KR20050119295A - Plasma display panel and manufacturing method thereof - Google Patents

Abstract

The present invention relates to a panel manufacturing method for forming an electrode on a panel substrate by using an offset printing method, and to a plasma display panel manufactured by the method, comprising: a first substrate and a second substrate facing each other; Address electrodes formed on the first substrate in parallel with one direction; A partition wall disposed in the display area set by the first substrate and the second substrate to partition the discharge spaces; A phosphor layer formed in each discharge space; And display electrodes formed on a second substrate along a direction crossing the address electrodes, an effective portion in which the address electrodes and the display electrodes are located in the display area, a terminal part in the terminal area outside the display area, and The electrode is divided into a connection portion connecting the effective portion and the terminal portion, and the address electrodes or the display electrodes have a shape in which each terminal portion electrode is divided into a plurality, and the line width of each divided terminal portion electrode is 30% or less of the effective portion electrode line width. In the present invention, there is provided a plasma display panel which is formed to be larger or smaller and includes a portion where the width of the electrode is gradually changed from the connection portion to the point where the division of the terminal portion starts.

Description

Plasma display panel and manufacturing method thereof {PLASMA DISPLAY PANEL AND MANUFACTURING METHOD THEREOF}

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a plasma display panel and a method for manufacturing the same, and more particularly, to a panel manufacturing method for forming an electrode on a panel substrate using an offset printing method and a plasma display panel manufactured by the method.

Plasma Display Panel (PDP, hereinafter referred to as 'PDP') is an electronic device that displays an image using plasma discharge, and applies a predetermined voltage to an electrode disposed in the discharge space of the PDP, thereby causing a plasma between them. The discharge is caused to occur, and the phosphor layer formed in a predetermined pattern is excited by vacuum ultraviolet rays (VUV) generated during the plasma discharge to form an image.

Such a plasma display panel may be classified into an AC type, a DC type, and a hybrid type according to its configuration. FIG. 9 is an exploded view illustrating a general AC type plasma display panel. Perspective view.

A conventional PDP structure has an address electrode 112 formed in one direction (x-axis direction in the drawing) on the back substrate 110 and covers the address electrode 112 to cover the dielectric layer (eg, in front of the back substrate 110). 113) is formed. A stripe pattern partition wall 115 is formed on the dielectric layer 113 so as to be disposed between the address electrodes 112, and the red, green, and blue colors are formed between the partition walls 115. The phosphor layer 117 is formed.

In addition, one surface of the front substrate 100 opposite to the rear substrate 110 may have a pair of transparent electrodes made of indium tin oxide (ITO) in a direction crossing the address electrode 112 (the y-axis direction of the drawing). Display electrodes 102 and 103 composed of 102a and 103a and bus electrodes 102b and 103b made of a conventional metal electrode material are formed and cover the display electrode, and the dielectric layer 106 and MgO are formed on the entire front substrate 100. The protective film 108 is formed.

The point where the address electrode 112 on the back substrate 110 and the display electrodes 102 and 103 on the front substrate 100 cross each other constitutes a discharge cell.

The address discharge is performed by applying the address voltage Va between the address electrode 112 and the display electrodes 102 and 103, and the sustain voltage Vs is applied between the pair of display electrodes 102 and 103 to sustain discharge. Let's do it. The vacuum ultraviolet rays generated at this time excite the phosphor to emit visible light through the transparent front substrate 100 to implement the screen of the PDP.

In order to manufacture electrodes in the conventional PDP configured as described above, screen printing, a photo process using a photosensitive paste, a lift-off method, and the like are used.

For example, the transparent electrode is coated with indium tin oxide (ITO) by sputtering, ion plating, or vacuum deposition on a substrate, and then a photosensitive material is formed thereon, followed by exposure and development to form a photoresist pattern. And patterning the ITO by an etching process using the photoresist pattern as a mask, and then removing the photoresist pattern.

