200912451 九、發明說明： 【發明所屬之技術領域】 本發明係關於一種顯示面板，特別關於一種液晶顯示 面板。 【先前技術】 液晶顯示裝置（ Liquid Crystal Display, LCD )以其耗 電量低、發熱量少、重量輕、以及非輕射性等等優點，大 幅應用於各式各樣的電子產品中，並且逐漸地取代傳統的 陰極射線管顯示裝置（Cathode Ray Tube Display, CRT Display )。對液晶顯不裝置而言，有許多的技術要件可判 斷其品質優劣，其中，隨著使用者的需求越來越高，廣視 角已成為不可或缺之技術要件之一。 目前，業界所使用之廣視角技術有許多，其中一種係 為多區域垂直配向（Multi-Domain Vertical Alignment， M VA )技術。顧名思義，應用多區域垂直配向技術之液晶 顯示面板，其液晶分子在未通電時係垂直於面板，當通電 後，液晶分子係倒向不同的方向，這樣從不同的角度觀察 螢幕，都可以獲得光學補償，進而增大視角。 請參照圖1所示，其係為多區域垂直配向技術之簡單 示意圖。液晶顯示面板1係具有一彩色濾、光基板11以及 一薄膜電晶體基板12。其中，彩色濾光基板11具有一共 同電極111，薄膜電晶體基板12具有一晝素電極121，而 在共同電極111及晝素電極121之間係具有一液晶層13， 200912451 液晶層η中有許多液晶分子131。另外，在多區域垂直配 向技術中，薄膜電晶體基板12更具有複數個突起物122。 、對多區域區域垂直配向技術而言，液晶分子ΐ3ΐ在未 通電時’其長軸係垂直於彩色渡光練u及薄膜電晶體 基板12的表面。只有在突起物122附近之液晶分子i3i， 由於突起物122所產生之邊場效應㈤够職⑷ 的影響’會略有傾斜並具有一預傾角（Pre_TiuAngie)。此 才光線無法穿透液晶顯示面板i而出現黑發幕顯示 (Black Display )。 v請參照圖2所示，在通電後，突起物122附近的液晶 二子131因為具有預傾角，故可迅速帶動離突起物m較 遠的液晶分子131傾斜到應有的傾斜角度。此時，光線可 穿透液晶顯7TT面板1並可進行光線調制。並且，由於不同 區域中’液晶分子131之長軸指向不同之方向，故可具有 光學補償效果並達到廣視角之目的。此外，由於液晶分子 131在未通電時已具有一預傾角，故相對而言，液晶分子 131在通電後要轉動到預定的位置會更快—些，故多區域 垂直配向技術亦有利於液晶分子的響應速度、並縮短並反 應時間。 ~ 當然，在多區域區域垂直配向技術中，除了上述突起 物122之形狀可產生邊場效應之外，亦可使用其他形狀來 產生邊％效應’進而達到廣視角之目的。請參照圖3所示， 二種習知應用多區域垂直配向技術之液晶顯示面板2係包 含一彩色濾光基板21及一薄膜電晶體基板22。其中，彩 200912451 色濾光基板21具有一共同電極211，薄膜電晶體基板22 具有一晝素電極221，在晝素電極221和共同電極211之 間係充滿液晶分子231。 另外，晝素電極221係具有一電極圖案，電極圖案係 具有至少一主電極2211及複數個次電極2212，且次電極 2212係設置於主電極2211之二侧並間隔設置。在二個次 電極2212之間可視為存在一狹缝2213。由於主電極 2211、次電極2212及狹缝2213之形狀所產生的邊場效 應，使得液晶分子231在通電後可倒向不同之方向，進而 達到廣視角之目的。 對上述電極圖案而言，液晶分子係從沿著次電極2212 (或狹缝2213)之方向往電極圖案之中央部分傾倒。因 此，若晝素電極221之次電極2212 (或狹縫2213)距離 太長，則在通電後會造成離中央部分較遠之液晶分子231 無法完全帶動離中央部分較近的液晶分子231轉動到預定 的位置，以致造成一些次區域（Sub Domains )出現。 請參照圖4A〜圖4D，其依序為圖3之液晶顯示面板 2在通電後在8毫秒、16毫秒、24毫秒及穩態時之液晶分 子光線穿透照片。其中，圖4D係顯示穩態。在圖4D中， 可清楚看見液晶顯不面板2產生四個次區域D21，〜1D24以 及二條明顯的分界線（domain boundary ) L21、L22，且在 分界線L21、L22之處，液晶分子係不透光，因而降低了 整體液晶顯示面板2之光線穿透率。由圖4A至圖4D可看 出，液晶分子231無法很快地達到穩態，以致增加反應時 200912451 間。上述二項缺陷對液晶顯示面板2而言是非常不利的因 素。 因此，如何提供一種液晶顯示面板，能夠解決上述問 題，進而具有廣視角、高穿透率以及高反應速度之特點， 已成為當前急需解決課題之一。 【發明内容】 有鑑於上述課題，本發明之目的為提供一種能夠具有 廣視角、高穿透率以及高反應速度之特點之液晶顯示面 板。 緣是，為達上述目的，依本發明之一種液晶顯示面板 包含一第一基板、一第二基板以及一液晶層。第一基板係 具有一共同電極，共同電極係具有至少一狹缝圖案，狹缝 圖案係具有至少一主狹缝及複數個次狹缝，該等次狹缝係 設置於主狹缝之二侧且間隔設置。第二基板係與第一基板 相對而設且具有一畫素電極，晝素電極係與共同電極相對 而設並具有至少一電極圖案，電極圖案係具有至少一主電 極及複數個次電極，該等次電極係設置於主電極之二側且 間隔設置。第一基板之該等次狹缝延伸方向與第二基板之 該等次電極延伸方向相互平行。液晶層係設置於第一基板 及第二基板之間。 承上所述，因依本發明之一種液晶顯示面板之晝素電 極係具有至少一電極圖案，且共同電極係具有至少一狹縫 圖案，並且晝素電極之次電極及共同電極之次狹缝延伸方 200912451 向係相互平行。因此，藉由共同電極之狹缝圖案所產生之 邊場效應’可加強由畫素電極之電極圖案所產生之邊場效 應，故在通電前，電極圖案附近之液晶分子具有一預傾 角，且狹缝圖案附近之液晶分子亦具有一預傾角。因此， 於通電後，位於次晝素結構中央部份之液晶分子可同時受 到電極圖案附近之液晶分子以及狹缝圖案附近之液晶分 子之帶動，而迅速地傾斜至所需的角度，進而使得液晶分 子較快達到穩怨’並且縮小次區域之分界線的耗圍’進而 增加穿透率，並達到廣視角之目的。 【實施方式】 以下將參照相關圖式，說明依本發明較佳實施例之一 種液晶顯示面板，其中相同的元件將以相同的參照符號加 以說明。 請參照圖5所示，本發明第一較佳實施例之液晶顯示 面板3係包含一第一基板31、一第二基板3 2以及一液晶 層33。其中，第一基板31係與第二基板32相對而設，液 晶層33係設置於第一基板31及第二基板32之間。在本 實施例中，液晶顯示面板3係為一多區域垂直配向 (Multi-Domain Vertical Alignment, MVA)之液晶顯示面 板'在液晶顯不面板3未通電時5液晶層33之液晶分子 331之長轴方向係與第一基板31及第二基板32之表面呈 垂直。另外，在本實施例中，第一基板31係為一彩色濾 光基板，第二基板32係為一薄膜電晶體基板。 10 200912451 其中，第一基板31係具有一共同電極311，共同電極 311係具有一狹缝圖案。狹縫圖案係具有至少一主狹缝 3111及複數個次狹縫3112，且次狹縫3m係設置於主狹 缝3111之二側並間隔設置。於此，狹縫圖案係為共同電極 311中不具有電極之部分；或是共同電極3ιι本身具有凹 凸部分’而狹缝圖案係為凹陷之部分。 第二基板32係具有一晝素電極321，畫素電極321係 與共同電極3!1相對而設並具有至少—電極圖案。電極圖 案係具有至少一主電極3211及複數個次電極3212，且次 電極3212係没置於主電極3211之二側並間隔設置。其 中，電極圖案係為畫素電極321中具有電極之部分；或^ 旦素電極321本身具有凹凸之部分，而電極圖案係為凸起 之部分。 —在本實施例中，共同電極3U及晝素電極321係可為 :銦錫氧化物透明電極、一銦鋅氧化物透明電極或為一鋁 辞氧化物透明電極。 —立請參關6所示，其係、為液晶顯示面板3之—俯視圖 :二圖，亚以其中一次晝素結構為代表。在掃描線322與 二料線323所圍成之-次晝素内，共同電極311之狹縫圖 ，、與畫素電極321之電極圖案在投影方向上係相互重疊。 全其中，共同電極311之狹縫圖案具有二主狹縫3111， 旦素電極321之電極圖案具有二主電極3211，且二主狹縫 111及二主電極3211係分別呈十字狀。另外，共同電極 之次狹缝3Π2係相互對稱設置於主狹縫3ηι兩側， 200912451 且主狹缝3in與次狹缝3112係呈米字狀，並且主狹縫 sin與次狹縫3112之夾角係實質為45度。畫素電極321 之次電極3212係相互對稱設置於主電極32ιι兩侧，且主 電極3211與次電極3212係呈米字狀。另外，共同電極311 之人狹，，逢3112之延伸方向與晝素電極32丨之次電極 之延伸方向係相互平行，並且次狹縫3112之長度及寬度 係小於次電極3212之長度及寬度。 藉由共同電極311之狹縫圖案所產生之邊場效應，可 加強由f素電極321之電極圖案所產生之邊場效應，以致 在通電前’電極圖案附近之液晶分子具有—預傾角，且狹 縫圖案附近之液晶分子亦具有一預傾角。因此，於通電 後位於··人晝素結構中央部份之液晶分子可同時受到電極 圖案附近之液晶分子m缝圖案附近之液晶分子之帶 動’而迅速地傾斜至所㈣角度，進而使得液晶分子較快 達到穩恶，並提高液晶顯示面板之穿透率。200912451 IX. Description of the Invention: [Technical Field] The present invention relates to a display panel, and more particularly to a liquid crystal display panel. [Prior Art] Liquid Crystal Display (LCD) is widely used in a wide variety of electronic products due to its low power consumption, low heat generation, light weight, and non-light absorbing properties. Gradually replace the traditional cathode ray tube display (CRT Display). For liquid crystal display devices, there are many technical requirements to judge the quality of the products. Among them, as the needs of users become higher and higher, the wide viewing angle has become one of the indispensable technical requirements. At present, there are many wide viewing angle technologies used in the industry, one of which is Multi-Domain Vertical Alignment (M VA) technology. As the name suggests, liquid crystal display panels using multi-region vertical alignment technology, the liquid crystal molecules are perpendicular to the panel when not energized. When energized, the liquid crystal molecules are inverted in different directions, so that the screen can be obtained from different angles. Compensation, which in turn increases the viewing angle. Please refer to FIG. 1 , which is a simple schematic diagram of a multi-region vertical alignment technique. The liquid crystal display panel 1 has a color filter, an optical substrate 11, and a thin film transistor substrate 12. The color filter substrate 11 has a common electrode 111. The thin film transistor substrate 12 has a halogen electrode 121, and a liquid crystal layer 13 is disposed between the common electrode 111 and the halogen electrode 121. Many liquid crystal molecules 131. Further, in the multi-region vertical alignment technique, the thin film transistor substrate 12 further has a plurality of protrusions 122. For the multi-zone vertical alignment technique, the liquid crystal molecules ΐ3ΐ are not energized, and their long axis is perpendicular to the surface of the color light-transmissive layer and the thin film transistor substrate 12. Only the liquid crystal molecules i3i in the vicinity of the protrusions 122 are slightly inclined and have a pretilt angle (Pre_TiuAngie) due to the side field effect (5) of the protrusions 122. Only then can the light not penetrate the liquid crystal display panel i and the black display appears. Referring to Fig. 2, after the energization, the liquid crystal two sub-131 near the protrusion 122 has a pretilt angle, so that the liquid crystal molecules 131 farther from the protrusion m can be quickly tilted to an appropriate inclination angle. At this time, the light can penetrate the liquid