1321671 九、發明說明： 【發明所屬之技術領域】 本發明是有關於一種平面顯示裝置及其驅動方法，且特別 是有關於一種利用光纖傳輸訊號之平面顯示裝置及其驅動方 法。 【先前技術】 iw著顯示面板產業的快速發展’生產成本的控制變得越來 越為重要，在面板模組與其他部件進行組裝前，須先進行面板 模組的檢查，以確保面板模組的生產品質。 液晶面板模組包括掃描驅動器、資料驅動器及軟性電路 扳。為了能檢測面板的好壞，傳統的測試機台提供一外部訊號 源，並將外部訊號源透過探針將檢測訊號傳輸至面板模組之資 料驅動器上之輸人接點’部分訊號從資料驅動諸軟性電路板 傳送至掃描驅動器，再分別由資料驅動器與掃描驅動器提供資 料訊號與掃描訊號，以使面板顯示檢測畫面，而檢測人員再據 以進行面板之晝面檢查並將不合格品篩除，以避免不合格之面 板模組與其他部件進行組裝，浪費其他部件之物料，而造成生 產成本上弁。 然而，透過探針將檢測訊號傳輸至f料驅動器與掃描驅 益的過程中，往往需要將探針與掃描驅動器或f料驅動写上 輸入接點精密對位，㈣探針很容㈣偏移而與不正確 ==戈亍畫面檢查，甚至因不當之短路而燒㈤ 拖駆勤态或資料驅動器上之電子元件。 之面板模組，探 輪入接點之接觸 此外，在大量生產的過程中，為檢測不同 針必須重複地進行資料驅動器或掃描驅動器上 1321671 與分離’每次的接觸便造成探針與輸人接助 探針的使用壽命·，並限制了探針的接觸次數，換句話Γ 測試機台上的探針亦必須定期更換，使得生產成本上升， 同時，探針與輸入接點間之接觸面之氧化現象使得探針盘 輸入接點間之接觸電阻變大，影響訊號傳送頻寬與品質，在檢 測過程中，檢測人員便難以分辨不良品而造成不必要， 而過度的筛除不合格品，亦使得生產成本上升。 、 而且’隨著液晶面板餘尺寸越來越大，檢騎晶面板模 之檢測訊號㈣需求㈣來敎，⑽地依賴探針傳輸 檢測訊號已經逐漸不符未來檢測所需。 以及，檢測畫面的過程中，透過探針傳輸之訊 電磁輻射干擾亦會造成晝面品質不佳，進而影響書面檢測成 /所以，解決習知探針接觸式傳輸訊號之缺點，使生 受到良好控制並提高產品檢測之可#度，便成為— 術課題。 玄的孜 【發明内容】 有鑑於此，本發明的目的就是在提供—種平面顯示裝置、 :面顯不裝置之驅動方法、驅動電路、時序控制器、資料驅動 器及面板餘之㈣裝置。湘紐之—端㈣時序控制器或 檢測裝置’並將光纖之另—端耗接資料驅動器，使得資料驅動 器利用光纖接收㈣或檢職置輸出之 述習知技術之缺點。 乂解决則 根據本發明的第-個目的，提出一種平面顯示器。平㈣ 不器包括光纖、時序控制H、面板及資料驅動i^光纖之一端 係搞接至時序控制器，且光纖之另—端軸接至資料驅動哭。 1321671 柃序控制器包括第—井皋描έ 学杈且及a寸序控制電路。第一光學模組 接收第一影像資料碎辨，廿肢哲 ^ ± ;υ 將第一衫像資料訊號轉換為光資料 訊號輸出至光纖。而時序控制電路係輕接於第一光學模組，並 用以控制第一光學模組。資料驅動器包括第二光學模組，第二 光子核且於接收光請信號後，將光資料訊號轉換為第二影像 貧料訊號輸出至面板，以使面板據以顯示影像畫面。 根據本發明的第二個目的，提出一種平面顯示器之驅動方 法、。平面顯示器包括面板、時序控制器及資料驅動器。而驅動 方法包括如下步驟：首先’料序控㈣與光纖之—端賴接， 並將資料驅動器與光纖之另一端輕接。接著，輸入第一影像資 料訊號至時序控制器。跟著，將第_影像資料訊號轉換成光資 料訊號輸出至資料驅動器。然後，將光資料訊號轉換成第二影 像貧料訊號輸出至面板。最後’依據第二影像資料訊號驅動平 面顯示器顯示影像晝面。 根據本發明的第三個目的，提出一種驅動電路。驅動電路 係用以驅動面板。驅動電路包括光纖、時序控制器及資料驅動 器·。光纖之一端係耦接至時序控制器’且光纖之另一端係耦接 至資料驅動ϋ。時序控制器包括第—光學模組及時序控制電 路。第一光學模組接收第一影像資料訊號，並將第一影像資料 訊號轉換為光資料訊號輸出至光纖。時序控制電路_接於第 一光學模組，並用以控制第一光學模組。資料驅動器包括第二 光學模組。第二光學模組接收光資料信號，並將光資料㈣^ 換為第二影像資料訊號輸出至面板，以使面板據以顯示影 面。 旦 根據本發明的第四個目的，提出一種時序控制器。時序控 制器係用以與資料驅動器耦接，且時序控制器包括第—光學^ 1321671 像第一光學模組用以接收第-影 =抖Μ ’並將第-影像資料訊號轉換為光資料訊號。時序 控制電路係轉接於第一光學模组，並用以控制第—光學模组。 光纖接頭絲接至第__光學模組，且錢接頭係心純至光 纖，以將光資料訊號經由光纖輸出至資料驅動器。 根據本發明的第五個目的，提出一種資料驅動器。資料驅 動器係分別與時序控制器及面板純。資料驅動器包括光纖接 碩及第二光學模組。域接頭仙_接至光纖，並經由光纖 序控制諸出之光資料訊號。第二光學模纽將光信號轉 換為第二影像資料訊號輸出至面板，以使面板據以顯示影像晝 面0 根據本發明的第六個目的，提出一種檢測裝置。檢測裝置 用以檢測面板模組，且檢測裝置包括第—光學模組、時序控制 電路及光纖接頭。第-光學模組用以接收第—影像資料訊號， 並將第-影像資料訊號轉換為m找號輸出^時序控制電 路係耗接於第-光學模組，並用以控制第—光學模組。光纖接 頭係耦接至第一光學模組，且光纖接頭係用以耦接至光纖，以 將光資料訊號經由光纖輸出至面板模组，以檢測面板模組。 為讓本發明之上述目的、特徵、和優點能更明顯易懂，下 文特舉一較佳實施例，並配合所附圖式，作詳細說明如下： 【實施方式】 請參照第1圖，其繪示依照本發明一較佳實施例的一種平 面顯示裝置之方塊圖。平面顯示器10(FlatPanelDisplay，FPT) - 匕括光纖20、時序控制器30及面板模組4〇。光纖2〇之一端係 耦接至時序控制器30,且光纖2〇之另一端係耦接至面板模組 9 1321671 40 〇 叫參照第2圖，其繪示為依照本發明一較佳實施例的一種 時序控制器之方塊圖。時序控制器3〇包括第一光學模組31〇、 時序控制電路3 2 0、.第一光纖接頭3 3 〇、掃描控制信號產生器 340、珈瑪電壓產生器35〇、電源調整器36〇及電性接點組37〇。 第一光學模組310接收第一影像資料訊號S1，第一影像資料訊 號s 1例如為低電壓差動訊號（Low v〇hage Differentiai以糾吐 LVDS)，第一影像資料訊號§ 1經第一光學模組3丨〇轉換為光資 料訊號S2’並將光資料訊號S2輪出至第一光纖接頭33〇，第一 光纖接頭330係與光纖20之一端耦接，使得光資料訊號32經 由光纖2 0輸出至面板模組4 〇。 而時序控制電路320係分別與第一光學模組31〇、掃描控 制信號產生器340及珈瑪電壓產生器35〇耦接’並用以控制第 一光學模組310、掃描控制信號產生器34〇及珈瑪電壓產生器 350。掃描控制信號產生器34〇產生掃描控制信號&，而珈瑪 電壓產生器350用以產生珈瑪電壓vgama，且電源調整器 接收外部之電源電壓¥1後，並將其調整為電源電壓V2。掃描 控制信號Sc、珈瑪電壓Vgama及電源電壓¥2輸出至電性接點 組370。當電性接點組370及第一光纖接頭33〇分別耦接至面 板模組40時，面板模組40接收掃描控制信號&、珈瑪電壓 Vgama、電源電壓V2及光資料訊號S2，以顯示影像畫面。 進一步來說，第一光學模組310包括訊號_光通道轉換器 312'光學多工器314及光學緩衝器316。光學多工器314係耦 接於訊號-光通道轉換器312與光學緩衝器316之間。而訊號_ 光通道轉換器312用以接收第一影像資料訊號s卜並將第一°影 像資料訊號S1轉換為原始光訊號S11輸出至光學多工养314。 10 1321671 光學多工器3U對原始光訊號S11進行一光通道多工程序，以 產生光資料訊號S2。光學緩衝器316將光資料訊號㈣存後， 經由第一光纖接頭330輸出至面板模組4〇。 請參照第3圖，其緣示為依照本發明一較佳實施例的一種 面板模組之方塊圖。面板模組4〇包括面板41〇、掃描驅動器· 及資料驅動器430。掃描驅動器·及資料驅動器43〇係用以 依序驅動面板41〇上各列像素，並使面板❻顯示影像畫面。 —請參照第4圖，其繪示為依照本發明一較佳實施例的一種 資料驅動器之方塊圖。