KR20060000424A - Backlight assembly and liquid crystal display device having the same - Google Patents

Abstract

A backlight assembly and a liquid crystal display having the same are disclosed. The backlight assembly includes a lamp body having a plurality of discharge spaces formed in parallel with each other on the same plane, and a flat fluorescent lamp having first and second electrodes formed at both ends of the lamp body. The backlight assembly includes an accommodating container accommodating the flat fluorescent lamp and an inverter disposed to face the first electrode on the rear surface of the accommodating container. The first lamp wire connects the first electrode and the inverter, and the second lamp wire connects the second electrode and the inverter. The second lamp wire is drawn out from the second electrode to the inverter side through the space between the flat fluorescent lamp and the storage container. Therefore, display quality can be improved by shielding electromagnetic waves generated from the second lamp wire.

Description

BACKLIGHT ASSEMBLY AND LIQUID CRYSTAL DISPLAY DEVICE HAVING THE SAME}

1 is an exploded perspective view showing the backlight assembly upside down according to an embodiment of the present invention.

2 is a perspective view showing in detail the wire fixing member shown in FIG.

3 is a perspective view illustrating the flat fluorescent lamp shown in FIG. 1.

4 is a cross-sectional view of the flat fluorescent lamp shown in FIG.

FIG. 5 is a plan view illustrating a connection relationship between the flat fluorescent lamp and the first and second lamp wires shown in FIG. 1.

6 is a plan view illustrating a backlight assembly according to another exemplary embodiment of the present invention.

7 is an exploded perspective view illustrating a liquid crystal display according to an exemplary embodiment of the present invention.

<Explanation of symbols for the main parts of the drawings>

100: backlight assembly 200: flat fluorescent lamp

210: lamp body 220, 230: first and second electrodes

300: storage container 400: inverter                 

410, 420: first and second lamp wire 500: wire fixing member

700 liquid crystal display device 810 liquid crystal display panel

900: top frame 950: diffuser plate

The present invention relates to a backlight assembly and a liquid crystal display device having the same, and more particularly, to a backlight assembly having a flat panel light lamp that emits light in a plane form as a light source and a liquid crystal display device having the same.

In general, a liquid crystal display (Liquid Crystal Display) is a flat panel display device that displays an image by using a liquid crystal (Liquid Crystal), thinner and lighter than other display devices, has the advantage of low driving voltage and low power consumption This has been widely used throughout the industry.

Such a liquid crystal display device requires a backlight assembly that provides a separate light source because the liquid crystal display panel for displaying an image is a non-light emitting device that does not emit light by itself.

In the conventional backlight assembly, a cold cathode fluorescent lamp (CCFL) having a capillary shape is mainly used as a light source. Development of Flat Fluorescent Lamp (FFL) is underway.                         

The backlight assembly having the flat fluorescent lamp as a light source includes an inverter for generating a discharge voltage for driving the flat fluorescent lamp and a lamp wire for applying a discharge voltage generated from the inverter to the flat fluorescent lamp.

However, in order to drive a large size flat fluorescent lamp, a discharge voltage of several kilowatts or more is required, and a large amount of electromagnetic waves are generated when such a high voltage discharge voltage flows on the lamp wire. Electromagnetic waves generated through the lamp wires cause distortion of electrical signals input from the outside, which causes a problem of degrading display quality of an image.

Accordingly, the present invention has been made in view of the above problems, and an object of the present invention is to provide a backlight assembly capable of improving the display quality by reducing the influence of electromagnetic waves generated from lamp wires.

Another object of the present invention is to provide a liquid crystal display device having the above-described backlight assembly.

The backlight assembly for achieving the above object of the present invention includes a flat fluorescent lamp, a housing, an inverter, a first lamp wire and a second lamp wire.

The flat fluorescent lamp includes a lamp body having a plurality of discharge spaces formed on the same plane in parallel with each other, and first and second electrodes formed to cross the discharge spaces at both ends of the lamp body. The storage container accommodates the flat fluorescent lamp. The inverter is disposed on the rear surface of the storage container toward the first electrode side and generates a discharge voltage for driving the flat fluorescent lamp. The first lamp wire connects the first electrode and the inverter. The second lamp wire connects the second electrode and the inverter, and is drawn from the second electrode to the inverter side through a space between the flat fluorescent lamp and the storage container.

