TWI322888B - Inspection system and method for a color filter - Google Patents

Inspection system and method for a color filter Download PDF

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Publication number
TWI322888B
TWI322888B TW095113834A TW95113834A TWI322888B TW I322888 B TWI322888 B TW I322888B TW 095113834 A TW095113834 A TW 095113834A TW 95113834 A TW95113834 A TW 95113834A TW I322888 B TWI322888 B TW I322888B
Authority
TW
Taiwan
Prior art keywords
light
color
detection system
color filter
rti
Prior art date
Application number
TW095113834A
Other languages
Chinese (zh)
Other versions
TW200741193A (en
Inventor
Wen Hsien Lien
Meng Jen Chen
yuan hao Wen
Shih Hung Hsueh
Original Assignee
Au Optronics Corp
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by Au Optronics Corp filed Critical Au Optronics Corp
Priority to TW095113834A priority Critical patent/TWI322888B/en
Priority to KR1020060051899A priority patent/KR100807460B1/en
Publication of TW200741193A publication Critical patent/TW200741193A/en
Application granted granted Critical
Publication of TWI322888B publication Critical patent/TWI322888B/en

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Classifications

    • GPHYSICS
    • G01MEASURING; TESTING
    • G01NINVESTIGATING OR ANALYSING MATERIALS BY DETERMINING THEIR CHEMICAL OR PHYSICAL PROPERTIES
    • G01N21/00Investigating or analysing materials by the use of optical means, i.e. using sub-millimetre waves, infrared, visible or ultraviolet light
    • G01N21/84Systems specially adapted for particular applications
    • G01N21/88Investigating the presence of flaws or contamination
    • GPHYSICS
    • G01MEASURING; TESTING
    • G01NINVESTIGATING OR ANALYSING MATERIALS BY DETERMINING THEIR CHEMICAL OR PHYSICAL PROPERTIES
    • G01N21/00Investigating or analysing materials by the use of optical means, i.e. using sub-millimetre waves, infrared, visible or ultraviolet light
    • G01N21/17Systems in which incident light is modified in accordance with the properties of the material investigated
    • G01N21/25Colour; Spectral properties, i.e. comparison of effect of material on the light at two or more different wavelengths or wavelength bands
    • G01N21/27Colour; Spectral properties, i.e. comparison of effect of material on the light at two or more different wavelengths or wavelength bands using photo-electric detection ; circuits for computing concentration
    • GPHYSICS
    • G01MEASURING; TESTING
    • G01NINVESTIGATING OR ANALYSING MATERIALS BY DETERMINING THEIR CHEMICAL OR PHYSICAL PROPERTIES
    • G01N21/00Investigating or analysing materials by the use of optical means, i.e. using sub-millimetre waves, infrared, visible or ultraviolet light
    • G01N21/84Systems specially adapted for particular applications
    • G01N21/88Investigating the presence of flaws or contamination
    • G01N21/89Investigating the presence of flaws or contamination in moving material, e.g. running paper or textiles
    • G01N21/892Investigating the presence of flaws or contamination in moving material, e.g. running paper or textiles characterised by the flaw, defect or object feature examined
    • G01N21/896Optical defects in or on transparent materials, e.g. distortion, surface flaws in conveyed flat sheet or rod
    • GPHYSICS
    • G01MEASURING; TESTING
    • G01NINVESTIGATING OR ANALYSING MATERIALS BY DETERMINING THEIR CHEMICAL OR PHYSICAL PROPERTIES
    • G01N29/00Investigating or analysing materials by the use of ultrasonic, sonic or infrasonic waves; Visualisation of the interior of objects by transmitting ultrasonic or sonic waves through the object
    • G01N29/44Processing the detected response signal, e.g. electronic circuits specially adapted therefor
    • G01N29/46Processing the detected response signal, e.g. electronic circuits specially adapted therefor by spectral analysis, e.g. Fourier analysis or wavelet analysis
    • GPHYSICS
    • G06COMPUTING; CALCULATING OR COUNTING
    • G06TIMAGE DATA PROCESSING OR GENERATION, IN GENERAL
    • G06T7/00Image analysis
    • G06T7/70Determining position or orientation of objects or cameras

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  • Physics & Mathematics (AREA)
  • Engineering & Computer Science (AREA)
  • General Physics & Mathematics (AREA)
  • Immunology (AREA)
  • Pathology (AREA)
  • Chemical & Material Sciences (AREA)
  • Analytical Chemistry (AREA)
  • Biochemistry (AREA)
  • General Health & Medical Sciences (AREA)
  • Health & Medical Sciences (AREA)
  • Life Sciences & Earth Sciences (AREA)
  • Mathematical Physics (AREA)
  • Theoretical Computer Science (AREA)
  • Spectroscopy & Molecular Physics (AREA)
  • Signal Processing (AREA)
  • Textile Engineering (AREA)
  • Computer Vision & Pattern Recognition (AREA)
  • Testing Of Optical Devices Or Fibers (AREA)
  • Optical Filters (AREA)
  • Spectrometry And Color Measurement (AREA)

Description

