 液晶面板搬送機構202係將液晶面板4搬送供給至貼附機 構203 〇液晶面板搬送機構202具有使積層於目視側之液晶 面板4上下反轉之反轉部90。襯膜搬送機構ι〇1係從連續輥 1送出積層有含有粘著劑之2色偏光膜13之襯膜12，留下襯 膜12 ’將2色偏光膜13以特定之切斷間隔L1切斷，於襯膜. 12上形成2色偏光膜之片材131，並使襯膜12作為内側，在 剝離機構40之前端折返，將2色偏光膜之片材131(含有粘 著劑）從襯膜12剝離，供給至貼附機構203。貼附機構203 係從由液晶面板搬送機構202供給之液晶面板4之上側（背 面側）介隔粘著劑貼附由襯膜搬送機構2 〇 1供給之2色偏光 膜之片材131。 其次，說明反射式檢查裝置40(^兩面積層有2色偏光膜 之片材13 1之液晶面板4係由液晶面板搬送機構2〇2搬送至 反射式檢查裝置400。反射式檢查裝置4〇〇係將液晶面板4 進行光學檢查。反射式檢查裝置4〇〇係垂直於作為搬送來 之液晶面板4之背面側之面（圖3中從上向下之方向），照射 光。來自照射部4〇1之光在半反射鏡（未圖示）反射，從而照 射停止狀態之液晶面板4 »該照射產生之反射光學影像由 攝像機構402攝像。再者，亦可以攝像機構4〇3攝像該透射 光學影像。由攝像獲得之反射光學影像（及透射光學影像） 之圖像資料以反射式檢查裝置4〇〇之資訊處理部進行圖像 處理，解析缺m，並以其判斷部判斷是良品還是不良品。 作為上述反射式檢查裝置之其他例，亦可以特定之角度 (相對於該液晶面板例如45。〜89。），對作為液晶面板4之背 160216.doc • 26 - 201232097 面側之面照射光’並以攝像機構攝像在液晶面板面反射之 反射光學影像。 其次’利用反射式檢查裝置400之檢查後，在積層於作 為液晶面板4之背面側之面之2色偏光膜之片材1 3 1，以使 該2色偏光膜之片材131之透射軸之方向與反射偏光膜之片 材232之透射軸方向為相同方向的方式，積層反射偏光膜 之片材232。片材積層裝置503對根據檢查結果判斷為良品 之液晶面板，於2色偏光膜之片材131貼附反射偏光膜之片 材23 1。而對根據檢查結果判斷為不良品之液晶面板，搬 送至不良品埠進行排除。再者，不良品之液晶面板亦可藉 由液晶面板搬送機構302、貼附機構303、搬送機構3 04， 搬送至不良品槔。 說明反射偏光膜之片材積層裝置503。反射偏光膜之片 材積層裝置503為在積層於液晶面板4之背面側之2色偏光 膜之片材13 1，貼附反射偏光膜之片材23 1之裝置，由於為 與2色偏光膜之片材積層裝置5(n、502相同之構成，故簡 單地進行說明。 液晶面板搬送機構302係搬送藉由貼附機構1〇3、203而 於兩面貼附有片材13 1之液晶面板4，並供給至貼附機構 3 03。 襯膜搬送機構301可由與襯膜搬送機構1〇1相同之裝置構 成’而貼附機構303可由與貼附機構1〇3相同之裝置構成。 例如’調節輥可由與調節輥3〇相同之裝置構成，捲繞機構 可由與捲繞機構60相同之裝置構成，貼附輥及驅動輥可由 160216.doc -27- 201232097 與貼附輥50a及驅動輥50b相同之機構構成。 切斷機構20係以吸附機構20a固定襯膜22，留下襯膜 22，以特定間隔L2(L1 > L2)切斷反射偏光膜23，並於襯膜 22上形成反射偏光膜之片材231。 貼附機構303係從由液晶面板搬送機構302供給之液晶面 板4之上側（背面側）介隔粘著劑，於2色偏光膜之片材13 1貼 附由襯膜搬送機構301供給之反射偏光膜之片材231。 (控制部） 控制部300係控制切斷機構20及襯膜搬送機構1 〇 1、 201、301，控制2色偏光膜之片材13丨之切斷間隔L1、反射 偏光膜之片材23 1之切斷間隔L2。切斷間隔L1為與2色偏光 膜之片材131之膜寬方向正交之方向的長度（參照圖4)。切 斷間隔L2為與反射偏光膜之片材231之膜寬方向正交之方 向的長度（參照圖4)。例如，控制部3〇〇係以使切斷之特定 間隔LI、L2預先記憶於控制部3〇〇之記憶體，並以該特定 之間隔LI、L2進行切斷的方式，控制襯膜之進給量及切斷 處理。進給量可藉由例如測定構成襯膜搬送機構丨〇丨、工 之一部份之進給輥等之旋轉量的編碼器之檢測進行測定。 控制部300較佳為以使反㈣光膜之L2小於2色偏光膜之^ 的方式，控制切斷機構2〇及襯膜搬送機構卜 液晶面板搬送機構3〇4係將兩面積層有2色偏光膜之片材 及奇面側積層有反射偏光膜之片材23 1之液晶面板 4(液晶顯示元件）搬送至下游側。 又 亦可在搬送下游側 使用其他之片材積層裝置，於 160216.doc -28· 201232097 任意一個液晶面板面貼附光學膜之片材。 上述之各機構、裝置之動作時序係以例如於特定之位置 配置感測器進行檢測之方法計算，或以旋轉編碼器等檢測 搬送機構或搬送機構之旋轉構件的方式予以計算。控制部 可藉由軟體程式與CPU、記憶體等之硬體資源之協同作用 實現，該情形之程式軟體、處理程序、各種設定等被預先 記憶於記憶體。又，可由專用電路或韌體等構成。 在上述貫施形態中，雖為將2色偏光膜（第丨、第2)片材 積層裝置、檢查裝置、及反射偏光膜（第3)片材積層裝置配 置於連續生產線者，但實施形態並不限制於此。例如，作 為其他實施形態，可將第丨片材積層裝置及第2片材積層裝 置配置於連續生產線，而將檢查裝置及第3片材積層裝置 配置在與該連續生產線不同之生產線，亦可將第i片材積 層裝置、第2片材積層裝置及檢查裝置配置於連續生產 绨’而將前述第3片材積層裝置配置於另一生產線。在未 連續之裝置之間，亦可將液晶面板收納於收納部。 (實驗例） 準備1000片於液晶面板（32英寸，縱4〇〇 1χ橫寬5 mm)之兩面積層有2色偏光膜（曰東電工股份有限公司製 VEGQ1724DU)之片材之樣品，以上述反射式檢查裝置檢 查之結果，1000片中20片判斷為不良（凹痕 '氣泡）。在判 斷為該不良之20片樣品中’在積層於作為液晶面板之背面 側之面之2色偏光膜之片材，積層反射偏光膜（3m公司製 DBEF)之片材，如上所述，以反射式檢查襄置進行檢查。 160216.doc •29· 201232097 其結果，20片中7片判斷為不良。根據該實驗，可知在積 層反射偏光膜前實行反射式檢查較為有效。 【圖式簡單說明】 圖1係液晶顯示元件之製造方法之流程圖。 圖2係液晶顯示元件之製造方法之流程圖。 圖3係用於說明液晶顯示元件之製造系統之圖。 圖4係於液晶面板積層有2片片材之狀態之模式圖。（心係 顯示2色偏光膜之片材之積層（兩面）。（b)係_ 土 τ'續示反射偏无 膜之片材之積層。（c)係顯示液晶顯示裝置。 【主要元件符號說明】 1、2、3 連續輥 4 液晶面板 12 襯膜 13 2色偏光膜 20 切斷機構 20a 吸附機構 22 襯膜 23 反射偏光膜 30 調節輥 40 剎離機構 50a 貼附輥 50b 驅動輥 60 捲繞機構 80 搬送輥 160216.doc • 30 - 201232097 90 101 、 201 、 301 102 ' 202 ' 302 103 、 203 、 303 131 231 300 304 400 401 402 ' 403 501 、 502 、 503 反轉部 襯膜搬送機構 液晶面板搬送機構 貼附機構 2色偏光膜之片材 反射偏光膜之片材 控制部 搬送機構 反射式檢查裝置 照射部 攝像機構 片材積層裝置 160216.doc -31 -201232097 VI. Description of the Invention: The present invention relates to a method of manufacturing a liquid crystal display element and a system for manufacturing a liquid crystal display element. [Prior Art] Patent Document 1 discloses that a plurality of optical films are used for each optical film. A method of manufacturing a liquid crystal display element by sequentially laminating a liquid crystal panel. Specifically, the film is fed from a continuous roll in which a film of an optical film is laminated, and a liner film is left, and the film is cut into a specific size (half-cut) in the film width direction to form a sheet. A material, and a sheet of the release liner is attached to the liquid crystal panel, and a film of the next optical film is sequentially laminated on the optical film laminated on the liquid crystal panel. [Problem to be Solved by the Invention] In the above Patent Document 1, since two or more sheets are sequentially laminated on a liquid crystal panel, Therefore, it is feared that foreign matter or the like will bite into the adhesive. Assuming that a foreign matter or the like is formed, in the next sheet lamination process, a new sheet is further laminated on the liquid crystal panel, and as a result, the yield of the optical film is deteriorated. Further, there is a liquid crystal panel (liquid crystal display element) which optically inspects two layers of an optical film, and the desire to ride is a defect. The liquid crystal display element manufactured by the manufacturing method of the above-mentioned patent 160216.doc 201232097 document 1 is also the same. However, the optical film also has an optical inspection property which lowers the inspection accuracy of the optical inspection. As such an optical ray, for example, a brightness enhancement film such as a reflective polarizing film or a retardation film can be exemplified. Further, in the defect inspection based on the reflected optical image, the reflective polarizing film is estimated to be liable to lower the inspection accuracy according to its characteristics. The present invention has been made in view of the above-described actual circumstances, and in the case of providing a sheet of two or more optical films in a liquid crystal surface concentrating layer, the optical film yield is not lowered, and the optical inspection is not lowered (for example, A method of manufacturing a liquid crystal display element using inspection accuracy of inspection of reflected light and inspection using transmitted light, and a manufacturing system of a liquid crystal display element. The technical means for solving the problem is to solve the above problem. The result of the "repetitive research" is completed. The present invention is as follows: The method for manufacturing a liquid crystal display device of the present invention includes two or more optical, 'n-layered layers v, which includes: a continuous roll in which a lining film of an optical film having a film thickness of a special film containing a binder is wound, and a lining film transporting step of the lining film is carried out; leaving the lining film in the longitudinal direction of the optical film In the film width direction of the positive film, the optical film is cut and formed at a specific cutting interval, and the film forming step of the film is formed; the transfer sub-step of transporting the liquid crystal panel; and the transfer of the liquid crystal panel a liquid crystal panel, wherein the surface of the liquid crystal panel is laminated on the liquid crystal panel side by interposing the above-mentioned adhesive film from the backing film; and the following steps are included; a first sheet laminate step of the sheet I60216doc 201232097; a second sheet stacking step of the sheet of the second area layer optical film of the liquid crystal panel; and the liquid crystal having the surface of the sheet of the optical film formed on both sides panel Line optical inspection of the inspection step; step and after the inspection, on a sheet laminated on the optical film or the first surface of the second surface, the third laminated sheet of the optical film laminate sheeting step. According to this configuration, since the liquid crystal panel can be optically inspected after the two-layer optical film is used, for example, a liquid crystal panel of a good product (normal product) is further laminated with a sheet of another optical film, so that the yield of the optical film can be prevented. Will decrease. In the embodiment of the invention described above, the second sheet stacking step, the inspection step, and the third sheet stacking step are described in the step of continuously performing the second sheet stacking step. By this means, since the liquid crystal display element of the sheet of the optical film having two layers of the liquid crystal panel (the liquid crystal panel has two sheets of the area layer) can be continuously manufactured, the productivity can be improved. X. In another embodiment, after the first sheet stacking step and the second sheet stacking step are continuously performed, the step of continuously performing the inspection step and the third sheet stacking step may be performed continuously. 