The second lamp wire is inclined at a predetermined angle with respect to the length direction of the discharge space so as to overlap the plurality of discharge spaces.

The flat plate fluorescent lamp further includes one or more wire fixing members formed on a lower surface facing the storage container to fix the second wire. The wire fixing members are disposed on a straight line inclined at a predetermined angle with respect to the length direction of the discharge space.

The liquid crystal display device for achieving another object of the present invention includes a flat panel fluorescent lamp, a storage container, an inverter, a first lamp wire, a second lamp wire, a liquid crystal display panel and a top frame.

The flat fluorescent lamp includes a lamp body having a plurality of discharge spaces and first and second electrodes formed at both ends of the lamp body to intersect the discharge spaces to generate light. The storage container accommodates the flat fluorescent lamp. The inverter is disposed to face the first electrode on the rear surface of the storage container. The first lamp wire connects the first electrode and the inverter. The second lamp wire connects the second electrode and the inverter, and is drawn out from the second electrode to the inverter side through a space between the plate fluorescent lamp and the storage container. The liquid crystal display panel is disposed above the flat fluorescent lamp and displays an image using light emitted from the flat fluorescent lamp. The top frame is combined with the storage container to fix the liquid crystal display panel.

The flat plate fluorescent lamp further includes one or more wire fixing members formed on a lower surface to fix the second lamp wire, and the wire fixing members are inclined at a predetermined angle with respect to the length direction of the discharge space. Is placed on.

The liquid crystal display device may further include a diffusion plate disposed between the flat fluorescent lamp and the frit liquid crystal display panel to diffuse the light emitted from the flat fluorescent lamp.

According to the backlight assembly and the liquid crystal display device having the same, the display quality is improved by shielding electromagnetic waves generated from the first and second lamp wires, and the light emission characteristics of the flat panel fluorescent lamp are drawn by drawing the second lamp wires at an angle. Can improve.

Hereinafter, exemplary embodiments of the present invention will be described in detail with reference to the accompanying drawings.

1 is an exploded perspective view showing the backlight assembly upside down according to an embodiment of the present invention.

Referring to FIG. 1, a backlight assembly 100 according to an exemplary embodiment of the present invention may include a flat fluorescent lamp 200, a storage container 300, an inverter 400, a first lamp wire 410, and a second lamp wire. 420.

The flat fluorescent lamp 200 includes a lamp body 210 for generating light and first and second electrodes 220 and 230 for applying a discharge voltage to the lamp body 210. The lamp body 210 has a plane of rectangular shape to emit light in the form of a plane. The first and second electrodes 220 and 230 are formed at both ends of the lamp body 210, respectively. For example, the first and second electrodes 220 and 230 are formed on the outer surface of the lamp body 210, respectively. The first and second electrodes 220 and 230 apply a discharge voltage output from the inverter 400 to the lamp body 210.

The storage container 300 includes a bottom 310 and a side 320 to provide a storage space for accommodating the flat fluorescent lamp 200. The storage container 300 is made of a chassis material for robustness. The flat fluorescent lamp 200 is spaced apart from the bottom 310 by a predetermined distance in the storage container 300 is received.

The inverter 400 boosts and outputs an AC voltage having a low voltage input from the outside to a discharge voltage having a high voltage for driving the flat panel fluorescent lamp 200. The inverter 400 is disposed on the rear surface of the storage container 300, and in particular, in consideration of mounting positions of other electronic components for controlling external signals input from the outside, the inverter 400 is disposed toward the first electrode 220. The discharge voltage generated by the inverter 400 is applied to the first and second electrodes 220 and 230 through the first and second lamp wires 410 and 420, respectively.

The first lamp wire 410 connects the first electrode 220 and the inverter 400. To this end, one end of the first lamp wire 410 is connected to the first electrode 220, the other end is drawn out to the back of the storage container 300 is connected to the inverter 400. In this case, the first lamp wire 410 is connected to the end of the first electrode 220 to reduce the length.

The second lamp wire 420 connects the second electrode 230 and the inverter 400. One end of the second lamp wire 420 is connected to the central portion of the second electrode 230. The other end of the second lamp wire 420 is inclined obliquely along the lower surface of the flat fluorescent lamp 200 to extend toward the first electrode 220, and is drawn out to the rear surface of the storage container 300 and connected to the inverter 400. do. That is, when the second lamp wire 420 extends toward the first electrode 220 to be connected to the inverter 400 which is disposed to be biased toward the first electrode 220, the flat fluorescent lamp 200 and the storage container 300 are provided. ) Is placed in the space between. Therefore, the container 300 made of a chassis material shields electromagnetic waves generated from the second lamp wire 420 to prevent leakage to the outside.