上述之資料驅動器43〇包括第二光纖接 頭432、電性接點組434及第二光學模組44〇。 桩 432係分別與第二光學模組44〇與光纖2〇之一端耦接i第二光 學模組440經由第二光纖接頭432及光纖2〇接收時序控制器 3〇輸出之光資料信號S2，並將光資料信號“轉換為第二影像 資料訊號S3，第二影像資料訊號例如為低擺幅差動訊號 (Reduced Swing Differential Signal, RSDS)。 當電性接點組434與電性接點組370耦接時，資料驅動器 430接收時序控制器30輸出之掃描控制信號Sc、珈瑪電壓 Vgama及電源電壓V2。而面板模組40根據掃描控制信號&、 珈瑪電壓Vgama及電源電壓V2及第二影像資料訊號S3，以使 面板410據以顯示影像晝面。 進一步來說’第二光學模組440包括光學緩衝器442、光 學解多工器444及光通道-訊號轉換器446。光學解多工器444 係耦接於光學緩衝器442及光通道-訊號轉換器446之間。光學 緩衝器442經由第二光纖接頭432接收光資料訊號S2並將其暫· 存。光學解多工器444對光學緩衝器442輸出之光資料訊號S2 進行一光通道解多工程序，以得原始光訊號S11。光通道-訊號 1321671 轉換器446接收原始光訊號S11後，將原始光訊號s 11轉換成 第一影像Η料訊號S 3 ’以使面板41 〇據以顯示影像畫面。 請參照第5圖’其繪示為依照本發明一較佳實施例的—種 平面顯示裝置之驅動方法之流程圖。驅動方法係應用於上述之 平面顯示裝置，且驅動方法包括如下步驟：首先如步驟51所 述’將時序控制器30與光纖20之一端耦接，並將資料驅動器 430與光纖20之另一端耦接。接著如步驟52所述，輸入第一 影像資料訊號S1至時序控制器3〇。跟著如步驟53所述，將第 一影像資料訊號s 1轉換成光資料訊號S2輸出至資料驅動器 430。然後如步驟54所述，將光資料訊號S2轉換成第二影像資 $ 料訊號S3輸出至面板410。最後如步驟55所述，依據第二影 像資料訊號S3驅動平面顯示器4〇顯示影像晝面。 此外，上述之時序控制器3〇亦能整合於檢測裝置中，使 得檢測裝置能藉由光纖20與面板模組4〇耦接’以檢測面板模 組40有無瑕疵缺陷。 ' 本發明上述實施例所揭露之平面顯示裝置，藉由光纖耦接 - 時序控制器及資料控制器，使得時序控制器及資料控制器之間 的傳輸頻寬大幅提昇，以提高影像資料訊號的傳送品質。 此外，檢測裝置藉由光纖與待測面板模組的耦接，將具有 _ 如下優點： 第-個優點是提高檢測裝置與待測面板模組間之傳輸頻 寬。隨著面板模組尺寸越來越大，檢測面板模組所需之檢測訊 號頻寬需求亦越來越大’上述檢測裝置透過光纖寬頻傳送訊 號，有效地解決習知探針檢測無法滿足傳輸頻寬的問題。 第二個優點是具有低電磁輻射之特性。光纖傳輸具有低電 磁韓射之特性，可以排除檢測面板模組的過程中，因為透過探 12 針傳輸之訊號所形成之電磁輻射干擾，而影響晝面檢测之問題。 第三個優點是適合應用於無人化自動檢測。當面板模植檢 測需要進行「無人化自動檢測時」’透過光纖傳送檢測訊號可 以穩定且不受干擾地由檢測訊號產生器將訊號傳送至液晶面 板0 第四個優點是提昇檢測裝置之穩定度。利用探針檢測面板 、組’需要精準地控制探針與面板模組接觸，並需要定期調校 探針’以料其精密對位，且需要定較換探針，以維持訊號BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a flat display device and a method of driving the same, and more particularly to a flat display device using a fiber optic transmission signal and a driving method thereof. [Prior Art] iw is the rapid development of the display panel industry. 'The control of production cost is becoming more and more important. Before assembling the panel module and other components, the panel module must be inspected to ensure the panel module. Production quality. The LCD panel module includes a scan driver, a data driver, and a flexible circuit board. In order to detect the quality of the panel, the traditional test machine provides an external signal source, and the external signal source transmits the detection signal to the input contact of the data driver of the panel module through the probe. The flexible circuit board is sent to the scan driver, and the data driver and the scan driver respectively provide the data signal and the scan signal, so that the panel displays the detection screen, and the tester performs the face inspection of the panel and removes the defective product. In order to avoid the assembly of unqualified panel modules and other components, the materials of other components are wasted, resulting in a high production cost. However, in the process of transmitting the detection signal to the f-driver and the scanning drive through the probe, it is often necessary to precisely align the probe with the scan driver or the f-drive drive input contact point, and (4) the probe is very capacitive (four) offset And with the incorrect == Ge Wei screen check, even burned due to improper short circuit (5) dragging the electronic components on the diligent or data drive. The panel module, the contact of the probe wheel into the contact point, in addition, in the process of mass production, in order to detect different needles must be repeatedly carried out on the data drive or scan driver on the 13361671 and the separation 'each contact causes the probe and the input The service life of the probe is limited, and the