1 > 5 material lamination step, the second sheet laminating step, and inspection I & The above-described inspection step of the invention is based on the inspection of the optical image obtained by irradiating light to the liquid crystal panel of the sheet on which the optical film is formed on both sides, and the defect is checked; and j ^ & The sheet of the optical film has a characteristic of lowering the inspection accuracy of the aforementioned inspection step. As the optical film, there is exemplified a brightness enhancement film specifically for the polarizing film of 160216.doc 201232097. According to this configuration, it is possible to perform an optical inspection without lowering the inspection accuracy, and to form a sheet of an optical film in which the inspection accuracy is lowered after the inspection. In another embodiment of the invention, the first sheet and the second sheet stacking step are preferably a sheet stacking step of laminating a sheet of a two-color polarizing film on a polarizing film of a liquid crystal panel, and the third sheet is formed. Preferably, the laminating step is performed on one of the sheets of the two color polarizing films laminated on the first surface or the second surface so that the direction of the transmission axis of the sheet of the two color polarizing films of the one and the reflective polarizing film The sheet-layering step of attaching the reflective polarizing film of the sheet of the reflective polarizing film to the same direction of the transmission axis of the sheet. According to this configuration, it is determined that the liquid crystal panel is judged to be a good liquid crystal panel, and the liquid crystal panel is judged to be a reflective liquid crystal panel, and the liquid crystal panel is determined to be a defective liquid crystal panel before the reflective layer is reflected. The polarizing film is completed, so that the yield of the reflective polarizing film can be improved. In the above-described embodiment, it is preferable that a two-color polarizing film having a transmission axis in a longitudinal direction orthogonal to the film width direction is laminated on the liquid crystal panel in the sheet stacking step of the two-color polarizing film. After the sheet, in the sheet stacking step of the reflective film, the sheet of the two-color polarizing film is attached to the sheet having the transmission axis of the transmission axis in the longitudinal direction orthogonal to the film width direction. material. According to this configuration, a two-color polarizing film having a transmission axis in the longitudinal direction (MD direction) and an absorption axis in the film width direction can be used. When the transmission axis of the two-color polarizing film is in the longitudinal direction (MD direction) and the transmission axis of the polarizing film is reflected in the longitudinal direction 160216.doc 201232097 (MD direction), the two-color polarizing film and the reflected polarized light can be obtained. The conveying direction of the film and the liquid crystal panel is the same direction, so that the production line can be made a straight line without using a complicated mechanism such as a rotating mechanism. Moreover, the manufacturing system of the liquid crystal display element of another invention is equipped with the sheet-layering apparatus of two or more optical films, and this apparatus is equipped with the winding of the film of the optical 臈 which laminated the specific film width containing the adhesive agent. a continuous roll that transports the liner film transport mechanism; and the liner film is left, and the optical film is cut at a specific cutting interval in a film width direction orthogonal to the longitudinal direction of the optical film. a cutting mechanism for forming an optical sheet; a conveying mechanism for conveying the liquid crystal panel, and a sheet which is separated from the backing film while being conveyed by the liquid crystal panel; a mounting mechanism on the liquid crystal panel side; and comprising: a second sheet stacking device for the sheet of the first area layer optical film of the liquid a panel; a sheet of the second area layer optical film of the liquid crystal panel a second sheet stacking device; an inspection device for optically inspecting the liquid crystal panel on which the sheet of the optical film is formed on both sides; and after being inspected by the inspection device, laminated on the second side or the second side Studies on the film sheet 3 laminated sheet of the optical film laminate sheeting apparatus. According to this configuration, since the liquid crystal panel can be optically inspected after the two-layer optical film is applied, for example, a liquid crystal panel of a good product (normal product), and a sheet of another optical film is further laminated, the optical film can be formed. The yield will not decrease. According to an embodiment of the invention, the second sheet stacking device, the second sheet stacking device, the inspection device, and the third sheet stacking device are disposed in a continuous production line. Thereby, since the liquid crystal display element of the sheet of the optical film (one area layer of the liquid crystal panel) can be continuously produced in the two-layer layer of the liquid crystal panel, productivity can be improved. Further, as another embodiment, the above-mentioned first! The sheet stacking device and the second sheet stacking device are disposed on a continuous production line, and the inspection device and the third sheet stacking device are disposed on a production line different from the continuous production line, and the first sheet laminating device may be disposed The second sheet stacking device and the inspection device are disposed on a continuous production line, and the third sheet stacking device is disposed on another production line. According to an embodiment of the present invention, the inspection apparatus detects defects by detecting a reflection optical image obtained by irradiating light to a liquid crystal panel on which a sheet of an optical film is formed on both sides, and is laminated after inspection by the inspection apparatus. The sheet of the film has characteristics of lowering the inspection accuracy of the above-described inspection apparatus. As the optical v film, a brightness improving film such as a reflective polarizing film is exemplified. According to this configuration, the optical film of the optical film can be optically inspected without lowering the inspection accuracy, and the film can be laminated to reduce the inspection accuracy. In another aspect of the invention, the first and second sheet stacking apparatuses are preferably formed by laminating a sheet of a two-color polarizing film on a polarizing film of a liquid crystal panel, and a layer stacking device. Preferably, the sheet stacking device is formed on one of the sheets of the 1 1602I6.doc 201232097 color polarizing film laminated on the first surface or the second surface to transmit the sheet of the two color polarizing film of the one. A sheet laminating device for attaching the reflective polarizing film of the sheet of the reflective polarizing film to the same direction as the transmission axis direction of the sheet