1322888 ' 第095113834號專利申請案 說明書替換本(無劃線版本,98年4月) 九、發明說明: 【發明所屬之技術領域】 本發明係關於一種光學檢測系統及方法,更詳細來說,係 一種用於液晶顯示器(LCD)彩色濾光片製程中之檢測系統及 方法。 【先前技術】 • 近年來,顯示器技術蓬勃發展,其中薄膜電晶體液晶顯示 器(TFT-LCD)已成功地廣泛應用於個人休閒娛樂、家庭生活以 . 及各類場合中。眾所皆知,消費者追求盡善盡美的視覺享受, 因此生產業者對於產品顯示晝面之色彩呈現要求甚高。其中, • 彩色濾光片(c〇l〇r filter)對於TFT-LCD的色彩呈現、對比值 (contrast)、亮度(brightness)之影響,皆扮演直接或間接之重要 角色。 TFT-LCD面板的基礎架構為在兩片玻璃基板中夾住一層 液晶。在丽端LCD面板上貼上彩色濾光片後,在後端TFT面 板上製作薄膜電晶體。如果對電晶體施加電壓,則液晶會轉 向,光線穿過液晶後,會在前端面板上產生一個晝素。背光模 組(backlight module)則位於TFT_Array面板後方提供光源。彩 ⑸歧>1賦予每-個晝雜定賴色。因此,結合每一個不同 !貞色的晝素所呈現的就是面板前端的景彡像。—旦彩色濾光 瑕疯,則晝面即無法完美呈現。 广為了避免在後續的製程才發現彩色濾光片有瑕 庇’,費後、,Α程之時間及成本,檢測人員於製作出具有不同 顏色(-般以紅、藍及綠三原色最常見)之彩色遽光片後即 5 1322888 ' 第095丨13834號專利申請案 說明書替換本(無劃線版本,98年4月) 會進行相關檢測,例如檢測其彩色濾光片薄膜厚度均勻度不 佳、或色彩均勻度等瑕疫。若發現有缺陷,即可立即汰除或重 製。如第1圖所示,習知檢測方式為利用一白光光源1〇 ,照 射一受檢測的彩色濾光片11之一第一面12’而檢測人員 : 則位於相對的一第二面14,以肉眼進行瑕疵之辨識。 由於此方法使用白光光源’因此檢測人員13所看到的彩 色濾光片是紅藍綠三色之畫素交錯的。檢測人員13必須以肉 眼辨識出色彩瑕疵,但是要在此三色畫素交錯的圖案中找尋出 是哪一顏色的色彩瑕疯,甚為困難。除此之外,檢視人員亦難 • 以推斷出是哪一製程出了問題。雖然習知作法可在色彩上做密 集的色度量測,以找出發生問題的製程,但此方法極耗費人力 及時間,效率不彰。 此外,亦有類似技術,以光線反射的方法來檢查彩色據光 片,即相對於待檢測之濾光片,檢測光源立於與檢測人員同一 側以進行檢測。但此方法並不適用於大尺寸的彩色渡光片,因 其入射及反射光源並不均勻’無法達到輕易檢測出瑕庞的目 的。 再者’亦有另一習知技術’將上述之肉眼檢測替換為利用 一感光裝置以偵測瑕疵。再利用一可調整亮度的白光光源,戶召 射受檢測的彩色濾光片’再由感光裝置接收透射自彩色渡光片 的檢測訊號’再傳送至一檢測裝置以做瑕疵分析。相較^利用 肉眼檢測方式’此方法雖較為精確’但其光源僅為白光光源, 在透過彩色濾光片後’該彩色濾光片上各個顏色晝素圖樣之灰 階大小及比例無法調整,導致在瑕疵檢測時,無法同時針對所 有顏色晝素圖樣進行瑕疵檢測,以觀察其瑕疵之存在或嚴重程 度0 6 1322888 第095113834號專利申請案 說明書替換本(無劃線版本,98年4月) 對於上述狀況再略作說明。若設置一檢測裝置於一檢測平 台上’以一與該檢測裝置置於同一側之檢測光源,照射一待檢 測之彩色濾光片’其對於該彩色渡光片反射後之紅、綠、誌查 素,的灰階值各呈現為1〇〇、則,,若此時該檢測 接受該光源反射後所呈現之灰階值為6〇,即代表紅、綠畫素 圖樣上具有類似暗區之瑕疲(簡稱為「黑欠(BlackU)ss)^: 惟此-檢測在藍畫素圖樣上,則因無灰階對比之存在,致無法 可能存在之贼。若鱗欲調縣社檢測光線,以同步 調尚紅、綠、藍晝素圖樣之灰階值(例如同步地調高三者 HO、14G、1GG) ’以利藍晝素圖樣之檢測,若此時該檢測裝置 ,受該光源?射後所呈現之灰階值為14。,即代表藍畫素圖樣 上具有類似免區之械(簡稱為「自欠(篇以⑽)」),惟此 -檢測在紅、綠晝素圖樣上,則又因無灰階對比之存在,致盔 法顯示可能存在之瑕疵。 ”、、 *由於彩色濾光片的成本,佔整個LCD顯示器總成本一相 匕比例。若於上述制雜巾’未能準確魏所有在紅、綠、 j :素圖樣上之所有可能瑕疯(即「亮區」及「暗區」瑕疯)', ,使瑕疲品繼續投人*必要之後續製程,此輕 時間之浪費。而彩色滤光片之製程中,其紅、綠、、誌 才菜 二=地順序進行_工程,若得於還未完成所有二前即發 ^已貼附之某些顏色畫素圖樣以存在職, 置’以縮短不必要之製絲費,亦有其必要。 因此,對於製造LCD顯示器提供一簡易 取員=驗,置㈣且正销檢=== 軸升製造 7 第09M13834號專利申請案 說明書替換本(無劃線版本,98年4月) 【發明内容】 測车ί於ίΪίΐ’本發明之一目的在提供一彩色渡光片之檢 ^芦清#二^ W測系統’得以有效檢查出反射光線所呈現之 2 該彩色濾W包含減具有不_色之晝素 ㈡3包含一也則裴置、-檢測光線產生裝置城數 感先,置。光線產錢置,適可提供複財同顏色之光 些光線與該些晝素圖樣呈—顏色之對應關係, 特練系可調整’使該些光線得形成-具有 顏多少斟庙=ί此5光源。該些感光裝置與該些晝素圖樣呈該 係’且電性連接至檢測裝置,該些感光裝置,與 =二娈岛^裝置位於彩色濾光片之同一側。其中,混合光源 ΐ 光片之該些晝素圖樣後,分別地產生複數個反射光 糧里各销應之感光裝置所接收,並轉換傳遞反射訊號至檢 測裝置’關斷該㈣侧樣是科反射喊。 本^之另—目的在提供另—種彩色濾光片之檢測系 .,m该檢測系統’得以有效檢查出穿透光線所呈現之彩色 的穿透瑕疫。該彩色渡光片包含複數具有不同顏色之晝 金it測系統包含—檢測裝置、—檢測光線產生裝置及複 感光裝置。檢測光線產生裝置,適可提供複數不同顏色之 伤、,,至少部分該些光線與該些晝素圖樣呈一顏色之對應關 目、丄且該些光線間之鮮光職可滅使該些光線得形成一 二Ί寺=鮮光譜之齡辆、。·感絲置與晝素圖樣 色之對應_ ’且電性連接至檢測裝置,該些感光裝 沒人二檢測光線產生裝置位於彩色滤光片之二相對側。其中, H ίΐ、射人彩找光片之該些晝侧樣後,分別地產生複數 逍光線’由各該對應之感光裝置所接收,並轉換傳遞穿透 第095113834號專利申請案 說明書替換本(無劃線版本,98年4月) 訊號至檢職置,關_鍵糊樣技有穿透瑕疲。 法,再―,目的在提供用於—彩色濾、光#之檢測方 右特二二t不同光線間之頻率光譜’並使該些光線形成一具 的書光ίίΐ合光源’使待檢測之彩色滤光片之各顏色 式二二二’八火階值相近或相等,以同時更有效檢查出穿透 二:、’、所呈現之彩色渡光片瑕疲。檢測方法包含下列步 ,主⑻提供複數不義色之光線,使至少部分該些光線與該些 ι素圖樣呈-顏色之對應關係;(b)調整該些光線間之頻率光 並使规軸—具㈣定解光譜之混合光源;(c) 错由τ混合光源射入該彩色濾光片之該些畫素圖樣後,分別地 產^複數個對應光線;(d)以複數感光裝置,對應接收該些光 線並轉換成訊號傳遞至對應之檢測裝置,以判斷該些畫素圖樣 是否有瑕疵。 批在參閱圖示及隨後描述之實施方式後,該技術領域具有通 苇知識者便可瞭解本發明之其他目的、本發明之技術手段及實 施態樣。 【實施方式】 如第2(a)圖所示’為本發明之第一實施例,有關檢測反射 光線於一彩色濾光片21所呈現瑕疵之檢測系統20。為方便說 明,圖中僅例示性繪出彩色濾光片21上包含紅211、綠212 及藍213三晝素圖樣之基本構成,且此圖式僅為示性圖並未依 照其真實比例繪製。 較佳者,檢測系統20包含一檢測裝置(未圖示)、一導光 板22、一檢測光線產生裝置、三個感光裝置。檢測光線產生 第095113834號專利申請案 說明書替換本(無劃線版本,98年4月) ί f 有特定鮮光譜之混合光源,對應於該紅 々二亲及藍213三畫素_,且調整該混合光源於穿透 I射紅21卜綠212及藍213三畫素後之灰階呈現。該導光 ,2設於^檢測光線產生裝置及該彩色濾光片之間,適可使 “ik光線得㈣該導歧之混光,而職 之混合光源。 了义屑千尤》曰 付光線產生裝置可包含一初始統及一遽 f J ’該/慮鏡展置23係接收來自該初始光源之光線,並 將“光線依所需’轉換成職數不_色、且具树定 譜之混合光源。該初始光源可為一白光光源,而該混合光源之 ίί光該,裝置23 ’依照不_顏色鮮需求而做 s交{由複數個,慮鏡裝置協同搭配出所需的頻率光々並。 =始光源亦可為-有色光源,以協助奴出該混合光源之曰頻 率光譜。該檢測光線產生裝置亦可為包含複數初始光源,提供 该具不同顏色、且具有特定頻率光譜之混合光源;而該複數初 Ϊ先貝率光譜之混合光源’或搭配濾鏡裳 置,再為進灯特疋頻率光譜之設定,皆為可行之作法。 以二個初始光源,即紅光光源241、綠光光源2犯及 光源243搭配三個感光裝置,即紅色感光裝置251 裝置252及藍色感光裝置253為例作說明❶ ^ 〜253與該些畫素圖樣211〜213呈顏色之 係’且檢測裝置係電性連接至感光裝置251〜攻。於此^ j 例中’感光裝置251〜253與檢測光線產生裝置( 光源24^243)係設置於彩色遽光片21相同之一二個= 源241〜243提供三入射光線,分別為紅光、綠光盥該光 皆未圖示},此三入射光線於遽鏡裝置Μ調整成特定^ ^並 之關係後’即入射於導光板22中,以形成一混合光源27。上 1322888 ' 第095113834號專利申請案 說明書替換本(無劃線版本,98年4月) Γ二3源•實質上可能為—白色光源,惟其紅、綠、藍三種 =:22譜已成—特㈣係,以使得自待檢測之彩色ί 先片所反射出來之灰Ρ皆值極為相近或甚至相等。 為先if/' „ ’可包含複數個導光裝置,於此實施例中 為先纖26,用以對應地接收各初始光源241〜243之 Ϊ連傳Ϊ至導級22巾。對於规%料光板二者間 之連接位置’並無限定。因此紅光、綠光與藍光,人射於導光 内^于特疋之光學引導後,即得以形成該混合光源27。 接者,V光板將混合光源27射入彩色濾光片21中,詳古之, 混合光源27射入彩色渡光片21巾之該些晝素圖樣2111213 後,將分別地產生複數個反射光線29a、2%、29c,其分別為 ,對應紅211、綠212及藍213三色晝素圖樣之一第一值、一 第二值及一第三值,由各對應之感光裝置251〜253所接收, 並將該些反射光線29a、29b ' 29c所產生的反射訊號傳遞至檢 測裝置,以判斷該些晝素圖樣211〜213是否有反射瑕疵。 —再者,三個初始光源除使用紅光光源241、綠光光源242 及藍光光源243外,其更可包含一白色光源(未圖示),用以提 供一白光入射光束’經由另一導光裝置,入射於導光板22中, 可因此增強混合光源27之白色光束強度,以避免混合光源27 因亮度不足’影響反射自彩色濾光片21之第一值、第二值及 第三值之灰階表現程度,而無法讓對應之感光裝置251〜253 所有效接收。 於實際應用上’感光裝置可以是裝設有電荷耦合裝置 (charge-coupled device ; CCD)、或者是互補式金屬氧化物半導 體(complementary metal oxide semiconductor ; CMOS)之光學感 測裝置。 ~ 11 1322888 ' 第095113834號專利申請案 說明書替換本(無劃線版本,98年4月) 本發明之第二實施例如第2(b)圖所示,為方便說明,相同 元件將與前述說明中使用相同之符號。第二實施例實際上與第 一實施例之情況類似,二者相異之處將詳述如下。1322888 'Replacement of patent application No. 095113834 (without scribe version, April 1998) IX. Description of the Invention: The present invention relates to an optical detection system and method, and more particularly, A detection system and method for use in a liquid crystal display (LCD) color filter process. [Prior Art] • In recent years, display technology has flourished, and thin film transistor liquid crystal displays (TFT-LCDs) have been successfully used in personal entertainment, family life, and various occasions. It is well known that consumers are pursuing perfect visual enjoyment, so producers are highly demanding on the color of the product. Among them, • color filter (c〇l〇r filter) plays a direct or indirect role in the color rendering, contrast, and brightness of TFT-LCD. The infrastructure of a TFT-LCD panel is to sandwich a layer of liquid crystal in two glass substrates. After the color filter is attached to the Liduan LCD panel, a thin film transistor is fabricated on the rear TFT panel. If a voltage is applied to the transistor, the liquid crystal will turn, and when the light passes through the liquid crystal, a halogen is produced on the front panel. A backlight module is located behind the TFT_Array panel to provide a light source. Color (5) ambiguity > 1 gives each one a noisy color. Therefore, combining each of the different colors of the color is the image of the front end of the panel. Once the color filter is mad, the