number of contacts of the probe is limited. In other words, the probe on the test machine must also be replaced periodically, which increases the production cost and the contact between the probe and the input contact. The oxidation of the surface causes the contact resistance between the input and the contacts of the probe disc to become large, which affects the bandwidth and quality of the signal transmission. During the detection process, it is difficult for the inspection personnel to distinguish the defective products and cause unnecessary, and the excessive screening fails. Products also increase production costs. And as the remaining size of the LCD panel is getting larger and larger, the detection signal (4) of the crystal panel is checked (4), and (10) relies on the probe transmission. The detection signal has gradually disappeared for future detection. In addition, during the process of detecting the image, the electromagnetic radiation interference transmitted through the probe will also cause poor quality of the kneading surface, thereby affecting the written detection/supplied, so as to solve the shortcomings of the conventional probe contact transmission signal, and the health is good. Controlling and improving the product testing can become a topic. OBJECT OF THE INVENTION In view of the above, an object of the present invention is to provide a flat display device, a driving method for a surface display device, a driving circuit, a timing controller, a data driver, and a panel (4) device. The Xiang-Nu-end (4) timing controller or detection device 'and the other end of the fiber optic cable is used to make the data driver use the shortcomings of the conventional technology of receiving (4) or inspecting the output.乂Solution According to a first object of the present invention, a flat panel display is proposed. The flat (4) includes the optical fiber, the timing control H, the panel and the data drive. The one end of the optical fiber is connected to the timing controller, and the other end of the optical fiber is connected to the data drive to cry. The 1321671 sequence controller includes a first well scan and an in-sequence control circuit. The first optical module receives the first image data, and the first image data is converted into an optical data signal and outputted to the optical fiber. The timing control circuit is lightly connected to the first optical module and is used to control the first optical module. The data driver includes a second optical module, and after receiving the optical signal, the optical data signal is converted into a second image poor signal output to the panel, so that the panel displays the image according to the image. According to a second object of the present invention, a driving method of a flat panel display is proposed. The flat panel display includes a panel, a timing controller, and a data driver. The driving method includes the following steps: first, the material control (4) is connected to the end of the optical fiber, and the data driver is connected to the other end of the optical fiber. Then, the first image data signal is input to the timing controller. Then, the _image data signal is converted into a light data signal and output to the data driver. Then, the optical data signal is converted into a second image poor signal output to the panel. Finally, the image display is driven by the second image data driving panel display. According to a third object of the present