In the present invention, the flat plate fluorescent lamp 200 has at least one wire fixing member 500 formed on the bottom surface facing the bottom 310 of the storage container 300 for fixing the second lamp wire 420. It includes more. The wire fixing members 500 are arranged side by side in a line so that the second lamp wire 420 connected to the center portion of the second electrode 230 may be arranged at an angle.

2 is a perspective view showing in detail the wire fixing member shown in FIG.

Referring to FIG. 2, the wire fixing member 500 is made of an insulating material and has a rectangular parallelepiped shape. The lower surface 510 of the wire fixing member 500 is attached to the flat fluorescent lamp 200. For example, the wire fixing member 500 is attached to the flat fluorescent lamp 200 through an adhesive means such as a double-sided tape. The upper surface 520 of the wire fixing member 500 is provided with a groove 530 for fixing the second lamp wire 420. The wire fixing member 500 fixes the second lamp wire 420 and simultaneously maintains the second lamp wire 420 and the flat fluorescent lamp 200 at regular intervals to minimize the mutual influence.

3 is a perspective view illustrating the flat fluorescent lamp of FIG. 1, and FIG. 4 is a cross-sectional view of the flat fluorescent lamp of FIG. 3.

3 and 4, the planar fluorescent lamp 200 according to an embodiment of the present invention includes a lamp body 210 and a lamp body having a plurality of discharge spaces 260 formed parallel to each other on the same plane. First and second electrodes 220 and 230 are formed at both ends of 210 to intersect with the discharge spaces 260.

The lamp body 210 includes a first substrate 240 and a second substrate 250 that is combined with the first substrate 240 to form discharge spaces 260.

The first substrate 240 has a rectangular flat plate shape. For example, the first substrate 240 includes a transparent glass substrate that transmits visible light and blocks ultraviolet rays.

The second substrate 250 is combined with the first substrate 240 to form a plurality of discharge spaces 110. For example, the second substrate 250 is made of the same transparent glass substrate as the first substrate 240. The second substrate 250 is formed between the plurality of discharge spaces 252 and the discharge spaces 252, which are spaced apart from the first substrate 240, to form the plurality of discharge spaces 260. It consists of a plurality of space divider 254 in contact with 240. That is, the space dividers 254 are formed between the discharge spaces 252 to divide the discharge spaces 256.

The second substrate 250 having such a shape is formed by, for example, forming. That is, by discharging the base substrate through a mold having a desired shape after heating the base substrate having the same plate shape as the first substrate 240 to a predetermined temperature, the discharge space part 252 and the space dividing part 254 are included. The second substrate 250 can be obtained. In addition, the second substrate 250 may be formed by various methods such as heating the base substrate and processing a shape through suction of air.

In the present embodiment, the longitudinal cross-section of the second substrate 250 has a shape in which a plurality of semi-ellipses similar to trapezoids are continuously connected as shown in FIG. 4. However, in contrast, the second substrate 250 may be formed such that the longitudinal cross section has various shapes such as a semicircle and a quadrangle.

The second substrate 250 is coupled to the first substrate 240 through, for example, an adhesive member 270 such as a frit, which is a mixture of glass and metal having a lower melting point than glass. That is, the first substrate 240 and the second substrate 250 are bonded to each other by firing after the adhesive member 270 is interposed between the first substrate 240 and the second substrate 250 to surround the edge portion. do. In this case, the adhesive member 270 is formed only at an edge portion between the first substrate 240 and the second substrate 250, and is not formed in the space divider 254 in contact with the first substrate 240. The space divider 254 is in close contact with the first substrate 240 by the pressure difference between the inside and the outside. Specifically, after the bonding of the first substrate 240 and the second substrate 250 to exhaust the air present in the discharge spaces 260 to create a vacuum state, thereafter, the discharge spaces 260 for the plasma discharge Various kinds of discharge gases are injected. The gas pressure of the discharge gas is about 50 torr, and a pressure difference is generated compared to about 760 torr, which is an external atmospheric pressure. Due to this pressure difference, the space division part 254 is in close contact with the first substrate 240.