of the reflective polarizing film. According to this configuration, after the liquid crystal panel having the two-color polarizing film of the two-layer layer is inspected before the laminated layer is reflected, the liquid crystal panel is judged to be a good reflection of the polarizing film, and the liquid crystal panel determined to be defective is not laminated. The polarizing film is completed, so the yield of the reflective polarizing film can be improved. Moreover, in the above-mentioned embodiment, it is preferable that the sheet-layering apparatus of the two-color polarizing film is formed on the liquid crystal panel by laminating a two-color polarizing film having a transmission axis in the longitudinal direction orthogonal to the film width direction. The sheet laminate device of the reflective polarizing film is attached to a sheet of the two-color polarizing film to a sheet having a reflection polarizing film having a transmission axis in the longitudinal direction of the positive direction of the film width direction. According to this configuration, a two-color polarizing film having a transmission axis in the longitudinal direction (MD direction) and an absorption axis in the film width direction can be used. When the transmission axis of the two-color polarizing film is in the longitudinal direction (MD direction) and the transmission axis of the polarizing film is reflected in the longitudinal direction (MD direction), the two-color polarizing film, the reflective polarizing film, and the liquid crystal can be obtained. Since the conveying direction of the panel is the same direction, the production line can be made into a straight line without using a complicated mechanism such as a rotating mechanism. Further, in another method of manufacturing a liquid crystal display device of the present invention, there are provided a step of laminating two sheets of a photoprecipitated film, the step comprising: a sheet of an optical film having a dry film from a laminate having adjacent layers The lining film (4) is a sub-film transfer sub-step of transporting the lining film; a transport sub-step of transporting the liquid crystal panel; and the above-mentioned sheet which has been peeled off from the lining while moving the liquid crystal panel a step of attaching the material to the liquid crystal panel side via the drying agent; and comprising the steps of: forming a second sheet of the sheet of the first area layer optical film of the liquid crystal panel; a second sheet stacking step of the sheet of the second area layer optical film of the liquid crystal panel; an inspection step of optically inspecting the liquid crystal panel on which the sheet of the optical film is formed on both sides; and an inspection step after the inspection step A third sheet lamination step of the sheet of the optical film is laminated on the sheet of the optical film of the second side or the second side. Thereby, since the continuous roll (so-called notched continuous roll) obtained by winding a liner film of a sheet of an optical film having a plurality of adjacent layers can be used, the cutting step can be omitted. Moreover, the manufacturing system of the liquid crystal display element of another invention is provided with the sheet-layering apparatus of two or more optical film, and this apparatus is equipped with the sheet|seat of the optical film containing the adhesive agent of the several laminated|stacks. a continuous winding of the lining film, a lining film transport mechanism for transporting the lining film, a transport mechanism for transporting the liquid crystal panel, and a spacer for separating the detached film from the lining film while transporting the liquid crystal panel The adhesive layer is laminated on the liquid crystal panel side; and comprises: a second sheet laminate device of the first area layer optical film of the liquid crystal panel; 160216.doc 201232097 in the liquid crystal panel a second sheet stacking device for a second-area layer optical sheet; an inspection device for optically inspecting the liquid crystal panel in which the sheet of the shirt film is formed on both sides; and a layering after inspection by the inspection device A third sheet laminating apparatus for laminating a sheet of an optical film on a sheet of the optical film of the 24th surface or the 24th optical film. Since a continuous roll (so-called notched continuous roll) obtained by winding a film of a sheet of an optical film having a plurality of adjacent layers can be used, if the cutting mechanism is omitted or the cutting mechanism is provided in advance, The cutting mechanism can be stopped. Further, in one embodiment of the above manufacturing method, the sheet laminating step further includes a film inspecting step of inspecting the optical film, and the cutting substep is preferably performed by inspecting the optical film according to an inspection result of the film inspecting substep Broken. Inspection refers to the inspection of defects in the optical film. Further, in the case where the optical film is cut according to the result of the inspection, it is possible to configure the film to be cut away from the defective portion. It is preferable that the defective portion is cut into a specific size as a defective product, and is removed by, for example, a removing device so as not to be attached to the liquid crystal panel. Further, in the above-described embodiment, it is preferable that the optical film is inspected in a state in which the liner film is peeled off from the optical film in the film inspection substep, and the adhesion is interposed after the inspection. The primer is attached to the aforementioned optical film. Therefore, it is possible to carry out the optical inspection without considering the phase difference inherent in the liner film and the defects of the liner film or the foreign matter or flaws inside the liner 160. doc 12 201232097 Film defect inspection 0 and 'in the above embodiment' Preferably, the cutting step further includes an exclusion sub-step of determining the result of the inspection of the membrane inspection sub-step, cutting the optical film of the defective product into a specific size, and determining the optical film The sheets are excluded. The defect inspection is judged to be a defective product, and the film is cut into a specific ruler called a jump cut in a manner of avoiding the defective portion of the optical film, and the sheet containing the defective product is judged to be defective. For example, the known discharge device is excluded (removed). Borrow the yield of high optical film. 』 ΐ ΐ 杈 杈 杈 杈 杈 杈 杈 杈 杈 杈 杈 杈 杈 杈 杈 杈 杈 杈 杈 杈 杈 杈 杈 杈 杈 杈 杈 杈 杈 杈 杈 杈 杈 杈 杈 杈 杈 杈 杈 杈 杈 杈 杈 杈Further, it may be a structure in which other film members are laminated on the optical film. Further, examples of the optical film include, for example, a polarizer and a polarizing film, and the value of the confession of the pancreas is based on a polarizer and a double-sided or single-layer photo-protective film. In addition, there is also a layered surface for protecting the polarized photo or the polarized light m to relieve the surface protective film of the wound. Further, as another optical film, an optical compensation film such as a retardation film and an increase in brightness is exemplified. As the laminated optical film, a retardation film and/or a brightness enhancement film may be laminated on a polarizer or a polarizing film. The polarizing film is exemplified by, for example, a two-color polarizing film. The two-color polarizing film is a step of obtaining a polarizer by (8) drying a polyvinyl alcohol-based film subjected to dyeing, crosslinking, and stretching treatment; (8) a step of bonding a protective layer on one side or both sides of the polarizer. (c) Manufactured by a manufacturing method