face is not perfect. In order to avoid the discovery of color filters in subsequent processes, the time and cost of the process, the time and cost of the process, the testers are producing different colors (-the most common colors of red, blue and green) After the color slab is 5 1322888 'Patent No. 095 丨 13834, the replacement of this patent (without scribe version, April 1998) will carry out related tests, such as detecting the uniformity of the thickness of the color filter film. , or color uniformity and other plagues. If it is found to be defective, it can be removed or reproduced immediately. As shown in FIG. 1 , the conventional detection method is to use a white light source 1 照射 to illuminate a first surface 12 ′ of one of the detected color filters 11 and the detecting person is located at a second surface 14 opposite to each other. Identification by the naked eye. Since this method uses a white light source', the color filter seen by the inspector 13 is a red, blue, and green three-color pixel interlaced. The examiner 13 must recognize the color flaws by the naked eye, but it is difficult to find out which color of the color is mad in the three-color pixel interlaced pattern. In addition, it is difficult for inspectors to infer which process is a problem. Although it is customary to do dense color metrics on color to find out the process in which the problem occurred, this method is extremely labor intensive and time inefficient. In addition, there is a similar technique in which a color light film is inspected by means of light reflection, i.e., the light source is positioned on the same side as the tester for detection with respect to the filter to be detected. However, this method is not suitable for large-sized color light-emitting sheets, because the incident and reflected light sources are not uniform, and it is impossible to easily detect the target. Furthermore, there is another conventional technique to replace the above-described visual inspection with a photosensitive device to detect flaws. Then, a white light source with adjustable brightness is used, and the detected color filter 'received by the photosensitive device to receive the detection signal transmitted from the color light-passing sheet' is transmitted to a detecting device for analysis. Compared with the use of the naked eye detection method, the method is more accurate, but the light source is only a white light source. After passing through the color filter, the gray scale size and proportion of the color patterns of the color filters on the color filter cannot be adjusted. It is not possible to carry out cockroach detection for all color enamel patterns at the same time in order to observe the presence or severity of cockroaches. 0 6 1322888 Patent Application No. 095113834 Replacement (without scribe version, April 1998) The above situation will be slightly explained. If a detecting device is disposed on a detecting platform, a detecting light source disposed on the same side as the detecting device is irradiated with a color filter to be detected, which is red, green, and ambiguous after being reflected by the color light passing sheet. The gray scale value of the checker is 1〇〇, then, if the gray level value of the detection after receiving the reflection of the light source is 6〇, it means that the red and green pixel patterns have similar dark areas.瑕 瑕 (referred to as "Black ss (BlackU) ss) ^: Only this - detected on the blue pixel pattern, because there is no gray-scale contrast, the thief can not exist. Light, in order to synchronously adjust the gray value of the red, green, and blue enamel patterns (for example, synchronously increase the height of the three HO, 14G, 1GG) 'to detect the blue scorpion pattern, if the detection device at this time, the The gray level value of the light source after the shot is 14. It means that the blue pixel pattern has a similar free zone (referred to as "self-deficiency (Article (10))"), but this is detected in red and green. On the prime pattern, the helmet-like method shows the possible flaws due to the absence of gray-scale contrast. ",, * Because of the cost of the color filter, the total cost of the entire LCD display is a relatively large proportion. If the above-mentioned scarf is not accurate, all the possible red, green, j: prime patterns are all crazy. (ie, "bright area" and "dark area" mad)", so that the fatigue of the product continues to invest * necessary follow-up process, this light time wasted. In the process of the color filter, the red, green, and syllabus are sequentially executed in the _ engineering, and if some of the color plaque patterns that have been attached are not yet completed, It is also necessary to set a position to shorten unnecessary silking fees. Therefore, for the manufacture of LCD displays, a simple pick-up = inspection, set (four) and positive-selling inspection === shaft-up manufacturing 7 No. 09M13834 patent application specification replacement (no-line version, April 1998) 】 Car ί ί Ϊ ΐ ΐ 本 本 本 本 本 本 本 本 本 本 本 本 本 本 本 本 本 本 本 本 本 本 本 本 彩色 彩色 彩色 彩色 彩色 彩色 彩色 彩色 彩色 彩色 彩色 彩色 彩色 彩色 彩色 彩色 彩色 彩色 彩色 彩色 彩色 彩色 彩色The color of the element (2) 3 contains one, then the device, the detection of the number of light generating devices, first set. The light is set to produce money, and it is suitable to provide the light of the same color with the light of the color and the corresponding relationship between the colors of the elements. The special training system can be adjusted to make the light form - how much is the temple? 