reference will now be made in detail to the preferred embodiments of the present invention , examples of which are illustrated in the accompanying drawings . fig5 is partial plan view of an exemplary liquid crystal display panel according to the present invention . in fig5 , a first substrate 310 and a second substrate 320 may be attached together such that one shorter side and one longer side of the first substrate 310 may protrude , and an image display portion 330 , upon which a plurality of pixels may be arranged in a matrix configuration , may be formed within the region where the first substrate 310 and the second substrate 320 are attached together . for example , the first substrate 310 may be a thin film transistor ( tft ) array substrate of the liquid crystal display panel , and the second substrate 320 may be a color filter ( cf ) substrate . accordingly , on the image display portion 330 of the first substrate 310 , a plurality of gate lines may be arranged along a horizontal direction at regular intervals , a plurality of data lines may be arranged along a vertical direction at regular intervals , and a plurality of pixels may be defined at every intersection of the gate lines and the data lines in a matrix configuration . in addition , each pixel may have a tft as a switching device and a pixel electrode connected to the tft . the thin film transistor may include a gate electrode that may be simultaneously patterned with the gate lines to be electrically connected to the gate lines , a source electrode that may be simultaneously patterned with the data lines to be electrically connected to the data lines , and a drain electrode that may be simultaneously patterned with the data lines and the source electrode to be electrically connected to the pixel electrode . on the image display portion 330 of the second substrate 320 , there are provided red , green , and blue color filters coated separately in each pixel defined by a black matrix , and a common electrode , which is a counter electrode of the pixel electrode , formed on the first substrate 310 . the first substrate 310 and the second substrate 320 may be attached together by a seal pattern 300 formed along an outer edge of the image display portion 330 . accordingly , randomly scattered spacer balls may be provided or patterned spacers may be formed through photolithographic processes on the first substrate 310 or on the second substrate 320 , thereby providing a certain space between the first substrate 310 and the second substrate 320 wherein a liquid crystal material layer is formed with the space . at the protruded shorter side of the first substrate 310 , a gate pad portion 340 may be formed at a region corresponding to the image display portion 330 , and may be electrically connected to the gate lines for supplying driving signals to the gate lines . at the protruded longer side of the first substrate 310 , a data pad portion 350 may be formed at a region corresponding to the image display portion 330 , and may be electrically connected to the data lines for supplying image information to the data lines . at the corner portion where the protruded shorter side and longer side of the first substrate 310 meet , line - on - glass lines 311 a ˜ 311 c may be mounted to transmit dc signals , such as a gate high voltage ( vgh ), a gate low voltage ( vgl ), a common voltage ( vcom ), a ground voltage ( gnd ) and a power supply voltage ( vcc ), as well as ac signals , such as a gate start pulse ( gsp ), a gate shift clock ( gsc ), and a gate enable signal ( goe ). the line - on - glass lines 311 a ˜ 311 c may be simultaneously patterned and formed while forming the gate lines and the gate electrodes on the first substrate 310 . a pixel electrode ( not shown ) may be patterned with at least an multi - layer intermediate film ( not shown ) interposed therebetween to overlap with the line - on - glass lines 311 a ˜ 311 c . also , the pixel electrode may be patterned to not be protruded from the seal pattern 300 . fig6 is a cross sectional view along ii – ii ′ of fig5 according to the present invention . the liquid crystal display panel of the line - on - glass method and its fabrication method in accordance with the present invention will now be described . first , line - on - glass lines 411 ( 411 a , 411 b , and 411 c ) may be patterned at regular intervals on the first substrate 410 wherein the line - on - glass lines 411 may be simultaneously patterned during the process of forming the gate lines and the gate electrodes at the image display portion of the first substrate 410 . next , a gate insulation film 420 and an active layer 430 may be sequentially formed at an upper surface of the first substrate 410 with the line - on - glass lines 411 patterned at regular intervals thereon . the gate insulation film 420 and the active layer 430 may be sequentially formed to form a thin film transistor at the image display portion of the first substrate 410 , and although not shown , on the image display portion , after the active layer 430 has been patterned , the data lines and the source / drain electrodes may be simultaneously patterned . at a region of the