Meanwhile, a connection passage 280 for connecting the discharge spaces 260 adjacent to each other is formed in the second substrate 250. At least one connection passage 280 is formed in each space divider 254. Each connection passage 280 is formed to be spaced apart from the first substrate 240 by a predetermined distance when combined with the first substrate 240 to connect the discharge spaces 260 adjacent to each other. The connection passage 280 may be obtained by less recession than the space dividing unit 254 in the molding process of the second substrate 250. Therefore, the discharge gas injected into any one or more discharge spaces 260 is moved to another discharge space 260 through the connection passage 280, so that the discharge gas is uniform in all discharge spaces 260 with a uniform gas pressure. Distributed. On the other hand, the shape of the connection passage 280 can be modified in various forms as long as it can connect the discharge space 260 adjacent to each other.

The first and second electrodes 220 and 230 are formed on the outer surface of the lamp body 210. The first and second electrodes 220 and 230 are formed in a direction perpendicular to the length direction of the discharge space 252 so as to overlap all the discharge spaces 260. Here, the first and second electrodes 220 and 230 may be formed only on the outer surface of the first substrate 240 or may be formed together on the outer surfaces of the first and second substrates 240 and 250. When the first and second electrodes 220 and 230 are formed on the first and second substrates 240 and 250, the electrode and the second substrate 250 formed on the first substrate 240 through a separate clip or the like. The electrodes formed on the may be connected to each other.

In the present invention, the first and second electrodes 220 and 230 are materials having excellent conductivity, for example, copper (Cu), nickel (Ni), silver (Ag), gold (Au), aluminum (Al), It is formed by a method of spray coating a metal powder made of chromium (Cr) or the like. Alternatively, the first and second electrodes 220 and 230 may be formed by attaching aluminum tape or coating silver paste.

The first and second electrodes 220 and 230 apply a discharge voltage output from the inverter 400 to the lamp body 210 to generate plasma in the plurality of discharge spaces 260.

Meanwhile, the flat fluorescent lamp 200 may include a first fluorescent layer 242, a protective layer 244, and a second fluorescent layer formed on the inner surfaces of the second substrate 250. 256) more. The first and second fluorescent layers 242 and 256 are excited by ultraviolet rays generated through plasma discharge in the discharge spaces 260 to emit visible light. The reflective layer 244 is formed between the first substrate 240 and the first fluorescent layer 242. The reflective layer 244 reflects the visible light generated by the first and second fluorescent layers 242 and 256 toward the second substrate 250 to prevent light from leaking to the first substrate 240.

In addition, the planar fluorescent lamp 200 may include a protective layer (not shown) formed between the second substrate 250 and the second fluorescent layer 256 and / or between the first substrate 240 and the reflective layer 244. It may further include. The protective layer prevents chemical reaction between the first or second substrates 240 and 250 and mercury which is a main component of the discharge gas, thereby preventing mercury loss and blackening.

FIG. 5 is a plan view illustrating a connection relationship between the flat fluorescent lamp and the first and second lamp wires shown in FIG. 1.

Referring to FIG. 5, first and second electrodes 220 and 230 are formed at both ends of a lower surface of the lamp body 210, and at least one between the first and second electrodes 220 and 230. Wire fixing member 500 is attached.

The first lamp wire 410 is connected to the end of the first electrode 220. The second lamp wire is connected to the central portion of the second electrode 230, and is inclined at a predetermined angle with respect to the length direction of the discharge space 260 so as to overlap the plurality of discharge spaces 260. Extend to the side.

The wire fixing members 500 are disposed on the withdrawal path of the second lamp wire 420 to fix the second lamp wire 420. That is, the wire fixing members 500 are arranged side by side on a straight line inclined at a predetermined angle with respect to the longitudinal direction of the discharge space 260. Therefore, the second lamp wire 420 is fixed to the wire fixing members 500 and is disposed obliquely from the second electrode 230 to the first electrode 220 side.

When the second lamp wire 420 is disposed side by side in the longitudinal direction of the discharge space 260, the discharge space 260 overlapping the second lamp wire 420 may leak from the second lamp wire 420. The luminance may be degraded due to the current or the like. Therefore, in the present invention, in order to solve the above problem, the second lamp wire 420 is disposed obliquely with respect to the length direction of the discharge space 260 and overlaps with the plurality of discharge spaces 260. When the second lamp wire 420 overlaps the plurality of discharge spaces 260 as described above, the influence of leakage current, etc. generated from the second lamp wire 420 is distributed to the various discharge spaces 260 to discharge a specific discharge. The fall of the luminance of the space 260 can be prevented.