in which the step of heat treatment is carried out after bonding. The dyeing, cross-linking, and stretching of the polyethylene-based film are required to be carried out simultaneously, and the order of each treatment may be any, as a polyethylene film. A (4) dilute alcohol film can be used. In general, the polyethylene glycol film is impregnated with a sputum or a color pigment, and the sputum sputum or the two-color sputum is used for dyeing and cleaning, and contains boric acid or borax. In the solution, τ is dried by stretching at a stretching ratio of 3 仵 to 7 times uniaxially. After extending in a solution containing iodine._° and a color pigment, it is dried after being further extended (two-stage extension) in a solution containing boric acid or borax, and then dried, by w & Since the polarization characteristic of the iodine is increased, the brightness enhancement film is preferably a reflection polarizing film having a reflection axis and a transmission axis, for example. The reflective polarizing film is obtained by laminating a plurality of polymer films A and B of two different materials, for example, by laminating a plurality of layers. In the extending direction, only the refractive index of the material a increases and exhibits birefringence, and the direction in which the refractive index difference of the material AB interface extends is the reflection axis, and the direction in which the refractive index difference does not occur (non-extension direction) becomes the transmission axis. Further, the pressure-sensitive adhesive contained in the optical film is not particularly limited, and examples thereof include an acrylic acid-based pressure-sensitive adhesive, an anthraquinone-based pressure-sensitive adhesive, and a urethane-based pressure-sensitive adhesive. As the film, for example, a film of a plastic film (for example, a polyethylene terephthalate film, a polyolefin film, or the like) can be used. Further, if necessary, a suitable one of a coating agent such as a lanthanum or a long chain, such as lanthanum fluoride or sulphide, may be used. (Optical film and continuous Xingkun) In the present embodiment, it is not limited to the configuration in which the optical film is formed in a state in which the film is formed, for example, a continuous roll which can be wound in a roll shape. As a continuous roll 160216.doc 14 201232097 For example, (1) an optical film laminate roll-wound having a backing film and an optical film containing a drilling agent formed on the backing film. In this case, the continuous manufacturing system of the liquid crystal display element has a cutting mechanism which does not cut the liner to: 1. The optical film (containing the charm agent) is cut at a specific cutting interval (semi-cut) To form a sheet of an optical film from an optical film. In the cutting, for example, based on the inspection result of the defect inspection device in the continuous manufacturing system, the sheet is made to distinguish the sheet of the good product from the sheet of the defective product. Further, as the continuous roll, for example, (2) an optical film laminate having a liner film and a sheet containing an optical film of an adhesive formed on the liner film, a roll-shaped holder (so-called notched optical) Continuous roll of film). (Liquid Crystal Display Element) The liquid crystal display element is a sheet in which at least one (two colors) polarizing film is formed on one surface or both surfaces of the liquid crystal panel, and a driving circuit is required to be mounted as needed. As the liquid crystal panel, any type such as a vertical alignment (VA) type, a plane conversion (lps) type or the like can be used. The liquid crystal panel 4 shown in Fig. 1 has a configuration in which a liquid crystal layer is sealed between a pair of substrates (a second substrate and a second substrate) which are disposed opposite to each other. (Embodiment 1) (Manufacturing method of liquid crystal display element) Hereinafter, a method of manufacturing a liquid crystal display element includes a sheet stacking step of two or more optical films, and the step includes: containing a coating agent from the wound layer a continuous roll made of a film of a film width of a specific film width, and a step of transporting the film of the liner film; leaving the backing film in a film width direction orthogonal to the longitudinal direction of the optical film to specify a cutting step of cutting the optical film 160216.doc .15 - 201232097 to form a sheet of the optical film; a step of transporting the liquid crystal panel; and transferring the liquid crystal panel while having been The attaching step of laminating the lining film to the liquid crystal panel side via the adhesive, and the two or more sheet laminating steps are, for example, a first sheet laminating step and a second sheet laminating layer which will be described later. Step, and a third sheet lamination step. A method of manufacturing a liquid crystal display device includes the steps of laminating a second sheet of a sheet of an optical film on a first surface (for example, a visual side) of a liquid crystal panel, and laminating a second surface (for example, a back side) of the liquid crystal panel a second sheet stacking step of the sheet of the optical film; an inspection step of optically inspecting the liquid crystal panel on which the sheet of the optical film is formed on both sides; and the step of depositing on the second side or the second layer after the inspection step On the sheet of the optical film of the surface, a third sheet lamination step of the sheet of the laminated optical film. In the following, the optical film laminated on both surfaces of the liquid crystal panel is a two-color polarizing film, and the optical film laminated on one side of the two color polarizing film after the inspection step is laminated on the liquid crystal panel side as a reflective polarizing film. Be explained. The two-color polarizing film and the reflective polarizing film laminated on the back side of the liquid crystal panel have a transmission axis in the longitudinal direction orthogonal to the film width direction, and a two-color polarizing film laminated on the visual side of the liquid crystal panel is used as Description will be made on the transmission axis in the film width direction. In other words, the step of stacking the second sheet and the second sheet is a step of laminating a sheet of a two-color polarizing film on a sheet of a polarizing film of a liquid crystal panel, and the step of laminating the third sheet is to laminate the surface or the first sheet. In one of the two-sided polarizing film sheets, the transmission axis direction of the sheet of the two color polarizing films is the same as the transmission axis direction of the sheet of the reflective polarizing film. A sheet of reflective polarized light attached to the sheet of the reflective polarizing film 160216.doc 201232097 Lamination step. In the present embodiment, the second sheet accumulating step, the second sheet laminating step, the inspecting step, and the third sheet laminating step are continuously performed. Fig. 1 is a flow chart showing an example of a method of manufacturing a liquid crystal display element. A 2-color polarizing film (SI) is laminated on the surface of the liquid crystal panel (for example, on the visual side). The surface will be specifically described with reference to Fig. 2'. First, the continuous light of the two-color polarizing film is 1 η. armpit? A & soil &<only rare. The two-color partial film and the liner film are sent out from the continuous roll and conveyed to the downstream side (film transfer sub-step, S12). The conveying means is constituted by, for example, a feed roller, a tension roller, a regulating roller, a sensing unit for detecting