crystal display 7TT panel 1 and can be modulated by light. Further, since the long axes of the liquid crystal molecules 131 in different regions are directed in different directions, they can have an optical compensation effect and achieve a wide viewing angle. In addition, since the liquid crystal molecules 131 already have a pretilt angle when they are not energized, the liquid crystal molecules 131 are relatively rotated to a predetermined position after being energized, so that the multi-region vertical alignment technique is also advantageous for the liquid crystal molecules. Response speed, and shorten and reaction time. ~ Of course, in the multi-zone area vertical alignment technique, in addition to the shape of the protrusions 122, a side field effect can be generated, and other shapes can be used to generate the edge % effect, thereby achieving a wide viewing angle. Referring to FIG. 3, two conventional liquid crystal display panels 2 using a multi-region vertical alignment technique include a color filter substrate 21 and a thin film transistor substrate 22. The color filter substrate 21 has a common electrode 211, and the thin film transistor substrate 22 has a halogen electrode 221 filled with liquid crystal molecules 231 between the pixel electrode 221 and the common electrode 211. Further, the halogen electrode 221 has an electrode pattern, the electrode pattern has at least one main electrode 2211 and a plurality of secondary electrodes 2212, and the secondary electrode 2212 is provided on both sides of the main electrode 2211 and spaced apart. A slit 2213 can be considered to exist between the two secondary electrodes 2212. Due to the side field effect produced by the shapes of the main electrode 2211, the sub-electrode 2212 and the slit 2213, the liquid crystal molecules 231 can be reversed in different directions after being energized, thereby achieving a wide viewing angle. For the electrode pattern described above, the liquid crystal molecules are tilted from the direction along the sub-electrode 2212 (or the slit 2213) toward the central portion of the electrode pattern. Therefore, if the distance between the secondary electrode 2212 (or the slit 2213) of the halogen electrode 221 is too long, the liquid crystal molecules 231 which are far away from the central portion cannot completely drive the liquid crystal molecules 231 which are closer to the central portion to rotate until the current is turned on. The predetermined location, causing some Sub Domains to appear. Referring to FIG. 4A to FIG. 4D, the liquid crystal display panel 2 of FIG. 3 sequentially passes through the photographs of the liquid crystal molecules at 8 milliseconds, 16 milliseconds, 24 milliseconds, and steady state after being energized. Among them, Fig. 4D shows steady state. In Fig. 4D, it can be clearly seen that the liquid crystal display panel 2 generates four sub-regions D21, 〜1D24 and two distinct boundary boundaries L21, L22, and at the boundary lines L21, L22, the liquid crystal molecules are not The light is transmitted, thereby reducing the light transmittance of the entire liquid crystal display panel 2. As can be seen from Figs. 4A to 4D, the liquid crystal molecules 231 cannot reach the steady state very quickly, so that the reaction time is increased