invention, a driving circuit is proposed. The drive circuit is used to drive the panel. The drive circuit includes fiber optics, timing controllers, and data drivers. One end of the fiber is coupled to the timing controller' and the other end of the fiber is coupled to the data drive port. The timing controller includes a first optical module and a timing control circuit. The first optical module receives the first image data signal, and converts the first image data signal into an optical data signal for output to the optical fiber. The timing control circuit is connected to the first optical module and is used to control the first optical module. The data driver includes a second optical module. The second optical module receives the optical data signal, and converts the optical data (4) to the second image data signal to output to the panel, so that the panel displays the image accordingly. According to a fourth object of the present invention, a timing controller is proposed. The timing controller is configured to be coupled to the data driver, and the timing controller includes a first optical ^ 1321671 like the first optical module for receiving the first image = jitter 并将 and converting the first image data signal into the optical data signal . The timing control circuit is coupled to the first optical module and is used to control the first optical module. The fiber optic connector wire is connected to the __ optical module, and the money connector is pure to the fiber to output the optical data signal to the data driver via the optical fiber. According to a fifth object of the present invention, a data driver is proposed. The data drive is pure to the timing controller and panel, respectively. The data driver includes a fiber optic splicing and a second optical module. The domain connector is connected to the optical fiber, and the optical data signals are controlled via the optical fiber sequence. The second optical module converts the optical signal into a second image data signal for output to the panel, so that the panel displays the image surface. According to the sixth object of the present invention, a detecting device is proposed. The detecting device is configured to detect the panel module, and the detecting device comprises a first optical module, a timing control circuit and a fiber connector. The first optical module is configured to receive the first image data signal, and convert the first image data signal into the m search signal output. The timing control circuit is connected to the first optical module and is used to control the first optical module. The optical fiber connector is coupled to the first optical module, and the optical fiber connector is coupled to the optical fiber to output the optical data signal to the panel module via the optical fiber to detect the panel module. The above described objects, features, and advantages of the present invention will become more apparent from the aspects of the appended claims. A block diagram of a flat display device in accordance with a preferred embodiment of the present invention is shown. Flat panel display 10 (FlatPanelDisplay, FPT) - includes optical fiber 20, timing controller 30 and panel module 4A. One end of the optical fiber 2 is coupled to the timing controller 30, and the other end of the optical fiber 2 is coupled to the panel module 9 1321671 40. Referring to FIG. 2, it is illustrated as a preferred embodiment of the present invention. A block diagram