the feed amount, a control unit for controlling the conveying speed or the feed amount, and the like. The liner film is left, and the two color polarizing films are cut at specific intervals in a film width direction orthogonal to the longitudinal direction of the two color polarizing film to form a sheet of two color polarizing films (cutting step, S13) . As the cutting mechanism, for example, a laser device, a cutter, or the like can be exemplified. The lining film is placed inside, and is folded back at the front end portion of the peeling mechanism, and the sheet of the two-color polarizing film is peeled off from the lining film, and is supplied to the attaching position, and the liquid crystal panel is transported, and the surface is separated from the anodic film by two-color polarized light. The sheet of the film is laminated on the liquid crystal panel side via an adhesive (attachment substep, S14). As the attaching means, for example, a roller for attachment is exemplified. Further, there is a winding sub-step of winding a liner film of the peeled sheet, and a transfer sub-step of transporting the liquid crystal panel to the attachment position. Further, in the transport sub-step, the liquid crystal panel to which the two-color polarizing film is attached is transported to the position % of the next reflective polarizing film. The transport mechanism of the liquid crystal panel is configured by, for example, a control unit for attaching a roller or a transfer roller, a control unit for controlling the conveyance speed or the feed amount, and the like. Next, a two-color polarized light 160216.doc 17 201232097 film sheet (S2) is laminated on the other surface (for example, the back side) of the liquid crystal panel. The sheet of the two-color polarizing film is laminated so that the transmission axis of the sheet of the two color polarizing film laminated in the step and the transmission axis 9〇〇 of the sheet of the two color polarizing film laminated therein are crossed. On the other side of the liquid crystal panel, the liquid crystal panel can be reversed up and down in response to the requirement. In the present embodiment, the two-color polarizing film laminated on the visual side of the liquid crystal panel has a film width direction. The two-color polarizing film laminated on the back side of the liquid crystal panel has a transmission axis in the longitudinal direction orthogonal to the film width direction, so there is no product 90. Rotating the liquid crystal panel can be two colors on a straight line. The polarizing film is laminated on the visual side and the back side of the liquid crystal panel. The surface of the liquid crystal panel will be described again with reference to Fig. 2. The continuous roll (S11) of the two color polarizing film is prepared. The film width wi of the two color polarizing film is preferably larger than the laminated layer. The film width W2 of the reflective polarizing film on the two-color polarizing film is sent from the continuous roll to the downstream side (the film transfer sub-step, s丨2). Film width direction orthogonal to the length direction of the 2-color polarizing film The two color polarizing films are cut at a specific cutting interval L1 to form a sheet of two color polarizing films (cutting step, S 13). The lining film is inside, and the end portion is folded back at the peeling mechanism. The sheet of the color shifting film is peeled off from the lining film and supplied to the attaching position. The sheet of the two-color polarizing film which is peeled off from the lining film is laminated on the liquid crystal panel side while the liquid crystal panel is being conveyed. Attaching the sub-step, S14) Next, the liquid crystal panel having the two-color polarizing film of two-layered layer is inspected (inspection step, S3). The inspection step is based on the liquid crystal panel of the sheet on which the two-color polarizing film is formed on both sides. Obtain the reflected optical image, check the defect (reflective inspection), and image the obtained reflected optical image by 160216.doc -18- 201232097 image analysis, and take the defect. The type and size of the defect taken The quantity is compared with the judgment criterion (proximity value) of the characteristic to judge whether it is a good product or a defective product (the judgment sub-step, S4). If the result of the judgment is good, the sheet of the polarizing film is laminated on the liquid crystal panel ( S5). On the other hand, if the result of the determination is not ', the sheet of the reflective polarizing film is not laminated, and the liquid crystal panel is excluded (excluding step, S6). Hereinafter, the sheet laminated on the two-color polarizing film will be described with reference to FIG. a sheet stacking step of reflecting the polarizing film. The continuous roll G21) for reflecting the polarizing film is prepared. The film width W2 of the reflective polarizing film is preferably smaller than the film width W1 of the laminated two-color polarizing film (see FIG. 4). The polarizing film and the lining film are conveyed from the continuous roll to the downstream side (the film transfer sub-step, S22), leaving the lining film in the film width direction orthogonal to the longitudinal direction of the reflective polarizing film, and the specific cutting interval L2 The reflective polarizing film is cut to form a sheet for reflecting the polarizing film (cutting step, S23). Here, the cutting interval L2 of the reflective polarizing film is preferably smaller than the cutting interval l1 of the two-color polarizing film. (Refer to Figure 4). The film width W2 and the cutting interval L2 of the sheet of the reflective polarizing film are smaller than the film width wi and the cutting interval L1 ' of the sheet of the two-color polarizing film to which the sheet of the reflective polarizing film is attached, respectively. The bonding of the respective sheets is adhered to the inner side of the peeling mechanism, and the sheet of the reflective polarizing film is peeled off from the backing film and supplied to the attaching position. Further, while the liquid crystal panel is being conveyed, the sheet of the reflective polarizing film which is peeled off from the liner film is adhered to the sheet of the two-color polarizing film by the adhesive (attachment step, S24). The attaching mechanism is the same as the above attaching mechanism. The transport sub-step transports the liquid crystal panel to which the reflective polarized light is attached to the next step. In another embodiment of the above-described embodiment, the two-color polarizing film having a transmission axis in the film width direction has a reflective polarizing film having a transmission axis in the longitudinal direction orthogonal to the film width direction, and the liquid crystal panel transport path is configured as In the L shape, after the sheet of the two color polarizing film is laminated on the liquid crystal panel, the liquid crystal panel is transported along the L-shaped transport path, and the sheet of the polarizing film is reflected so that the transmission axis directions are the same direction. The sheet laminated on the two-color polarizing film may be used as the other side of the above-described embodiment on the side of the liquid crystal panel facing the liquid crystal panel, and the sheet of the two-color polarizing film is laminated on the surface side, and secondly, A sheet of two color polarizing films was laminated, and then examined, and then a reflective polarizing film was attached to the sheet of the two color polarizing film laminated on the back side. Further, as another example of the above embodiment, the sheet stacking step further includes a film inspection substep of inspecting the optical film (two color polarizing