between 200912451. The above two defects are very disadvantageous to the liquid crystal display panel 2. Therefore, how to provide a liquid crystal display panel capable of solving the above problems and having the characteristics of wide viewing angle, high transmittance, and high reaction speed has become one of the urgent problems to be solved. SUMMARY OF THE INVENTION In view of the above problems, an object of the present invention is to provide a liquid crystal display panel which can have a wide viewing angle, a high transmittance, and a high reaction speed. For the above purpose, a liquid crystal display panel according to the present invention comprises a first substrate, a second substrate and a liquid crystal layer. The first substrate has a common electrode, the common electrode has at least one slit pattern, and the slit pattern has at least one main slit and a plurality of secondary slits, and the secondary slits are disposed on two sides of the main slit And the interval is set. The second substrate is opposite to the first substrate and has a pixel electrode, and the halogen electrode is opposite to the common electrode and has at least one electrode pattern, and the electrode pattern has at least one main electrode and a plurality of secondary electrodes. The equal-order electrode systems are disposed on both sides of the main electrode and are spaced apart. The sub-slit extending directions of the first substrate are parallel to the sub-electrode extending directions of the second substrate. The liquid crystal layer is disposed between the first substrate and the second substrate. According to the above aspect, a halogen electrode of a liquid crystal display panel according to the present invention has at least one electrode pattern, and the common electrode has at least one slit pattern, and the secondary electrode of the halogen electrode and the secondary electrode of the common electrode The extensions 200912451 are parallel to each other. Therefore, the side field effect generated by the slit pattern of the common electrode can enhance the side field effect generated by the electrode pattern of the pixel electrode, so that the liquid crystal molecules in the vicinity of the electrode pattern have a pretilt angle before energization, and The liquid crystal molecules in the vicinity of the slit pattern also have a pretilt angle. Therefore, after energization, the liquid crystal molecules located in the central portion of the sub-halogen structure can be simultaneously driven by the liquid crystal molecules in the vicinity of the electrode pattern and the liquid crystal molecules in the vicinity of the slit pattern, and rapidly tilted to a desired angle, thereby making the liquid crystal The molecules reach the point of resilience quickly and reduce the cost of the boundary of the sub-region, thereby increasing the penetration rate and achieving a wide viewing angle. DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS Hereinafter, a liquid crystal display panel according to a preferred embodiment of the present invention will be described with reference to the accompanying drawings, wherein the same elements will be denoted by the same reference numerals. Referring to FIG. 5, the liquid crystal display panel 3 of the first preferred