However, as described above, the so-called photolithography method using the photosensitive film pattern has a problem of increasing process cost in that it requires a large-scale and expensive separate photolithography equipment, and also has edge curls on both sides of the electrode. curl: a phenomenon in which the edge portion at the time of electrode firing has a sharp shape) occurs.

Therefore, the printing method which consists of a process which is inexpensive, comparatively simple, and easy is attracting the attention. Among them, in the printing method using the offset (off-set) method, there is a problem in that the defective rate is high in the electrode formation process because the electrode pattern having the line width is not accurately realized.

Therefore, there is an urgent need for a new panel manufacturing method and a plasma display panel in which an defective rate is minimized while forming electrodes on a panel substrate using an offset printing method.

The present invention was devised to solve the above problems, and its object is to form an electrode by applying an offset printing method to form a finer and more precise electrode pattern, thereby minimizing a defect rate, and a manufacturing thereof. To provide a way.

Another object of the present invention is to prevent a defect caused by a sharp change in the line width of the electrode.

In order to achieve the above object, a plasma display panel according to the present invention comprises: a first substrate and a second substrate facing each other; Address electrodes formed on the first substrate in parallel with one direction; A partition wall disposed in the display area set by the first substrate and the second substrate to partition the discharge spaces; A phosphor layer formed in each discharge space; And display electrodes formed on a second substrate along a direction crossing the address electrodes, an effective portion in which the address electrodes and the display electrodes are located in the display area, a terminal part in the terminal area outside the display area, and The electrode is divided into a connection portion connecting the effective portion and the terminal portion, and the address electrodes or the display electrodes have a shape in which each terminal portion electrode is divided into a plurality, and the line width of each divided terminal portion electrode is 30% or less of the effective portion electrode line width. Is formed larger or smaller, and includes a portion where the width of the electrode gradually changes from the connection portion to the point where the division of the terminal portion starts.

In this case, the electrodes are divided into a plurality of groups, and the outer width of the effective portion of each electrode group is greater than that of the terminal portion, and the connection portion may be formed to be inclined with respect to the length direction of the electrodes.

In addition, the line width of the electrode constituting the effective portion may be in the range of 60-80 μm.

The electrodes may be formed by an offset printing method.

In addition, in the present invention, in the method of manufacturing a plasma display panel in which the address electrodes and the display electrodes are disposed on the first substrate and the second substrate in a direction crossing each other, the address electrode paste is formed of a gravure having a predetermined address electrode pattern ( gravure filling the recess groove; Transferring the charged address electrode paste from the gravure groove to the printing blanket; And transferring the address electrode paste from the printing blanket onto the first substrate, wherein the address electrode pattern of the gravure groove includes an effective portion where the address electrodes are located in the display area, a terminal portion located in the terminal area outside the display area, And a shape divided into a connection part connecting the effective part and the terminal part, and each terminal part electrode pattern is divided into a plurality of shapes, and the line width of each divided terminal electrode pattern is within a range of 30% or less of the effective part electrode pattern line width. The present invention provides a method of manufacturing a plasma display panel having a larger or smaller shape and including a portion in which the line width of the electrode pattern gradually changes in the electrode pattern from the connection portion to the point where the division of the terminal portion starts.

In addition, according to the present invention, in the method of manufacturing a plasma display panel in which an address electrode and a display electrode cross each other on a first substrate and a second substrate, a gravure having a predetermined display electrode pattern is formed on a bus electrode paste. ) Filling the recess groove; Transferring the filled bus electrode paste from the gravure groove to the printing blanket; And transferring a bus electrode paste from the printing blanket onto the second substrate, wherein the display electrode pattern of the gravure groove includes an effective portion in which the display electrodes are located in the display area and a terminal portion in the terminal area outside the display area. And a shape divided into a connecting portion connecting the effective portion and the terminal portion, wherein each terminal portion electrode pattern is divided into a plurality of shapes, and the line width of each divided terminal electrode pattern is 30% or less of the effective portion electrode pattern line width. In the present invention provides a method of manufacturing a plasma display panel having a larger or smaller shape, wherein the electrode pattern from the connection portion to the point where the division of the terminal portion is started includes a portion where the line width of the electrode pattern gradually changes.