film and reflective polarizing film), and cutting the inspection result of the sub (four) wire (four) inspection (four), and cutting off The optical film. Further, the cutting sub-step further includes a sub-step of cutting out the optical film of the defective product into a specific size by using the inspection result of the film inspection sub-step (cutting in a manner avoiding the defect (so-called jumping) Cutting)), excluding the sheet of the optical film judged to be defective. Further, the film inspection sub-step can also read the defect information previously attached to the optical film or the liner film, and cut off the defect information based on the defect information. As a defect inspection method, for example, an image generated by transmitting light or reflected light to an optical film is imaged, and the image is subjected to image processing to analyze a defect to determine whether it is a good product or a defective product. Furthermore, the image processing algorithm can be adapted to the method of the fourth method, and the defect can be detected by, for example, '160216.doc 201232097 using the shading of the binarization process. The information on the defect obtained in the defect inspection is connected with the position information (for example, the position coordinate) and transmitted to the control device (not shown), which helps to cut off the sub-step cutting process. Further, as another example, in the film inspection substep, it is preferable to perform inspection of the light film after the liner film is peeled off from the optical film (two color polarizing film or reflective polarizing film), and after inspection, The liner film is adhered to the optical film. Further, in place of the continuous roll of the two-color polarizing film of the above-described embodiment or the continuous roll of the reflective polarizing film, a so-called continuous roll of a notched two-color polarizing film or a continuous roll of a notched reflective polarizing film may be used. In this case, the cutting substep can be omitted. Further, in the above embodiment, the two-color polarizing film (first and second) sheet stacking step, the inspection step, and the reflective polarizing film (third) sheet layer stacking step are successively performed, but the embodiment is not Limited to this. For example, in another embodiment, after the step of laminating the second layer and the step of laminating the second sheet, the step of inspecting and the step of laminating the third sheet may be continuously performed, or the step of laminating the first sheet may be continuously performed. After the second sheet lamination step and the inspection step, a third sheet lamination step is performed. The liquid crystal panel may be housed in the storage portion between the steps that are not continuous. Further, in the above embodiment, the two sheets laminated on one surface of the liquid crystal panel are two-color polarizing film and reflective polarizing film. However, the present invention is not limited thereto, and other optical films may be laminated on the same sheet. The optical film of the third sheet (later) is laminated in the step. 1602I6.doc 21 201232097 (Manufacturing system of liquid crystal display element) A manufacturing system of a liquid crystal display element of an embodiment will be described with reference to Fig. 3 . A manufacturing system of a liquid crystal display device includes a sheet stacking device of two or more optical films, and the apparatus includes a continuous roll obtained by winding a film of a film having a specific film width including a pressure-sensitive adhesive, and transporting the liner a film lining film transfer mechanism; the lining film is left in a film width direction orthogonal to the longitudinal direction of the optical film, and the optical film is cut at a specific cutting interval to form a cutting mechanism for the optical film sheet And a transfer mechanism for transporting the liquid crystal panel; and the above-mentioned liquid crystal panel, the two or more sheets are interposed between the sheet from which the liner is peeled off, and the adhesive is laminated on the liquid crystal panel side. The layering device is, for example, a first sheet layering device, a second sheet layering device, and a third sheet layering device, which will be described later, and the manufacturing system of the liquid crystal display element includes the following device: the first surface of the liquid crystal panel (for example, the visual side) a first sheet laminating apparatus for laminating a sheet of an optical film; a second sheet laminating apparatus for laminating a sheet of an optical film on a second surface (for example, a back side) of the liquid crystal panel; and the light is formed on both surfaces An inspection apparatus for optical inspection of the liquid crystal panel of the film of the film, and a sheet of the optical film laminated on the optical film laminated on the first surface or the second surface after inspection by the inspection device 3 sheet laminate device. In the present embodiment, the first sheet layering apparatus, the second sheet layering apparatus, the inspection apparatus ', and the third sheet layering apparatus are disposed in a continuous green line. In the following, 'the optical film laminated on both sides of the liquid crystal panel is a two-color polarizing film', and the sheet of the two-color polarizing film attached to one of the two inspection films is inspected by the inspection device. The film is described as a reflective polarizing film 160216.doc • 22-201232097. A two-color polarizing film laminated on the back side of the liquid crystal panel and a reflective polarizing film 'having a transmission axis in the longitudinal direction orthogonal to the film width direction, and a two-color polarizing film laminated on the visual side of the liquid crystal panel as a film The case where the width direction has a transmission axis will be described. In other words, the first sheet material stacking device is a sheet stacking device in which a sheet of a two-color polarizing film is laminated on a polarizing plate of a liquid crystal panel. The third sheet layer stacking device is laminated on the first surface or the first sheet. In one of the two-sided polarizing film sheets, the transmission axis direction of the sheet of the two color polarizing films is the same as the transmission axis direction of the sheet of the reflective polarizing film. A sheet laminating apparatus comprising a reflective polarizing film of the sheet of the reflective polarizing film. The sheet-layering device 5 of the two-color polarizing film is a sheet of a two-color polarizing film which is laminated on the visual side of the liquid crystal panel. The sheet-layering device 502 of the two-color polarizing film is a sheet of a two-color polarizing film laminated on the back side of the liquid crystal panel. The sheet stacking device 503 for reflecting the polarizing film is a sheet of a two-color polarizing film laminated on the back side of the liquid crystal panel, and a sheet of the polarizing film is laminated. The film width W1 of the two-color polarizing film is preferably larger than the film width W2 of the reflective polarizing film (see Fig. 4). In the present embodiment, the relationship between the two is the film width W1 > of the two-color polarizing film; and the film width W2 of the reflective polarizing film (see Fig. 4). As shown in Fig. 3, the sheet stacking device 50A includes a liner transport mechanism 1A, a liquid crystal panel transport mechanism 102, and an attaching mechanism 1A3 (attach roller 50a, drive roller 50b). Further, the sheet stacking device 502 includes a liner transport mechanism 2〇1, a liquid crystal panel transport mechanism 202, and an