5 light source. The photosensitive devices and the halogen patterns are in the system and are electrically connected to the detecting device, and the photosensitive devices are located on the same side of the color filter as the device. Wherein, after the plurality of halogen patterns of the light source are combined, respectively, the photosensitive devices of the plurality of reflected light grains are respectively received by the photosensitive device, and the reflected signals are converted and transmitted to the detecting device to turn off the (four) side sample. Reflection shouting. Another purpose of this is to provide a detection system for another color filter, which is capable of effectively detecting the penetration plague of the color appearing through the light. The color light-receiving sheet comprises a plurality of layers having different colors. The gold measuring system comprises a detecting device, a detecting light generating device and a complex detecting device. Detecting a light generating device, which is suitable for providing a plurality of different colors, and at least some of the light is in a color corresponding to the color patterns, and the light between the lights is extinguished The light has to form a two-dimensional temple = the age of the fresh spectrum. The silk is placed in correspondence with the enamel pattern color _ ′ and electrically connected to the detecting device, and the photosensitive illuminating device is located on the opposite side of the color filter. Wherein, H ΐ , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , (No line version, April 1998) Signal to the inspection position, off _ key paste technology has penetrated fatigue. Method, again, the purpose is to provide a frequency spectrum between the different rays of the detection of the right color filter and the light #, and to make the light form a book light ̄ ̄ ̄ ̄ ̄ ̄ ̄ ̄ ̄ ̄ The color filters of the color filter are two or two 'eight fire orders are similar or equal, so as to more effectively check the penetration of two:, ', the color of the film is weak. The detecting method comprises the following steps: the main (8) provides a plurality of light of a non-sense color, so that at least some of the light rays are in a color-corresponding relationship with the light patterns; (b) adjusting the frequency light between the light rays and adjusting the axis - (4) a mixed light source of the determined spectrum; (c) after the τ mixed light source is incident on the pixel patterns of the color filter, respectively, a plurality of corresponding light rays are respectively generated; (d) a plurality of photosensitive devices are received correspondingly The light is converted into a signal and transmitted to the corresponding detecting device to determine whether the pixel patterns are defective. The other objects of the present invention, the technical means and embodiments of the present invention will become apparent to those skilled in the art of the invention. [Embodiment] As shown in Fig. 2(a), the first embodiment of the present invention relates to a detection system 20 for detecting reflected light on a color filter 21. For convenience of description, only the basic composition of the red color 211, the green 212, and the blue 213 triterpenoid pattern on the color filter 21 is exemplarily illustrated, and the figure is only for the representative figure and is not drawn according to its true scale. . Preferably, the detection system 20 includes a detection device (not shown), a light guide plate 22, a detection light generating device, and three photosensitive devices. Detecting light generation No. 095113834 Patent Application Specification Replacement (without scribe version, April 1998) ί f A mixed light source with a specific fresh spectrum corresponding to the red 々 two pro and blue 213 three pixels _, and adjusted The hybrid light source is presented in a gray scale after penetrating I, red 21, green 212, and blue 213, three pixels. The light guide 2 is disposed between the detection light generating device and the color filter, so that the "ik light (4) the light of the guide light is mixed, and the mixed light source of the job is used. The light generating device may comprise an initial system and a Jf J 'the illuminating device 23 receives the light from the initial light source, and converts the "light according to the requirements" into a number of jobs, and has a setting A hybrid source of spectrum. The initial light source can be a white light source, and the hybrid light source λ 依照 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 The starting light source can also be a colored light source to assist in the nucleation of the frequency spectrum of the hybrid source. The detecting light generating device may further comprise a plurality of initial light sources, and providing the mixed light source with different colors and having a specific frequency spectrum; and the mixed light source of the plurality of preliminary first Bayesian spectra or the filter is disposed, and then It is a feasible practice to set the frequency spectrum of the incoming light. The two initial light sources, that is, the red light source 241 and the green light source 2, and the light source 243 are combined with three photosensitive devices, that is, the red photosensitive device 251 device 252 and the blue photosensitive device 253 are taken as an example to illustrate ❶ ^ 253 and The pixel patterns 211 to 213 are in color system and the detecting device is electrically connected to the photosensitive device 251 to attack. In the example, the photosensitive devices 251 to 253 and the detection light generating device (light source 24^243) are disposed in the same color as the color light-emitting sheet 21; the two sources 241 to 243 provide three incident light rays, respectively red light. The green light is not shown in the figure. The three incident light rays are incident on the light guide plate 22 after the frog mirror device is adjusted to a specific relationship to form a hybrid light source 27. 