active layer 430 where the thin film transistor of the image display portion is formed , a semiconductor layer made of amorphous silicon and an ohmic contact layer made of n + amorphous silicon doped with phosphorus ( p ) at high concentration may be successively deposited and patterned . when the data lines and source / drain electrodes are patterned , the exposed ohmic contact layer may be removed to define a channel of the thin film transistor . accordingly , as the ohmic contact layer is removed at the region other than the lower portions of the data lines and source / drain electrodes , only the semiconductor layer remains . then , a passivation film 440 may be formed on the active layer 430 , wherein the passivation film 440 may include an organic material , such as benzocyclobutene ( bcb ), a spin - on - glass ( sog ), or a photo - acryl with a low dielectric constant , by which an aperture ratio of the liquid crystal display device may be improved . the passivation film 440 may be selectively etched to form a drain contact hole exposing a portion of the drain electrode , and the drain electrode may electrically contact the pixel electrode provided at the unit pixel through the drain contact hole . since the organic material , such as benzocyclobutene ( bcb ), a spin - on - glass ( sog ), or a photo - acryl with a low dielectric constant , may be applied to form the passivation film 440 , a dry - etching may be performed to form the drain contact hole . the passivation film 440 having an organic material formed as a thick film may not have good bonding characteristics with respect to the seal pattern 400 to be formed in a follow - up process . thus , the attached first substrate 410 and the second substrate 510 may crack or moisture may permeate into the image display portion , thereby causing defects in the liquid crystal display panel . to improve the adhesive force with respect to the seal pattern 400 , when the drain contact hole is formed , the passivation film 440 at the region where the line - on - glass lines 411 are formed may be simultaneously dry - etched to form a bonding hole 450 . accordingly , the active layer 430 formed at the lower side of the passivation film 440 may also be etched as being affected by the dry - etching of the passivation film 440 so that the gate insulation film 420 is exposed at the bottom surface of the bonding hole 450 . the pixel electrode 460 is patterned at an upper portion of a resulting structure that the gate insulation film 420 , the passivation film 440 and the bonding hole 450 have been formed to overlap with the line - on - glass lines 411 . at this time , the pixel electrode 460 is patterned not to be protruded from the seal pattern 400 . as stated above , the pixel electrode 460 is provided in the unit pixel at the region where the thin film transistor of the image display portion is formed and patterned by wet - etching to electrically contact the drain electrode through the drain contact hole formed at the passivation film 440 . further , at this time , the pixel electrode 460 is patterned to overlap with the line - on - glass lines 411 and to not be protruded from the seal pattern 400 . the reason of patterning the pixel electrode 460 to overlap with the line - on - glass lines 411 is as follows . if the dry - etching is excessively performed in forming the bonding hole 450 at the passivation film 440 , the gate insulation film 420 exposed at the bottom surface of the bonding hole 450 would be also etched by the dry - etching of the passivation film 440 . accordingly , the line - on - glass lines 411 formed at the lower side of the gate insulation film 420 at the bottom surface of the bonding hole 450 would be exposed . if the pixel electrode 460 is removed through a wet - etching at the region where the line - on - glass lines 411 have been formed , the line - on - glass lines 411 exposed through the bonding hole 450 would be also etched by the wet - etching of the pixel electrodes 460 . when the line - on - glass lines 411 are partially etched and damaged , characteristics of electric signals transmitted through the line - on - glass lines 411 would be changed , and in a worst case , the line - on - glass lines 411 are open , thereby causing a driving deficiency or a degradation of a picture quality of a liquid crystal display device . therefore , to prevent such problems , the pixel electrode 460 is patterned overlapping with the line - on - glass lines 411 . meanwhile , a black matrix 511 is coated along an outer edge of pixels of the image display portion at an upper surface of the second substrate 510 , on which red ( r ), green ( g ) and blue ( b ) color filters ( not shown ) are formed corresponding to the unit pixel of the image display part . a common electrode 512 is formed at the upper surface of the color filter substrate 510 including the black matrix 511 and the color filter . at this time , the black matrix 511 is formed at regions corresponding to gate lines , data lines and thin film transistors formed at the image display portion of the thin film transistor array substrate 510 to prevent a phenomenon that red , green and blue lights transmitted