of a timing controller. The timing controller 3A includes a first optical module 31A, a timing control circuit 320, a first fiber connector 33, a scan control signal generator 340, a gamma voltage generator 35A, and a power conditioner 36. And the electrical contact group 37〇. The first optical module 310 receives the first image data signal S1, and the first image data signal s 1 is, for example, a low voltage differential signal (Low v〇hage Differentiai for LVDS), and the first image data signal § 1 passes the first The optical module 3 is converted into the optical data signal S2' and the optical data signal S2 is rotated out to the first optical fiber connector 33, and the first optical fiber connector 330 is coupled to one end of the optical fiber 20, so that the optical data signal 32 is transmitted through the optical fiber. 2 0 output to panel module 4 〇. The timing control circuit 320 is coupled to the first optical module 31, the scan control signal generator 340, and the gamma voltage generator 35, and is used to control the first optical module 310 and the scan control signal generator 34. And a gamma voltage generator 350. The scan control signal generator 34 generates a scan control signal & the gamma voltage generator 350 generates a gamma voltage vgama, and the power regulator receives an external power supply voltage of ¥1 and adjusts it to a power supply voltage V2. . The scan control signal Sc, the gamma voltage Vgama, and the power supply voltage ¥2 are output to the electrical contact group 370. When the electrical contact group 370 and the first optical fiber connector 33 are respectively coupled to the panel module 40, the panel module 40 receives the scan control signal &, the gamma voltage Vgama, the power supply voltage V2, and the optical data signal S2, The image screen is displayed. Further, the first optical module 310 includes a signal_optical channel converter 312' optical multiplexer 314 and an optical buffer 316. Optical multiplexer 314 is coupled between signal-to-light channel converter 312 and optical buffer 316. The signal_optical channel converter 312 is configured to receive the first image data signal sb and convert the first image data signal S1 into the original optical signal S11 for output to the optical multiplexer 314. 10 1321671 The optical multiplexer 3U performs an optical channel multiplexing procedure on the original optical signal S11 to generate an optical data signal S2. The optical buffer 316 stores the optical data signal (4) and outputs it to the panel module 4 via the first fiber connector 330. Please refer to FIG. 3, which is a block diagram of a panel module in accordance with a preferred embodiment of the present invention. The panel module 4A includes a panel 41A, a scan driver, and a data driver 430. The scan driver and data driver 43 are used to sequentially drive the pixels of each column on the panel 41 and display the image on the panel. - Referring to Figure 4, there is shown a block diagram of a data driver in accordance with a preferred embodiment of the present invention. The data driver 43A includes a second fiber connector 432, an electrical contact group 434, and a second optical module 44A. The pile 432 is coupled to one end of the second optical module 44 and the optical fiber 2, respectively. The second optical module 440 receives the optical data signal S2 outputted by the timing controller 3 through the second optical connector 432 and the optical fiber 2 And