1322888 'Patent Application No. 095113834 Replacement (without scribe version, April 1998) Γ 2 3 Sources • Essentially - white light source, only red, green and blue = 22 spectrum has been - Special (4), so that the gray ash reflected from the color 先 first film to be detected is very similar or even equal. The first if/' „ ' may include a plurality of light guiding devices, which in this embodiment is a pre-fiber 26 for correspondingly receiving the Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ Ϊ 。 。 。 。 。 。 。 。 。 。 。 。 。 The connection position between the light-mesh plates is not limited. Therefore, the red light, the green light, and the blue light are emitted by the human being in the light guide. After the optical guidance of the special light, the hybrid light source 27 is formed. The mixed light source 27 is incident on the color filter 21. In detail, after the hybrid light source 27 is incident on the pixel patterns 2111213 of the color light-passing sheet 21, a plurality of reflected rays 29a and 2% are respectively generated. 29c, which is a first value, a second value, and a third value corresponding to the red 211, green 212, and blue 213 trichromatic enamel patterns, which are received by the respective photosensitive devices 251 to 253, and The reflected signals generated by the reflected rays 29a, 29b' 29c are transmitted to the detecting device to determine whether the pixel patterns 211 to 213 have reflections. - Again, the three initial light sources are used in addition to the red light source 241, green. The light source 242 and the blue light source 243 may further include a white light source (not shown). In order to provide a white light incident light beam, incident on the light guide plate 22 via another light guiding device, thereby enhancing the intensity of the white light beam of the hybrid light source 27, so as to prevent the mixed light source 27 from being affected by the lack of brightness. The gray scale performance of the first value, the second value, and the third value of 21 cannot be effectively received by the corresponding photosensitive devices 251 to 253. In practical applications, the photosensitive device may be equipped with a charge coupled device (charge) -coupled device; CCD), or a complementary metal oxide semiconductor (CMOS) optical sensing device. ~ 11 1322888 'Patent Application Specification No. 095113834 (without scribe version, 98 years) The second embodiment of the present invention is shown in FIG. 2(b). For convenience of explanation, the same elements will be denoted by the same reference numerals as in the foregoing description. The second embodiment is actually similar to the case of the first embodiment. The differences between the two will be detailed below.

請同時參閱第2(a)圖及2(b)圖。在第一實施例中,若檢測 人員欲檢測者為反射訊號,此時則將感光裝置251〜253設置 於與導光板22位於彩色濾光片21之同一側。於第二實二例 令’右檢》則人貝需要得知混合光源透射過彩色濾、光片後之檢測 結果’此際檢測人員可將感光裝置251〜253相對於彩色淚光 片21设置於導光板22之相對側。因此’混合光源27射入彩 色濾光片21中之該些畫素圖樣211〜213後,將分別地產生^ 數個穿透光線30a、30b、30c,由各該對應之感光裝置251〜 253所接收,並轉換成穿透訊號傳遞至檢測裝置(未圖示 判斷該些晝素圖樣211〜213是否有穿透瑕疲。第二實施例中 之其餘元件配置及其功效,因與第一實施例相仿,茲不贅述。 可概 本發明關於該彩色濾光片之檢測方法,其基本步驟, 述如下: 少部分該些光線與該 些2素圖樣呈一顏色之對應關係; 些級間之鮮綺’並使㈣光線形成一具 $特疋頻率光譜之混合光源; /、 n混合光源射入該彩色遽光片之該些書素圖樣 後’分別地產生複數個對應峨;及 ^圖樣 置’對應接收該些訊號並傳遞至複數對 為相近或甚至鱗,並觸該些晝侧樣衫有瑕範。 12 第095113834號專利申請案 說明書替換本(無f彳線版本,98年4月) 光诉在t)步驟中,係可由—濾鏡裝_接收來自一初始 光線依所需’轉換成該複數不同顏色、且 Ϊ或不Ϊ配ίΐΐ之混合光源;亦可以如前述’以搭配遽鏡裝 去秋,更ϋ兄袭置之複數初始光源,形成所需之混合光源。 二源,以增強該混合光源之亮度。該⑼ ί特定頻c間之頻率光譜’係調整成使該些光線形成具 h、搞=^日之混合光源’使反射光線或穿透光線之灰階值 # /二n、甚至實質相同。在(c)步驟中,若複數個對應光 揭ΐ產S係來自該混合光源射入該彩色遽光片之該些畫ΐ圖 ^ “ f出來者’ 5亥等光線為反射光線。換言之’在(C)步驟 讀個對應光線之產生,絲自該混合光簡入該彩色 ,先m些晝素圖樣後,透射而出者,該等光線為穿透光 螅…类中’該些感光裝置’將對應接受的該些反射光 ,或牙透先線’轉換成反射訊號或穿透訊號,並傳遞至檢測裝 檢斷射絲或穿透級之讀值是·為相近、甚至 貫貝相同,並判斷該些晝素圖樣是否有瑕疵。 炫將實際檢測之步驟進一步說明如下。如前所述,彩色渡 $片之貼附過程,-般係依紅色、綠色、藍色之晝素圖樣依序 設置於玻璃基板上’而該順序貼附之過程,後者亦將再度影響 前者已貼&附完成之晝素圖樣,更詳細言之,貼附綠色晝素圖 樣,將可月b造成紅色畫素圖樣出現瑕疵;貼附藍色畫素圖樣, 將可能造成紅色及綠色晝素圖樣再度出現瑕疵。故每貼完一種 顏色之晝素圖樣,即可進行包含該顏色之前述諸顏色晝素圖樣 之瑕疲檢測工作。 現=一實際之實驗例進行說明。對於穿透光線之穿透瑕疵 檢測,若以傳統白光辆進行對彩找光狀照射,其穿透彩 色濾光片之紅色、綠色、藍色晝素圖樣後,所呈現之灰階值分 第095丨13834號專利申請案 說明書替換本(無j彳線版本,98年4月) 133、168、144 ’由於其灰階值不均勻,故 產生月.,.、員對比,否則瑕疵即難以在每一書 f的檢測出來’透過本發明之檢測光線間之頻率光譜^可 ^者,即可機紐檢啦線職具有、^ 色謝賴之灰 使…人」或白欠」,由於均可與該9〇之值產生一致 值職,料論贼是利顯,柯料被感測 類似狀況,對於反射光線之反射瑕錄 J遽光片之照射,其反射彩色遽光片 色、▲色旦素圖樣後,所呈現之灰階值分別為232、15卜 由於其灰階值亦不均勻,故其上所存在之「黑欠」或「 , 除非其灰階值皆可與所有晝素圖樣之灰階值,產生明 」匕, 疵即難以在每一晝素圖樣上完整且清楚的檢測出來;透 過本毛明之檢測級間之鮮光譜為可調整者,即可調整 檢測光線形成具有特定頻率光譜之混合光源,使其反射該不同 顏色之晝素圖樣後之灰階值皆趨近於11〇,故「黑欠」=「白 欠」,由於均可與該110之值產生一致性之正值I負;對比, 故不論瑕疵是否明顯,均可輕易被感測裝置檢測出來。 上述實施例僅為例示性說明本發明之原理及功效,而非用 於限制本發明。任何熟於此項技藝之人士均可在不違背本發明 之技術原理及精神的情況下,對上述實施例進行修改及變^匕。 因此本發明之權利保護範圍應如後述之申請專利範圍所列。 【圖式簡單說明】 14 1322888 •l 第095113834號專利申請案 說明書替換本(無劃線版本,98年4月) 第1圖係為習知彩色濾光片瑕疵檢測技術示意圖; • 第2(a)圖係為本發明有關檢測反射光線所呈現瑕疵之系 統示意圖;及 • _第2(b)圖係為本發明有關檢測穿透光線所呈現瑕疵之系 • 統示意圖。 