6 is a plan view illustrating a backlight assembly according to another exemplary embodiment of the present invention. In the present embodiment, since the rest of the configuration except for the connection relationship between the first and second lamp wires is the same as the backlight assembly according to the embodiment described with reference to FIGS. 1 to 5, the same names and reference numerals are used for the same components. The overlapping detailed description will be omitted.

Referring to FIG. 6, the backlight assembly 600 according to another embodiment may further include first and second clips 430 and 440. When the first and second electrodes 220 and 230 are formed on the upper and lower portions of the lamp body 210, that is, when the first and second electrodes 220 and 230 are formed on the outer surface of the first substrate 240 and the outer surface of the second substrate 250 together, The first and second clips 430 and 440 electrically connect the electrodes formed on the first substrate 240 and the electrodes formed on the second substrate 250 to each other. To this end, the first and second clips 430 and 440 are made of a conductive metal.

When using the first and second clips 430 and 440, the first and second lamp wires 410 and 420 are preferably connected to the first and second clips 430 and 440, respectively. Since the first and second clips 430 and 440 are connected to the first and second electrodes 220 and 230 while surrounding the side surface of the lamp body 210, the first and second clips 430 and 440 are coupled to the edge portion of the lamp body 210. Therefore, the second lamp wire 420 extends diagonally from the second clip 440 connected to one end of the second electrode 230 and is drawn out toward the first electrode 220. In addition, the wire fixing members 500 are disposed on an arrangement path of the second lamp wire 420 to fix the second lamp wire 420.

As such, when the second lamp wire 420 is disposed in a diagonal direction, the wire length may be slightly increased as compared with the case illustrated in FIG. 5, but the discharge space 260 overlapping the second lamp wire 420. The number of keys may be increased to further disperse the influence of leakage current and the like, thereby further improving luminance uniformity.                     

7 is an exploded perspective view illustrating a liquid crystal display according to an exemplary embodiment of the present invention. In the present embodiment, since the backlight assembly has the same configuration as described with reference to FIGS. 1 to 6, detailed description thereof will be omitted.

Referring to FIG. 7, the liquid crystal display 700 according to the exemplary embodiment of the present invention includes a backlight assembly 100, a display unit 800, and a top frame 900.

The display unit 800 displays an image using light supplied from the backlight assembly 100. The display unit 800 includes a liquid crystal display panel 810 for displaying an image, data for providing a driving signal for driving the liquid crystal display panel 810, and gate printed circuit boards 820 and 830. The driving signals provided from the data and the gate printed circuit boards 820 and 830 are applied to the liquid crystal display panel 810 through the data flexible circuit film 840 and the gate flexible circuit film 850. The data and gate flexible circuit films 840 and 850 include, for example, a tape carrier package (TCP) or a chip on film (COF). In addition, each of the data and gate flexible circuit films 840 and 850 controls the driving signals to apply the driving signals provided from the data and gate printed circuit boards 820 and 830 to the liquid crystal display panel 810 at an appropriate timing. It further includes data and gate driving chips 842 and 852.

The liquid crystal display panel 810 includes a thin film transistor (hereinafter, referred to as TFT) substrate 812, a color filter substrate 814 coupled to the TFT substrate 812, and the two substrates 812 and 814. And a liquid crystal 816 interposed therebetween.

The TFT substrate 812 is a transparent glass substrate on which a switching element TFT (not shown) is formed in a matrix form. Data and gate lines are respectively connected to the source and gate terminals of the TFTs, and a pixel electrode (not shown) made of a transparent conductive material is connected to the drain terminal.

The color filter substrate 814 is a substrate in which RGB pixels (not shown) which are color pixels are formed by a thin film process. The color filter substrate 814 is formed with a common electrode (not shown) made of a transparent conductive material.

In the liquid crystal display panel 810 having such a configuration, when power is applied to the gate terminal of the TFT and the TFT is turned on, an electric field is formed between the pixel electrode and the common electrode. The electric field changes the arrangement of the liquid crystals 816 interposed between the TFT substrate 812 and the color filter substrate 814, and the light supplied from the backlight assembly 100 is changed according to the arrangement change of the liquid crystals 816. The transmittance is changed to obtain an image of a desired gradation.