attaching mechanism 203 (adhesive roller 50a and drive roller 5()b). Further, the sheet stacking device 503 includes a liquid crystal panel transport mechanism 302, a liner transport mechanism 301, and an attaching mechanism 3〇3 (attach roller 50a, drive roller 160216.doc -23-201232097 5Ob). In the present embodiment, the sheet 1 of the two-color polarizing film is attached from the upper side (the visual side) of the liquid crystal panel 4, and the liquid crystal panel 4 to which the sheet i 3 1 is attached is reversed. A sheet 131 of a two-color polarizing film is attached to the upper side (back side) of the liquid crystal panel 4. After the inspection by the reflective inspection apparatus 400, the sheet 2 31 having the reflective polarizing film is attached from the upper side (back side) of the liquid crystal panel 4. Furthermore, the attaching method is not limited, and one or both of the two color polarizing film sheets may be attached from the lower side of the liquid crystal panel, or a reflective polarizing film may be attached from the lower side of the liquid crystal panel. material. In the present embodiment, the two-color polarizing film laminated on the visual side of the liquid crystal panel has a transmission axis in the film width direction, and the two-color polarizing film laminated on the back side of the liquid crystal panel is orthogonal to the film width direction. Since the length direction has a transmission axis, it is not necessary to rotate the liquid crystal panel by 90. That is, the two color polarizing films can be laminated on the visual side and the back side of the liquid crystal panel, respectively, in a straight line. First, a sheet stacking device 501 of a two-color polarizing film will be described. (Liquid Crystal Panel Transfer Mechanism) The liquid crystal panel transport mechanism 10 2 transports and supplies the liquid crystal panel 4 to the attaching mechanism 103. In the present embodiment, the liquid crystal panel transport mechanism 1 〇 2 has a transporting member 80, an adsorption plate, and the like. The liquid crystal panel 4 is conveyed to the downstream side of the production line by rotating the transfer roller 8 or by transferring the suction plate. (Film Transfer Mechanism) The liner transfer mechanism 101 is configured to feed the liner film 12' of the two-color polarizing film 13 containing the adhesive from the continuous roll 1 to leave the liner film 12, and to cut the two color polarizing film 13 into a specific one. The sheet is cut at intervals, a sheet 131 of a two-color polarizing film is formed on the liner film 12, and the liner film 12 is used as an inner side, and is folded back at the front end of the peeling mechanism 4, 160216.doc -24 - 201232097 The sheet 13 1 (containing an adhesive) is peeled off from the liner 2 and supplied to the attaching mechanisms 103 and 203. Therefore, the film transport mechanism ιοί includes the cutting mechanism 20, the regulating roller 30, the peeling mechanism 4A, and the winding mechanism 6A. The cutting mechanism 20 fixes the liner film 12 by the suction mechanism 2〇a, leaves a liner film, cuts the two color polarizing film 13 at a specific interval, and forms a two-color polarized web sheet 13 on the liner film 2 . As the cutting mechanism 2 〇 ', for example, a cutter, a laser device, or the like is exemplified. The regulating roller 30 has a function of maintaining the tension of the liner 2 . The liner conveying mechanism 101 conveys the liner 12 via the regulating roller 30. In the case where the liquid crystal panel 4 is attached to the sheet 131, the peeling mechanism 40 is folded inside the front end portion of the pantotheon 12, and the sheet 131 is peeled off from the liner. In the present embodiment, the peeling mechanism 4A uses a sharp knife edge portion as the tip end portion, but is not limited thereto. The calcining mechanism 60 winds the liner film 12 of the release sheet 13A. Further, a feed roller may be further provided between the attaching mechanism 103 and the winding mechanism 6A. (Attachment Mechanism) The affixing mechanism 103 is attached to the upper side (visual side) of the liquid crystal panel 4 supplied from the liquid crystal panel transport mechanism 1A2, and the two-color polarized light supplied from the lining film transport mechanism 1 〇1 is attached via an adhesive. Sheet 131 of film. In the present embodiment, the attaching mechanism 1 <) 3 is composed of a bonding roller 5〇a and a driving roller 5〇b. Next, a sheet laminating apparatus 5〇2 of a two-color polarizing film will be described. Since the sheet stacking devices 501 and 502 have the same functions as the respective components denoted by the same reference numerals, the description will be briefly made. In the liquid crystal panel 4, the liquid crystal panel 4 is transported and supplied to the attaching mechanism 203. The liquid crystal panel transporting mechanism 202 has an inverting portion 90 that vertically inverts the liquid crystal panel 4 stacked on the visual side. The lining film transporting mechanism ι〇1 sends a lining film 12 in which a two-color polarizing film 13 containing an adhesive is laminated from the continuous roll 1, leaving the lining film 12' to cut the two color polarizing film 13 at a specific cutting interval L1. The sheet 131 of the two-color polarizing film is formed on the lining film 12, and the lining film 12 is used as the inner side, and is folded back at the front end of the peeling mechanism 40, and the sheet 131 (containing the adhesive) of the two-color polarizing film is removed from the film. The liner film 12 is peeled off and supplied to the attaching mechanism 203. The attaching mechanism 203 attaches the sheet 131 of the two-color polarizing film supplied from the liner transport mechanism 2 〇 1 to the upper side (back side) of the liquid crystal panel 4 supplied from the liquid crystal panel transport mechanism 202 via an adhesive. Next, the reflective inspection apparatus 40 (the liquid crystal panel 4 of the sheet 13 1 having the two-color polarizing film on both areas) is transported to the reflective inspection apparatus 400 by the liquid crystal panel transport mechanism 2〇2. The reflective inspection apparatus 4〇〇 The liquid crystal panel 4 is optically inspected, and the reflective inspection apparatus 4 is irradiated with light perpendicular to the surface of the back surface side of the liquid crystal panel 4 (from the top to the bottom in FIG. 3). The light of 〇1 is reflected by a half mirror (not shown) to illuminate the liquid crystal panel 4 in a stopped state. The reflected optical image generated by the irradiation is imaged by the imaging unit 402. Alternatively, the imaging unit 4〇3 may image the transmission. Optical image. Image data of the reflected optical image (and transmitted optical image) obtained by imaging is processed by the information processing unit of the reflective inspection device 4, and the missing image is analyzed, and the judgment unit determines whether it is good or not. As another example of the above-described reflective inspection apparatus, a specific angle (for example, 45 to 89 with respect to the liquid crystal panel) may be used as the back of the liquid crystal panel 4 160216.doc • 26 - 201232097 The surface of the surface is irradiated with light and the reflected optical image is reflected by the imaging unit on the surface of the liquid crystal panel. Next, the inspection by the reflective inspection apparatus 400 is carried out on the surface which is the back side of the liquid crystal panel 4. The sheet of the two-color polarizing film 133 is formed such that the direction of the transmission axis of the sheet 131 of the two-color polarizing film is the same as the direction of the transmission axis of the sheet 232 of the reflective polarizing film, and the