embodiment of the present invention comprises a first substrate 31, a second substrate 3 2 and a liquid crystal layer 33. The first substrate 31 is provided opposite to the second substrate 32, and the liquid crystal layer 33 is provided between the first substrate 31 and the second substrate 32. In the present embodiment, the liquid crystal display panel 3 is a multi-Domain Vertical Alignment (MVA) liquid crystal display panel. The liquid crystal molecules 331 of the liquid crystal layer 33 are long when the liquid crystal display panel 3 is not energized. The axial direction is perpendicular to the surfaces of the first substrate 31 and the second substrate 32. In addition, in the embodiment, the first substrate 31 is a color filter substrate, and the second substrate 32 is a thin film transistor substrate. 10 200912451 wherein the first substrate 31 has a common electrode 311, and the common electrode 311 has a slit pattern. The slit pattern has at least one main slit 3111 and a plurality of sub-slits 3112, and the sub-slits 3m are disposed on two sides of the main slit 3111 and spaced apart. Here, the slit pattern is a portion having no electrode in the common electrode 311; or the common electrode 3i itself has a concave portion and the slit pattern is a portion of the recess. The second substrate 32 has a halogen electrode 321 which is provided opposite to the common electrode 3!1 and has at least an electrode pattern. The electrode pattern has at least one main electrode 3211 and a plurality of sub-electrodes 3212, and the sub-electrodes 3212 are not disposed on both sides of the main electrode 3211 and are spaced apart. Here, the electrode pattern is a portion having the electrode in the pixel electrode 321; or the pixel electrode 321 itself has a concavo-convex portion, and the electrode pattern is a portion of the bump. In the present embodiment, the common electrode 3U and the halogen electrode 321 may be: an indium tin oxide transparent electrode, an indium zinc oxide transparent electrode or an aluminum oxide transparent electrode. - As shown in Figure 6, the system is a top view of the liquid crystal display panel 3: Figure 2, which is represented by one of the halogen structures. The slit pattern of the common electrode 311 in the sub-halogen enclosed by the scanning line 322 and the two-feed line 323 overlaps with the electrode pattern of the pixel electrode 321 in the projection direction. The slit pattern of the common electrode 311 has two main slits 3111. The electrode pattern of the denier electrode 321 has two main electrodes 3211, and the two main slits 111 and the two main electrodes 3211 are respectively in a cross shape. In addition, the secondary slits 3Π2 of the common electrode are symmetrically disposed on both sides of the main slit 3ηι, 200912451, and the main slit 3in and the secondary slit 3112 are in a square shape, and the angle between the main slit sin and the secondary slit 3112 It is 45 degrees in essence. The secondary electrodes 3212 of the pixel electrodes 321 are symmetrically disposed on both sides of the main electrode 32 ι, and the main electrodes 3211 and the sub-electrodes 3212 are in a quadrangular shape. Further, the common electrode 311 is narrow, and the extending direction of the 3112 and the secondary electrode