by unit pixels through the color filters are mixed with adjacent pixels to degrade the picture quality of the liquid crystal display panel . as the black matrix 511 , a resin or a cr material may be applied . the cr material is more advantageous than the resin in that a thin film is formed , a material cost is cheap , and a pattern is precisely formed at a desired position . the first substrate 410 and the second substrate 510 are attached by the seal pattern 400 so that the pixel electrode 460 and the common electrode 512 face each other . at this time , the black matrix 511 and the common electrode 512 formed on the second substrate 510 are extended to a predetermined distance outwardly of the seal pattern 400 , and the black matrix 511 is more extended than the common electrode 512 . comparatively , referring back to the related art of fig4 , the thin film transistor array substrate 210 of the region where the line - on - glass lines 211 are formed , the pixel electrode 260 is extended outwardly of the seal pattern 270 overlapping with the line - on - glass lines 211 so that it faces the black matrix 311 and the common electrode 312 which are extended outwardly of the seal pattern 270 . if the passivation film 240 is excessively etched , the pixel electrode 260 electrically contacts the line - on - glass lines 211 in the bonding holes 250 , and also , the common electrode 312 and the black matrix 311 made of cr contact electrically each other . then , because an electrical signal transmitted through the line - on - glass lines 211 is applied to the pixel electrode 260 and a common voltage applied to the common electrode 312 is applied to the black matrix 311 , if moisture or contamination infiltrates between the pixel electrode 260 and the black matrix 311 , electrolytic corrosion occurs there . however , in the present invention , as described above , though the pixel electrode 460 is patterned to overlap with the line - on - glass lines 411 but not to protruded from the seal pattern 400 ( that is , it is patterned within the seal pattern 400 ). the seal pattern 400 prevents infiltration of moisture or a contaminant from outside . thus , even though the first substrate 410 and the second substrate 510 are attached by the seal pattern 400 so that the pixel electrode 460 of the first substrate 410 and the common electrode 512 of the second substrate 510 face each other . because the pixel electrode 460 is not formed at the outer side of the seal pattern 400 , the electrolytic corrosion as in the related art does not occur . meanwhile , unlike the case shown in fig6 , if the common electrode 512 formed on the second substrate 510 is patterned not to be protruded from the seal pattern 400 , electrolytic corrosion can be also prevented . in addition , if both the pixel electrode 460 and the common electrode 512 are patterned not to be protruded from the seal pattern 400 , the electrolytic corrosion can be also prevented . as so far described , the liquid crystal display panel and its fabrication method of the present invention have the following advantages . that is , the pixel electrode is formed overlapping with the line - on - glass lines mounted at the corner portion of the thin film transistor array substrate but not protruded from the seal pattern which attaches the thin film transistor array substrate and the color filter substrate . accordingly , such an electrolytic corrosion as in the related art , in which moisture or contamination infiltrates between the pixel electrode formed extended outwardly of the seal pattern on the thin film transistor array substrate and the black matrix extended outwardly of the seal pattern on the color filter substrate , can be prevented . in addition , because the electrolytic corrosion between the pixel electrode and the black matrix is prevented , light leakage caused at the image display portion of the liquid crystal display panel as the electrolytic corrosion of the black matrix proceeds to the image display portion can be accordingly prevented , thereby enhancing a picture quality . moreover , because ionization of the cr component of the black matrix caused due to the electrolytic corrosion which occurs a current flow is prevented , shorting between the pixel electrode of the thin film transistor array substrate and the black matrix of the color filter substrate is prevented at the region where the line - on - glass lines are formed , according to which short between the line - on - glass lines being in contact electrically with the pixel electrode and the common electrode being in electrical contact with the black matrix can be also prevented . therefore , a deficiency of driving of the liquid crystal display panel can be prevented . it will be apparent to those skilled in the art that various modifications and variations can be made in the liquid crystal display panel and fabricating method thereof of the present invention without departing from the spirit or scope of the invention . thus , it is intended that the present invention cover the modifications and variations of this invention provided they come within the scope of the appended claims and their equivalents .