【主要元件符號說明】 10 : 白光光源 12 : 第一面 14 : 第二面 21 : 彩色濾光片 212 :綠色晝素圖樣 22 : 導光板Please also refer to Figures 2(a) and 2(b). In the first embodiment, if the examiner wants to detect the reflected signal, the photosensitive devices 251 to 253 are disposed on the same side of the color filter 21 as the light guide plate 22. In the second real case, the 'right inspection' is that the person needs to know the detection result of the mixed light source transmitted through the color filter and the light sheet. In this case, the detecting person can set the photosensitive devices 251 to 253 with respect to the colored tear film 21 On the opposite side of the light guide plate 22. Therefore, after the mixed light source 27 is incident on the pixel patterns 211 to 213 in the color filter 21, a plurality of penetrating rays 30a, 30b, and 30c are respectively generated, and the corresponding photosensitive devices 251 to 253 are respectively generated. Receiving and converting into a transmission signal to be transmitted to the detecting device (not shown to determine whether the pixel patterns 211 to 213 have penetration fatigue. The remaining component configurations and their functions in the second embodiment are the first The embodiments are similar, and are not described herein. The basic steps of the method for detecting the color filter of the present invention are as follows: a small portion of the light rays are in a color correspondence with the two prime patterns; The fresh 绮 ' and (4) light forms a mixed light source of the $ characteristic frequency spectrum; /, n mixed light source is injected into the book patterns of the color light film to respectively generate a plurality of corresponding 峨; and ^ The pattern is set to 'receive the signals and pass them to the plural pairs to be similar or even scales, and to touch the side of the sample. 12 Patent No. 095113834 Replacement of the patent application (no f-line version, 98 years) April) In the step of t), It can be received by a filter - receiving a mixed light source that is converted into a complex color of different colors, and is not suitable for use with the original light. It can also be loaded with the frog mirror to go to the autumn, and more A plurality of initial sources are placed to form the desired hybrid source. Two sources to enhance the brightness of the hybrid light source. The frequency spectrum of the (9) ί specific frequency c is adjusted such that the light forms a mixed light source with a h, and the gray level value of the reflected light or the transmitted light is even substantially the same. In the step (c), if the plurality of corresponding light-exposed S-systems are from the mixed light source, the light-emitting beams are incident on the color light-emitting sheet, and the light is reflected light. In other words, In step (C), a corresponding light is read, and the silk is simply inserted into the color from the mixed light. After the m-shaped pattern is first transmitted, the light is transmitted through the pupil. The device 'converts the received reflected light, or the tooth-through line' into a reflected signal or a penetration signal, and transmits it to the detection device to detect the broken wire or the transmissive level. The reading value is similar or even The same, and determine whether the enamel patterns are flawed. Hyun will further explain the steps of the actual detection as follows. As mentioned above, the process of attaching the color to the film is generally based on red, green and blue. The pattern is sequentially placed on the glass substrate' and the sequence is attached. The latter will also affect the former's already attached & finished microscopic pattern. In more detail, the green alizarin pattern will be attached. Causes the appearance of the red pixel pattern; attaches the blue pixel pattern, It may cause red and green enamel patterns to appear again. Therefore, each time a color enamel pattern is pasted, the fatigue detection work of the above-mentioned color enamel patterns containing the color can be performed. Now = an actual experimental example Description: For the penetration 瑕疵 detection of penetrating light, if the traditional white light vehicle is used to illuminate the color, it will pass through the red, green and blue enamel patterns of the color filter. Subsection No. 095丨13834 Patent Application Specification Replacement (No j彳 line version, April 1998) 133, 168, 144 ' Because the gray scale value is not uniform, it produces a month.,., staff comparison, otherwise瑕疵That is, it is difficult to detect in each book f. 'Through the frequency spectrum of the detection light of the present invention, ^ can be used, and the machine can check the line, and the color of the light can make people... or owe." Since it can produce a consistent value with the value of 9〇, it is said that the thief is profitable, the material is sensed similarly, and the reflection of the reflected light is recorded by the J light film, and the reflected color light film is reflected. Color, ▲ after the color pattern, presented The grayscale values are 232, 15b, respectively, because their grayscale values are also non-uniform, so there are "black owes" or "over", unless their grayscale values are compatible with the grayscale values of all the tilde patterns.匕 疵 疵 难以 难以 难以 难以 难以 难以 难以 难以 难以 难以 难以 难以 难以 难以 难以 难以 难以 难以 难以 难以 难以 ; ; ; ; ; ; ; ; ; ; ; ; ; ; ; ; ; ; ; ; ; ; ; ; ; ; ; ; The grayscale values of the different color schemes of the different colors are close to 11〇, so “black owe” = “white owe”, because the positive value I can be consistent with the value of 110; Therefore, it can be easily detected by the sensing device regardless of whether it is obvious or not. The above-described embodiments are merely illustrative of the principles and effects of the invention and are not intended to limit the invention. Any of the above-described embodiments can be modified and modified without departing from the spirit and spirit of the invention. Therefore, the scope of protection of the present invention should be as set forth in the appended claims. [Simple description of the drawings] 14 1322888 • l Replacement of the patent application specification No. 095113834 (without scribe version, April 1998) Fig. 1 is a schematic diagram of a conventional color filter 瑕疵 detection technology; • 2 ( a) The diagram is a schematic diagram of the system for detecting reflected light reflected by the present invention; and • _ 2 (b) is a schematic diagram of the system for detecting the penetration of light. [Main component symbol description] 10 : White light source 12 : First side 14 : Second side 21 : Color filter 212 : Green enamel pattern 22 : Light guide plate