of the halogen electrode 32 are parallel to each other, and the length and width of the secondary slit 3112 are smaller than the length and width of the secondary electrode 3212. The side field effect generated by the electrode pattern of the ferrite electrode 321 can be enhanced by the side field effect generated by the slit pattern of the common electrode 311, so that the liquid crystal molecules in the vicinity of the electrode pattern have a pretilt angle before energization, and The liquid crystal molecules in the vicinity of the slit pattern also have a pretilt angle. Therefore, after the energization, the liquid crystal molecules located in the central portion of the human sputum structure can be simultaneously tilted by the liquid crystal molecules in the vicinity of the liquid crystal molecules in the vicinity of the electrode pattern to rapidly tilt to the (four) angle, thereby making the liquid crystal molecules Faster to achieve stability, and improve the penetration rate of the liquid crystal display panel.
明參照圖7A至圖7D，其依序為液晶顯示面板3在通 電後在8毫秒、16毫秒、24毫秒及穩態之光線穿透照片。 藉由比較圖7A至圖7D以及圖4A至圖4D，可以發現本 實施^液晶顯示面板3可較習知之液晶顯示面板2更快達 到穩態，即具有更快之反應速度。再者，雖然本實施例之 液晶顯示面板3亦形成四個次區域D31〜D34，但由於上 述邊場政應所產生的影響，使得次區域D31〜D34之分界 線L31、L32較習知之分界線L21、[22更細，即本實施例 之液晶顯示面板3具有更高的光穿透率。此外，由圖7D 12 200912451 及圖4D亦可察知，本實施例之次區域吻〜⑽相較於 二人區域D21〜D24亦具有更高之光穿透率。 另外，在本實施例中，次狹缝仙::大電極郎在 尺寸上可有不同的變化態樣。例如各次狹縫3ii2與對應 之各次電極3212在投影方向上可部分重聶 · =狹缝3112之長度係可小於、等於或大。二各次 極3212之長度；以及各次狹縫31η之寬戶: 等於或大於對應之各次電極3212之寬度。又； 種液，ί=Γ，其係為本發明第:較佳實施例之-=“曰顯不面板4之-俯簡，細其巾—切素結構為 代表。在掃描線4 22與資料線4 23所圍成之一:金 共同電極411係具有一狹縫圖案，晝素電極421=旦 電極圖案。狹縫圖案係具有至少—主狹縫4 二八_ ，縫4112，畫素電極421係具有至少—主電極 極他。與上述實施例不同的是，本實施例之各 -人狹縫4112之寬度係大於對應之各次電極^?之寬产 另外，請參照圖9所示，其係為本發明第三較佳二 歹之、種液晶顯示面板5之一俯才見圖，並以其中一土全 、《構為代表。在掃描線522與資料線523所圍成之一次書 ^内’共同電極511係具有一狹縫圖#，晝素電極52ι^ 八有電極圖案。狹缝圖案係具有至少一主狹缝51U万# 數個次狹縫5112,晝素電極521係具有至少一主電極削 及複數個次電極5212。與上述實施例不同的是，本實施例 之各次狹縫5112與對應之各次電極5212在投影方向上係 13 200912451 =疊将：中侧方向上，各次狹縫迎之遠端 對應設置^且應之相鄰二次電極5212間之凹部5213 # _人狹縫5112與對應之凹部5213之間距d 係小於或接15微米，以提供較佳之邊場效應。 上^施例之液晶顯示面板4巧，藉由共同電極川、 縫圖案所產生之邊場效應可加強由畫素電極 、之電_案所產生之邊場效應，以 =案=之液晶分子具有一預傾角，且狹縫圖案附近 之液日曰刀子亦具有一預傾角。因此，於 ”構：央部份之液晶分子可同時受到電極圖案附近： 二及狹縫圖案附近之液晶分子之帶動’而迅速地 接^曰而的角度’進而使得液晶分子較快達到穩態，並 扠间液日日顯不面板4、5之穿透率。 綜上所述，因依本發明之一種液 ,!素電極之次電極及共同電極之次狹縫延伸方 L糸相互平行。因此，藉由共同電極之狹 J場效應’可加強由晝素電極之電極圖案所產生== 故在通電前，電極圖案附近之液晶分子具有—預傾 2 ’且狹_案附近之液晶分子亦具有—預傾角。因此， =電後，位於次晝素結構中央部份之液晶分子可同時受 案附近之液晶分子以及狹縫圖案附近之液晶分 子而迅速地傾斜至所需的角度，進而使得液晶分 子較快達到穩態，並且縮小次區域之分界線的範圍，進而 14 200912451 增加穿透率，並達到廣視角之目的。 以上所述僅為舉例性’而非為限制性者。任何未 之精神與範#，而對其進行之等效修改或變更，均 應匕含於後附之申請專利範圍中。 二 【圖式簡單說明】 圖1及圖2為多區域垂直配向技術之示意圖，· 圖3為一種習知之液晶顯示面板之示意圖； ▲ I圖4A丄至圖4D為習知之液晶顯示面板在通電後在^ ，秒、16毫秒、24毫秒及穩態時之液晶分子光線穿透照 圖5及圖6為依據本發明第一較佳實施例之一種 頌示面板之示意圖； 曰曰 圖7A至圖7D為本發明第一較佳實施例之液晶顯示面 ，在通電後在8毫秒、16亳秒、24毫秒及穩態之 逯照片； 牙 圖8為本發明第二較佳實施例之液晶顯示面板之示音 _ ;以及 心 固圖9為本發明第三較佳實施例之液晶顯示面板之示意 【主要元件符號說明】 1、2、〇 、4、5 :液晶顯示面板 21 ·彩色濾光基板 15 200912451 111、211、311、411、511 :共同電極 12、22 :薄膜電晶體基板 121、221、321、421、521 :畫素電極 122 :突起物 Π、33 :液晶層 131、231、331 :液晶分子 221 卜 3211、4211、5211 ··主電極 2212、3212、4212、5212 :次電極 2213 :狹缝 222、 322、422、522 :掃描線 223、 323、423、523 :資料線 31 :第一基板 3111、 4111、5111 :主狹缝 3112、 4112、5112 :次狹缝 32 :第二基板 5113 :遠端部 5213 :凹部 d ··間距 D21〜D24、D31〜D34 :次區域 L21、L22、L31、L32 :分界線 16Referring to Figures 7A through 7D, the liquid crystal display panel 3 is sequentially penetrated by light at 8 msec, 16 msec, 24 msec, and steady state after power-on. By