converting the optical data signal into the second image data signal S3, the second image data signal is, for example, a reduced Swing Differential Signal (RSDS). When the electrical contact group 434 and the electrical contact group When the 370 is coupled, the data driver 430 receives the scan control signal Sc, the gamma voltage Vgama, and the power supply voltage V2 outputted by the timing controller 30. The panel module 40 is based on the scan control signal &, the gamma voltage Vgama, and the power supply voltage V2. The second image data signal S3 is such that the panel 410 displays the image surface. Further, the second optical module 440 includes an optical buffer 442, an optical demultiplexer 444, and an optical channel-to-signal converter 446. The multiplexer 444 is coupled between the optical buffer 442 and the optical channel-to-signal converter 446. The optical buffer 442 receives the optical data signal S2 via the second optical fiber connector 432 and temporarily stores it. 4 44. The optical data signal S2 outputted by the optical buffer 442 is subjected to an optical channel demultiplexing process to obtain the original optical signal S11. The optical channel-signal 13261671 converter 446 receives the original optical signal S11 and converts the original optical signal s 11 The first image data signal S 3 ′ is used to cause the panel 41 to display the image image. Referring to FIG. 5 , a flow chart of the driving method of the flat display device according to a preferred embodiment of the present invention is illustrated. The driving method is applied to the above-mentioned flat display device, and the driving method includes the following steps: first, as described in step 51, 'the timing controller 30 is coupled to one end of the optical fiber 20, and the data driver 430 and the optical fiber 20 are additionally connected. The first image data signal S1 is input to the timing controller 3〇. Then, as described in step 53, the first image data signal s 1 is converted into the optical data signal S2 and output to the data driver. 430. Then, as described in step 54, the optical data signal S2 is converted into the second image data signal S3 and output to the panel 410. Finally, as described in step 55, the second image data signal S3 is driven. The flat panel display 4 displays the image plane. In addition, the timing controller 3 can also be integrated into the detecting device, so that the detecting device can be coupled to the panel module 4 by the optical fiber 20 to detect whether the panel module 40 is present.平面 Defects. The flat display device disclosed in the above embodiments of the present invention, by means of a fiber coupling-timing controller and a data controller, greatly increases the transmission bandwidth between the timing controller and the data controller to improve the image. The transmission quality of the data signal. In addition, the detection device has the following advantages by the coupling of the optical fiber and the panel module to be tested: The first advantage is to increase the transmission bandwidth between the detection device and the panel module to be tested. As the size of the panel module becomes larger and larger, the detection signal bandwidth required for the detection panel module is also increasing. The above detection device transmits signals through the fiber-optic broadband, effectively solving the problem that the conventional probe detection cannot satisfy the transmission