241 :紅色光源 243 :藍色光源 252 :綠色感光裝置 26 :光纖 29a :反射光線 29c :反射光線 30b :穿透光線 11 :彩色濾光片 13 :檢測人員 20 :檢測系統 211 :紅色晝素圖樣 213 :藍色晝素圖樣 23 :濾鏡裝置 242 :綠色光源 251 :紅色感光裝置 253 :藍色感光裝置 27 :混合光源 29b :反射光線 30a :穿透光線 30c :穿透光線 15241: red light source 243: blue light source 252: green photosensitive device 26: optical fiber 29a: reflected light 29c: reflected light 30b: transmitted light 11: color filter 13: inspector 20: detection system 211: red alizarin pattern 213: Blue enamel pattern 23: Filter device 242: Green light source 251: Red photosensitive device 253: Blue photosensitive device 27: Mixed light source 29b: Reflected light 30a: Light ray 30c: Light ray 15

Claims (1)

第095113834號專利申請案 ----- 申請專利範圍替換本(補)(無割線版本,&quot;年1月) p年/月/卩修正本 十、申請專利範圍: -------------------&quot; 1. 一種用於一彩色濾光片之檢測系統,該彩色濾光片包含複數具有 不同顏色之晝素圖樣(pixel pattern),該檢測系統包含: 一檢測光線產生裝置,包含一初始光源及一濾鏡裝置,該濾 鏡裝置係接收來自該初始光源之光線,適可提供複數不同顏色之 光線’至少部分該些光線與該些晝素圖樣呈一顏色之對應關係, 且該些光線間之頻率光譜係可調整,使該些光線轉換成一具有特 定頻率光譜之混合光源;以及 複數個感光裝置,該些感光裝置與該些晝素圖樣呈該顏色之 對應關係’且電性連接至一檢測裝置,該些感光裝置,與該檢測 光線產生裝置位於該彩色濾光片之同一侧, 、 其中,該混合光源射入該彩色濾光片之該些畫素圖樣後,分 別地產生複數個反射光線,由各該對應之感光裝置所接收,並傳 遞至該檢測裝置,以檢測該些反射光線之灰階值是否極為相近或 甚至相等’並判斷該些畫素圖樣是否有瑕疵。 2. 如請求項1所述之檢測系統,其另包含一導光板,設於該檢測光 線產生裝置及该彩色濾光片之間’適可使該些光線得經由該導光 板而混光。 3. 如請求項1所述之檢測系統’其中該彩色遽光片包含紅 之晝素圖樣。 4. 如請求項1所述之檢測系統,其中該初始光源包含一白色光源。 5. 如清求項1所述之檢測系統,其中該檢測光線產生裝置包含複數 初始光源,提供該具不同顏色之混合光源。 1322888 第095113834號專利申請案 申請專利範圍替換本(補)(無劃線版本,99年1月) 6. 如請求項2所述之檢測系統,其另包含複數個導光裝置,設於該 光線產生裝置及該導光板間,用以對應地接收該些不同顏色之光 線,並將之傳遞至該導光板。 7. 如請求項6所述之檢測系統,其中各該些導光裝置包含一光纖。 8. 如請求項1所述之檢測系統,其中各該些感光裝置包含一電荷耦 合裝置(charge-coupled device ; CCD)。 9. 如請求項1所述之檢測系統,其中各該些感光裝置包含一互補式 金屬氧化物半導體(complementary metal oxide semiconductoi·; CMOS) 〇 10. —種用於一彩色濾光片之檢測系統,該彩色濾光片包含複數具有 不同顏色之畫素圖樣(pixel pattern),該檢測系統包含: 一檢測光線產生裝置,包含一初始光源及一濾鏡裝置,該濾 鏡裝置係接收來自該初始光源之光線,適可提供複數不同顏色之 光線,至少部分該些光線與該些畫素圖樣呈一顏色之對應關係, 且該些光線間之頻率光譜係可調整,使該些光線轉換成一具有特 定頻率光譜之混合光源;以及 複數個感光裝置’該些感光裝置與該些晝素圖樣呈該顏色之 對應關係,且電性連接至一檢測裝置,該些感光裝置,與該檢測 光線產生裝置分別位於該彩色濾光片之二^目對側, 其中,該混合光源射入該彩色濾光片之該些畫素圖樣後,分 別地產生複數個穿透光線’由各該對應之感光裝置所接收,並傳 遞至該檢測裝置,以檢測該些穿透光線之灰階值是否極為相近或 甚至相等,並判斷該些晝素圖樣是否有瑕疯。 11·如請求項10所述之檢測系統,其另包含一導光板,設於該檢測光 2 1322888 • * 第095113834號專利申請案 申請專利範圍替換本(補)(無劃線版本,99年1月) 線產生裝置及該彩色濾光片之間,適可使該些光線得經由該導光 板而混光。 12. 如請求項10所述之檢測系統’其中該彩色濾光片包含紅,綠,藍 之畫素圖樣。 13. 如請求項10所述之檢測系統,其中該初始光源包含一白色光源。 14. 如請求項10所述之檢測系統,其中該檢測光線產生裝置包含複數 φ 初始光源’提供該具不同顏色之混合光源。 15. 如請求項11所述之檢測系統,其另包含複數個導光裝置,設於該 光線產生裝置及該導光板間,用以對應地接收該些不同顏色之光 線,並將之傳遞至該導光板。 16. 如請求項15所述之檢測系統’其中各該些導光裝置包含一光纖。 17. 如請求項10所述之檢測系統’其中各該些感光裝置包含一電荷耦 合裝置(charge-coupled device ; CCm 〇 18. 如請求項10所述之檢測系統,其中各該些感光裝置包含一互補式 金屬氧化物半導體(complementaiy metal oxide semiconduetor ; CMOS) 〇 19. 一種用於一彩色濾光片之檢測方法,該彩色濾光片包含複數具有 不同顏色之畫素圖樣,該檢測方法包含下列步驟: ⑻提供複數不同顏色之光線,使至少部分該些光線與該些畫 素圖樣呈一顏色之對應關係; (b)調整該些光線間之頻率光譜,並使該些光線轉換成一具有 3 第095113834號專利申請案 ·- 申請專利範圍替換本(補)(無劃線版本卯年丨月) 特定頻率光譜之混合光源; (C)藉由該混合光源射入該彩色濾光片之該些畫素圖樣後,分 別地產生複數個對應光線;及 (Φ以複數感光裝置’對應接收該些對應光線並傳遞至一檢測 裝置’以檢親麟應光線之灰階錢碰為相近或甚至相等, 並判斷該些畫素圖樣是否有瑕疲。 20. 如請求項19所述之檢測方法,其中該^)步驟係由一濾鏡裝置係接 收來自一初始光源之光線,並將該光線依所需,轉換成該複數不 同顏色、且具有特定頻率光譜之混合光源。 21. 如請求項19所述之檢測方法,其中各該些對應光線係穿透該些晝 素圖樣之穿透光線。 22. 如請求項19所述之檢測方法,其中各該些對應光線係自反射該些 晝素圖樣之反射光線。Patent Application No. 095113834-----Replacement of Patent Application Range (Supplement) (No Cut-Off Version, &quot;January January) p Year/Month/卩 Revision Ben 10, Patent Application Range: ------ -------------&quot; 1. A detection system for a color filter, the color filter comprising a plurality of pixel patterns having different colors, the detection The system comprises: a detection light generating device comprising an initial light source and a filter device, the filter device receiving light from the initial light source, and providing a plurality of different colors of light 'at least part of the light and the plurality of rays The prime pattern has a color correspondence, and the frequency spectrum between the light rays is adjustable to convert the light into a mixed light source having a specific frequency spectrum; and a plurality of photosensitive devices, the photosensitive device and the halogen elements The pattern is in a corresponding relationship of the color and is electrically connected to a detecting device. The photosensitive device is located on the same side of the color filter as the detecting light generating device, wherein the hybrid light source is incident on the color filter. sheet After the pixel patterns are respectively generated, a plurality of reflected rays are respectively received by the corresponding photosensitive devices and transmitted to the detecting device to detect whether the grayscale values of the reflected rays are extremely similar or even equal. Determine if the pixel patterns are flawed. 2. The detection system of claim 1, further comprising a light guide plate disposed between the detection light generating device and the color filter to allow the light to be mixed through the light guide plate. 3. The detection system of claim 1, wherein the color calender sheet comprises a red hustle and bustle pattern. 4. The detection system of claim 1, wherein the initial source comprises a white light source. 