comparing Figs. 7A to 7D and Figs. 4A to 4D, it can be found that the liquid crystal display panel 3 of the present embodiment can reach the steady state faster than the conventional liquid crystal display panel 2, i.e., has a faster reaction speed. Furthermore, although the liquid crystal display panel 3 of the present embodiment also forms four sub-regions D31 to D34, the boundary lines L31 and L32 of the sub-regions D31 to D34 are more conventionally known due to the influence of the above-mentioned side field policing. The boundary line L21, [22 is finer, that is, the liquid crystal display panel 3 of the present embodiment has a higher light transmittance. Further, as can be seen from Figs. 7D 12 200912451 and Fig. 4D, the sub-regional kisses ~(10) of the present embodiment have higher light transmittance than the two-person regions D21 to D24. Further, in the present embodiment, the secondary slits: the large electrodes can have different variations in size. For example, each slit 3ii2 and the corresponding respective electrodes 3212 may partially reciprocate in the projection direction. The length of the slit 3112 may be less than, equal to or greater than. The length of each of the secondary poles 3212; and the width of each of the slits 31n: equal to or greater than the width of the corresponding respective electrodes 3212. Further, the seed liquid, ί=Γ, is the first embodiment of the present invention: - "" 曰 不 面板 面板 4 4 4 俯 俯 俯 , , , , , , , , , , 切 切 切 切 切 切 切 切 切 切 切 切 切 在 在 在One of the data lines 4 23 is: the gold common electrode 411 has a slit pattern, and the halogen electrode 421=denier electrode pattern. The slit pattern has at least—the main slit 4 八 _ , the slit 4112 , the pixel The electrode 421 has at least a main electrode pole. The difference from the above embodiment is that the width of each of the human slits 4112 of the present embodiment is greater than the width of the corresponding respective electrodes, please refer to FIG. It is shown that the liquid crystal display panel 5 of the third preferred embodiment of the present invention is shown in the figure, and is represented by one of the soils and the structure. The scanning line 522 and the data line 523 are enclosed. In the first book, the common electrode 511 has a slit pattern #, and the halogen electrode 52 ι^ has an electrode pattern. The slit pattern has at least one main slit 51U million times several times slits 5112, a halogen electrode The 521 series has at least one main electrode and a plurality of sub-electrodes 5212. Different from the above embodiment, each slit 5112 of this embodiment Corresponding to each electrode 5212 in the projection direction is 13 200912451 = stacking: in the middle direction, each slit meets the distal end correspondingly set and the recessed portion 5213 between adjacent secondary electrodes 5212 The distance d between the slit 5112 and the corresponding recess 5213 is less than or 15 micron to provide a better side field effect. The liquid crystal display panel of the above embodiment has a side field effect generated by a common electrode and a slit pattern. The side field effect generated by the pixel electrode and the electric device can be enhanced, and the liquid crystal molecules of the == have a pretilt angle, and the liquid