reflective polarizing film is laminated. The sheet 232. The sheet stacking device 503 attaches the sheet 23 1 for reflecting the polarizing film to the sheet 131 of the two-color polarizing film for the liquid crystal panel which is judged to be good according to the inspection result, and judges that it is a defective product based on the inspection result. The liquid crystal panel is transported to the defective product and removed. Further, the liquid crystal panel of the defective product can be transported to the defective product by the liquid crystal panel transport mechanism 302, the attaching mechanism 303, and the transport mechanism 304. The sheet laminating device 503. The sheet laminating device 503 for reflecting the polarizing film is a sheet 13 1 to which a reflective polarizing film is attached to a sheet 13 of a two-color polarizing film laminated on the back side of the liquid crystal panel 4. The configuration is the same as that of the sheet stacking device 5 (n, 502) of the two-color polarizing film. The liquid crystal panel transport mechanism 302 is attached to both sides by the attaching mechanisms 1〇3 and 203. The liquid crystal panel 4 of the sheet 13 1 is supplied to the attaching mechanism 303. The lining film transport mechanism 301 can be constituted by the same device as the lining film transport mechanism 〇1, and the attaching mechanism 303 can be attached to the attaching mechanism 1 3 The same device is constructed. For example, the 'adjusting roller can be constituted by the same device as the adjusting roller 3〇, and the winding mechanism can be constituted by the same device as the winding mechanism 60, and the attaching roller and the driving roller can be used by 160216.doc -27-201232097 and The attaching roller 50a and the driving roller 50b have the same mechanism. The cutting mechanism 20 fixes the liner 22 with the adsorption mechanism 20a, leaves the liner 22, cuts the reflective polarizing film 23 at a specific interval L2 (L1 > L2), and forms a sheet of the reflective polarizing film on the liner film 22. 231. The attaching mechanism 303 interposes the adhesive from the upper side (back side) of the liquid crystal panel 4 supplied from the liquid crystal panel transport mechanism 302, and attaches the reflection supplied from the liner transport mechanism 301 to the sheet 13 1 of the two-color polarizing film. A sheet 231 of a polarizing film. (Control Unit) The control unit 300 controls the cutting mechanism 20 and the film transport mechanism 1 〇1, 201, and 301, and controls the cutting interval L1 of the sheet 13 of the two-color polarizing film, and the sheet 23 of the reflective polarizing film. The cut interval L2. The cutting interval L1 is a length in a direction orthogonal to the film width direction of the sheet 131 of the two-color polarizing film (see Fig. 4). The cutting interval L2 is a length in a direction orthogonal to the film width direction of the sheet 231 of the reflective polarizing film (see Fig. 4). For example, the control unit 3 controls the storage of the lining film so that the specific intervals LI and L2 of the cutting are previously stored in the memory of the control unit 3, and the cutting is performed at the specific intervals L1 and L2. The amount and cut processing. The feed amount can be measured by, for example, the measurement of an encoder that measures the amount of rotation of the feed roller or the like that constitutes the film transfer mechanism. Preferably, the control unit 300 controls the cutting mechanism 2 and the film transport mechanism, the liquid crystal panel transport mechanism 3〇4, so that the L2 of the anti-(four) light film is smaller than the two-color polarizing film. The liquid crystal panel 4 (liquid crystal display element) of the sheet of the polarizing film and the sheet 23 1 having the reflective polarizing film laminated on the odd side is transported to the downstream side. Alternatively, another sheet laminating device may be used on the downstream side of the transport, and an optical film sheet may be attached to any of the liquid crystal panels on the 160216.doc -28·201232097. The operation timing of each of the above-described mechanisms and devices is calculated by, for example, a method of arranging a sensor at a specific position, or a rotating member such as a rotary encoder or the like. The control unit can be realized by a software program in cooperation with hardware resources such as a CPU and a memory, and the program software, processing program, various settings, and the like in this case are memorized in advance in the memory. Moreover, it can be constituted by a dedicated circuit or a firmware. In the above-described embodiment, the two-color polarizing film (the second and second) sheet laminating apparatus, the inspection apparatus, and the reflective polarizing film (third) sheet laminating apparatus are disposed in a continuous production line, but the embodiment is Not limited to this. For example, in another embodiment, the second sheet stacking device and the second sheet stacking device may be disposed on a continuous production line, and the inspection device and the third sheet stacking device may be disposed on a production line different from the continuous production line. The i-th sheet laminating apparatus, the second sheet laminating apparatus, and the inspection apparatus are placed in a continuous production, and the third sheet laminating apparatus is placed on another production line. The liquid crystal panel may be housed in the storage portion between the devices that are not continuous. (Experimental Example) A sample of a sheet of a two-color polarizing film (VEGQ1724DU manufactured by Nippon Denshi Co., Ltd.) in two layers of a liquid crystal panel (32 inches, vertical 4 〇〇 1 χ width 5 mm) was prepared. As a result of the inspection by the reflective inspection apparatus, 20 of the 1000 sheets were judged to be defective (dents 'bubbles). In the 20 samples which were judged to be defective, the sheet of the two-color polarizing film laminated on the back surface side of the liquid crystal panel, and the laminated reflective polarizing film (DBEF manufactured by 3M Co., Ltd.) were as described above. The reflective inspection device is checked. 160216.doc •29· 201232097 As a result, 7 out of 20 were judged to be defective. According to this experiment, it is found that it is effective to perform a reflection type inspection before the laminated reflective film is reflected. BRIEF DESCRIPTION OF THE DRAWINGS Fig. 1 is a flow chart showing a method of manufacturing a liquid crystal display element. 2 is a flow chart showing a method of manufacturing a liquid crystal display element. Fig. 3 is a view for explaining a manufacturing system of a liquid crystal display element. Fig. 4 is a schematic view showing a state in which two sheets of a liquid crystal panel are laminated. (The heart shows the laminate of the two-color polarizing film (both sides). (b) The system _ soil τ' continues to show the laminate of the film with no film. (c) shows the liquid crystal display device. Description] 1, 2, 3 Continuous roller 4 Liquid crystal panel 12 Liner film 13 2 color polarizing film 20 Cutting mechanism 20a Adsorption mechanism 22 Liner film 23 Reflective polarizing film 30 Adjustment roller 40 Brake mechanism 50a Attaching roller 50b Driving roller 60 Roll Winding mechanism 80 conveying roller 160216.doc • 30 - 201232097 90 101 , 201 , 301 102 ' 202 ' 302 103 , 203 , 303 131 231 300 304 400 401 402 ' 403 501 , 502 , 503 reverse part lining film conveying mechanism liquid crystal Panel transport mechanism attaching mechanism 2 color polarizing film sheet reflective polarizing film sheet control unit transport mechanism reflective inspection device irradiation unit imaging mechanism sheet laminating device 160216.doc -31 -