5. The detection system of claim 1, wherein the detection light generating means comprises a plurality of initial light sources providing the hybrid light sources of different colors. </ RTI> </ RTI> </ RTI> </ RTI> </ RTI> </ RTI> </ RTI> </ RTI> </ RTI> </ RTI> </ RTI> </ RTI> </ RTI> </ RTI> </ RTI> <RTIgt; The light generating device and the light guide plate are configured to receive the light of the different colors correspondingly and transmit the light to the light guide plate. 7. The detection system of claim 6, wherein each of the light guiding devices comprises an optical fiber. 8. The detection system of claim 1, wherein each of the photosensitive devices comprises a charge-coupled device (CCD). 9. The detection system of claim 1, wherein each of the photosensitive devices comprises a complementary metal oxide semiconductoi (CMOS) 〇10. A detection system for a color filter. The color filter includes a plurality of pixel patterns having different colors. The detection system includes: a detection light generating device including an initial light source and a filter device, the filter device receiving the initial The light source of the light source is adapted to provide a plurality of light of different colors, at least some of the light rays are in a color correspondence with the pixel patterns, and the frequency spectrum between the light rays is adjustable to convert the light into one a mixed light source of a specific frequency spectrum; and a plurality of photosensitive devices, wherein the photosensitive devices are corresponding to the color of the halogen patterns, and are electrically connected to a detecting device, the photosensitive devices, and the detecting light generating device Separately located on opposite sides of the color filter, wherein the mixed light source is incident on the pixel map of the color filter Then, respectively, generating a plurality of penetrating rays 'received by each of the corresponding photosensitive devices and transmitted to the detecting device to detect whether the grayscale values of the penetrating rays are extremely similar or even equal, and determine the Is there a leap in the alizarin pattern? 11. The detection system of claim 10, further comprising a light guide plate disposed on the detection light 2 1322888 • * Patent Application No. 095113834 (the patent application scope replacement ( supplement) (no underline version, 99 years) January) Between the line generating device and the color filter, the light is allowed to be mixed through the light guide plate. 12. The detection system of claim 10 wherein the color filter comprises a red, green, and blue pixel pattern. 13. The detection system of claim 10, wherein the initial source comprises a white light source. 14. The detection system of claim 10, wherein the detection light generating means comprises a plurality of φ initial light sources to provide the hybrid light sources of different colors. The detection system of claim 11, further comprising a plurality of light guiding devices disposed between the light generating device and the light guide plate for correspondingly receiving the light of different colors and transmitting the light to The light guide plate. 16. The detection system of claim 15 wherein each of the light guiding devices comprises an optical fiber. 17. The detection system of claim 10, wherein each of the photosensitive devices comprises a charge-coupled device (CCM). The detection system of claim 10, wherein each of the photosensitive devices comprises A complementary metal oxide semiconductor (CMOS) 〇 19. A method for detecting a color filter, the color filter comprising a plurality of pixel patterns having different colors, the detection method includes the following Step: (8) providing a plurality of light of different colors, so that at least some of the light rays have a color corresponding relationship with the pixel patterns; (b) adjusting a frequency spectrum between the light rays, and converting the light rays into one having 3 Patent Application No. 095,113, 834, - Patent Application Scope Replacement (Supplement) (No-line version, New Year's Day), a mixed light source of a specific frequency spectrum; (C) the color light source is incident on the color filter After the pixel patterns are respectively, a plurality of corresponding rays are respectively generated; and (Φ is corresponding to the plurality of photosensitive devices to receive the corresponding rays and pass to a check The device 'sense is similar or even equal to the gray level of the light, and determines whether the pixel patterns are exhausted. 20. The detection method according to claim 19, wherein the ^) step is A filter device receives light from an initial source and converts the light into a plurality of different colors and a mixed frequency source having a specific frequency spectrum, as desired. Each of the corresponding light rays penetrates the light rays of the halogen patterns. The detection method of claim 19, wherein each of the corresponding light rays self-reflects the reflected light of the halogen patterns.
TW095113834A 2006-04-18 2006-04-18 Inspection system and method for a color filter TWI322888B (en)

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JP3060620B2 (en) * 1991-07-29 2000-07-10 日本電気株式会社 Color filter inspector
JP3358331B2 (en) * 1994-10-31 2002-12-16 石川島播磨重工業株式会社 Color filter inspection device
JPH09126948A (en) * 1995-11-06 1997-05-16 Toppan Printing Co Ltd Method for inspecting color filter
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