coring knife near the slit pattern also has a pretilt angle. Therefore, Structure: The liquid crystal molecules in the central part can be simultaneously exposed to the vicinity of the electrode pattern: 2. The liquid crystal molecules in the vicinity of the slit pattern are driven by 'the angle of rapid connection', so that the liquid crystal molecules reach the steady state faster, and the inter-fork The liquid shows the penetration rate of the panels 4 and 5 on a daily basis. In summary, according to the liquid of the present invention, the secondary electrode of the electrode and the secondary slit of the common electrode are parallel to each other. Therefore, the narrow J-field effect of the common electrode can enhance the electrode pattern generated by the electrode of the halogen electrode == Therefore, before the energization, the liquid crystal molecules in the vicinity of the electrode pattern have liquid crystal molecules near the pretilt 2' and narrow It also has a pretilt angle. Therefore, after the electric power, the liquid crystal molecules located in the central portion of the sub-halogen structure can be simultaneously tilted to the desired angle by the liquid crystal molecules in the vicinity of the case and the liquid crystal molecules in the vicinity of the slit pattern, thereby enabling the liquid crystal molecules to reach faster. Steady state, and narrow the range of the boundary of the sub-region, and then 14 200912451 increase the penetration rate and achieve a wide viewing angle. The above is intended to be illustrative only and not limiting. Any changes or modifications to the spirit and the scope of the invention shall be included in the scope of the patent application attached. 2 [Simple description of the drawings] Fig. 1 and Fig. 2 are schematic diagrams of a multi-area vertical alignment technique, Fig. 3 is a schematic diagram of a conventional liquid crystal display panel; ▲ I Fig. 4A to Fig. 4D are conventional liquid crystal display panels FIG. 5 and FIG. 6 are schematic diagrams of a display panel according to a first preferred embodiment of the present invention; FIG. 7A to FIG. 7A to FIG. 7D is a photograph of a liquid crystal display surface according to a first preferred embodiment of the present invention after 8 m, 16 sec, 24 msec, and steady state after power-on; FIG. 8 is a liquid crystal according to a second preferred embodiment of the present invention. The display of the display panel is a schematic diagram of the liquid crystal display panel of the third preferred embodiment of the present invention. [Main component symbol description] 1, 2, 〇, 4, 5: liquid crystal display panel 21 · color filter Optical substrate 15 200912451 111, 211, 311, 411, 511: common electrode 12, 22: thin film transistor substrate 121, 221, 321, 421, 521: pixel electrode 122: protrusion Π, 33: liquid crystal layer 131, 231 331: liquid crystal molecules 221 3211, 4211, 5211 · main power 2212, 3212, 4212, 5212: secondary electrode 2213: slits 222, 322, 422, 522: scanning lines 223, 323, 423, 523: data line 31: first substrate 3111, 4111, 5111: main slit 3132 4112, 5112: secondary slit 32: second substrate 5113: distal end portion 5213: concave portion d · spacings D21 to D24, D31 to D34: sub-regions L21, L22, L31, L32: boundary line 16