The top frame 900 is coupled to the storage container 300 while surrounding the edge of the liquid crystal display panel 810 to fix the liquid crystal display panel 810 to the upper portion of the backlight assembly 100. The top frame 900 prevents the liquid crystal display panel 810 from being damaged by an external impact and prevents the liquid crystal display panel 810 from being separated from the storage container 300. As an example, the top frame 900 is made of a chassis material.

Meanwhile, the liquid crystal display 700 may further include a diffusion plate 950 for improving luminance uniformity of the light emitted from the backlight assembly 100. The diffusion plate 950 is disposed between the planar fluorescent lamp 200 and the liquid crystal display panel 810. The diffusion plate 950 is formed in a plate shape having a predetermined thickness and is spaced apart from the flat fluorescent lamp 200 by a predetermined distance. In addition, the liquid crystal display 700 may further include one or more light collecting sheets (not shown) disposed on the diffusion plate 950. The light collecting sheet collects light emitted from the diffuser plate 950 toward the liquid crystal display panel 810 to improve the front luminance of the light.

Although not shown, the liquid crystal display 700 may further include a separate fixing means for fixing the flat fluorescent lamp 200 to the storage container 300, and for guiding the storage position of the diffusion plate 950. Can be.

According to the backlight assembly and the liquid crystal display having the same, the display quality of the image can be improved by shielding the electromagnetic wave generated from the lamp wire through which the high voltage discharge voltage flows. In addition, by arranging the lamp wire fixed to the lower surface of the flat fluorescent lamp at an angle, it is possible to prevent the lowering of the luminance of the specific discharge space to improve the luminance uniformity.

In the detailed description of the present invention described above with reference to the preferred embodiments of the present invention, those skilled in the art or those skilled in the art having ordinary skill in the art will be described in the claims to be described later It will be understood that various modifications and variations can be made in the present invention without departing from the scope of the present invention.

Claims (10)

A planar fluorescent lamp including a lamp body having a plurality of discharge spaces formed on the same plane in parallel with each other, and first and second electrodes formed at both ends of the lamp body to cross the discharge spaces; A storage container accommodating the flat fluorescent lamp; An inverter disposed on a rear surface of the storage container toward the first electrode and generating a discharge voltage for driving the flat fluorescent lamp; A first lamp wire connecting the first electrode and the inverter; And And a second lamp wire connected to the second electrode and the inverter and drawn out from the second electrode to the inverter side through a space between the plate fluorescent lamp and the storage container. The backlight assembly of claim 1, wherein the second lamp wire is inclined at a predetermined angle with respect to a length direction of the discharge space so as to overlap the plurality of discharge spaces. The backlight assembly of claim 1, wherein the flat plate fluorescent lamp further comprises at least one wire fixing member formed on a lower surface facing the storage container to fix the second lamp wire. The backlight assembly of claim 3, wherein the wire fixing members are disposed in a straight line inclined at a predetermined angle with respect to the length direction of the discharge space. The backlight assembly of claim 3, wherein a groove is formed in the wire fixing member to fix the second lamp wire. The backlight assembly of claim 3, wherein the wire fixing member is made of an insulating material. The backlight assembly of claim 1, wherein the first and second electrodes are formed on an outer surface of the lamp body. A lamp having a plurality of discharge spaces, and a flat type fluorescent lamp configured to generate light by having first and second electrodes formed to intersect the discharge spaces at both ends of the lamp body; A storage container accommodating the flat fluorescent lamp; An inverter disposed to face the first electrode on the rear surface of the storage container; A first lamp wire connecting the first electrode and the inverter; A second lamp wire connecting the second electrode and the inverter and drawn out from the second electrode to the inverter through a space between the flat fluorescent lamp and the storage container; A liquid crystal display panel disposed on the flat fluorescent lamp and displaying an image using light emitted from the flat fluorescent lamp; And And a top frame coupled to the storage container to fix the liquid crystal display panel. The flat panel fluorescent lamp of claim 8, further comprising at least one wire fixing member formed on a lower surface of the flat fluorescent lamp to fix the second lamp wire, wherein the wire fixing member is predetermined based on a length direction of the discharge space. And a straight line inclined at an angle. The method of claim 9, And a diffuser plate disposed between the flat fluorescent lamp and the liquid crystal display panel to diffuse light emitted from the flat fluorescent lamp.

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