frequency. Wide question. The second advantage is the low electromagnetic radiation characteristics. The optical fiber transmission has the characteristics of low electromagnetic radiation, which can eliminate the problem of detecting the face panel by the electromagnetic radiation interference formed by the signal transmitted by the probe 12 in the process of detecting the panel module. The third advantage is that it is suitable for unmanned automatic detection. When panel panel detection requires "unmanned automatic detection", the transmission of the detection signal through the optical fiber can transmit the signal to the liquid crystal panel stably and undisturbed by the detection signal generator. The fourth advantage is to improve the stability of the detection device. . Using the probe detection panel, the group ' needs to precisely control the probe to contact the panel module, and need to periodically adjust the probe' to precisely position it, and need to change the probe to maintain the signal
之傳遞品質，而利用光纖傳送檢測訊號之檢測裝置構造簡單， 有利於提昇檢測裝置之穩定度。 、综上所述，雖然本發明已以一較佳實施例揭露如上，然其 接非用以限疋本發明，任何熟習此技藝者，在不脫離本發明之 ^神和辄圍内’當可作各種之更動與潤飾，因此本發明之保護 範圍當視後附之中請專利範圍所界定者為準。 13 【圖式簡單說明】 第1圖繪示為依照本發明—鉍 置之方塊圖。 k佳實施例的一種平面顯示裝 之方圖2圖s不為依??、本發明—較佳實施例的—種時序控制器 方塊圖 第3圖繪示為依照本發明—較佳實施例的—種面板模乡且 之 第4圖繪不為依照本發明—較施例的驅 之方塊圖。 貝㈣動器 面顯示跤 置之驅動方法之流程 第5圖繪示為依照本發明一較佳實施例的一種平 圖 【主要元件符號說明】 10 平面顯示裝置 20 光纖 30 時序控制器 40 面板模組 3 10 :面板模組 312 ·訊號-光通道轉換器 314 :光學多工器 316 ' 442 :光學緩衝器 320 :時序控制電路 330 :第一光纖接頭 340 :掃描控制信號產生器 350 :珈碼電壓產生器 360 :電源調整器 1321671 3 70、43 4 :電性接點組 410 :面板 420 :掃描驅動器 430 :資料驅動器 432 :第二光纖接頭 440 :第二光學模組 444 :光學解多工器 446 :光通道-訊號轉換器The transmission quality of the detection device using the optical fiber transmission detection signal is simple, which is advantageous for improving the stability of the detection device. In view of the above, although the present invention has been disclosed in a preferred embodiment as above, it is not intended to limit the invention, and any person skilled in the art will be able to do so without departing from the scope of the invention. Various changes and modifications may be made, and the scope of protection of the present invention is determined by the scope of the patent application. 13 BRIEF DESCRIPTION OF THE DRAWINGS Fig. 1 is a block diagram of a device in accordance with the present invention. FIG. 3 is a block diagram of a timing controller of the present invention, which is a preferred embodiment of the present invention. FIG. 3 is a block diagram of a timing controller according to the present invention. The fourth panel of the panel is not shown in accordance with the present invention - the block diagram of the embodiment. Flow chart of the driving method of the (four) actuator surface display device FIG. 5 is a plan view of a main component according to a preferred embodiment of the present invention. [Flat Description of Main Components] 10 Planar Display Device 20 Optical Fiber 30 Timing Controller 40 Panel Mode Group 3 10 : panel module 312 · signal - optical channel converter 314 : optical multiplexer 316 ' 442 : optical buffer 320 : timing control circuit 330 : first fiber connector 340 : scan control signal generator 350 : weight Voltage generator 360: power conditioner 1321671 3 70, 43 4: electrical contact group 410: panel 420: scan driver 430: data driver 432: second fiber connector 440: second optical module 444: optical demultiplexing 446: optical channel-signal converter
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