Hereinafter, the present invention will be described in detail.

Among the methods of forming the electrodes of the PDP, the screen printing method is a method of printing a desired shape on a substrate by placing a patterned screen on a substrate and pressing and transferring paste necessary for electrode formation. The process cost is low and relatively simple. It is attracting attention because it is easy and easy process.

Also commonly used photo process is the FODEL process, which was developed by Dupont of the United States of America, a photosensitive paste using a process such as printing a photosensitive thick film to the front surface on the glass substrate After printing and drying, the resultant is exposed and developed with ultraviolet rays using a photo process, and then a firing process to form a thick film.

Meanwhile, in a typical PDP, an address electrode and a display electrode have one end extending to a terminal region 3 outside the display region 1 as shown in FIG. 1, and a flexible printed circuit (FPC) in the terminal region 3; Connected to a connection member 5 such as a flexible printed circuit (COF) or a chip on film (COF), a voltage required for driving the PDP is applied from a driving circuit board (not shown).

At this time, the electrodes are diagonally symmetrical toward the terminal portion 9 from the effective portion 7 located in the display region 1, the terminal portion 9 positioned in the terminal region 3, and the effective portion 7. It consists of a connecting portion 11 for connecting the effective portion 7 and the terminal portion 9 while drawing.

In the PDP in which the electrode is formed by the above-described FODEL method, the effective portion 7 has a line width of W1 and the terminal portion 9 has a line width of W2 larger than W1. The reason for widening the line width in the terminal portion 9 as described above is for stable contact with the connecting member and reduction of resistance.

For example, the line width W1 of the effective portion 7 may be about 60-80 μm, and the line width W2 of the terminal portion 9 may have about 200-250 μm.

In the FODEL process, the photosensitive paste is printed on the entire surface, and then exposed and developed to realize various electrode line widths. Thus, even when the electrode line width changes rapidly from the line width W1 of the effective portion 7 to the line width W2 of the terminal portion 9, they are realized. There is no great difficulty in doing this.

However, a problem arises when the electrode structure in which the line width of the electrode changes abruptly is formed by the offset method. In other words, in the offset method, the etching depth of the gravure roll is deepened at the portion having a wide line width, thereby increasing the amount of paste transferred. Then, due to the difference in the surface energy between the blanket roll and the paste, a problem occurs that remains on the surface of the blanket without being sufficiently transferred onto the glass substrate.

In addition, even if transferred onto the glass substrate, the amount of paste is large, causing a pattern spreading or distortion.

Therefore, it is necessary to design such that there is no sudden change in the electrode line width, and to design such that the full width gradually changes. In addition, according to the offset method, it is necessary to make the design value of the electrode line width as uniform as possible in one panel.

Accordingly, in the present invention, each terminal portion of any one or two of the address electrodes and the display electrodes has a shape in which a plurality of terminal portions are divided, and the line width of each divided terminal portion electrode is larger in the range of 30% or less of the effective portion electrode line width. The terminal electrode line width and the surface portion electrode line width are uniformly formed to a degree that is smaller or smaller.

Then, from the connection portion to the point where the division of the terminal portion begins to include a portion where the width of the electrode gradually changes.

Hereinafter, with reference to the accompanying drawings will be described in detail a preferred embodiment of the present invention.

FIG. 2 is a schematic diagram of electrodes provided on a first substrate in a plasma display panel according to an embodiment of the present invention, and FIG. 3 is a schematic diagram of electrodes provided on a second substrate in a plasma display panel according to an embodiment of the present invention. 4 is a partially exploded perspective view illustrating the internal structure of the plasma display panel.

2 to 4, in the plasma display panel according to the present embodiment (hereinafter referred to as 'PDP'), the first substrate 2 and the second substrate 4 are disposed to face each other at random intervals. Discharge cells are provided in the spaces between the two substrates to implement an arbitrary color image with visible light emission by an independent discharge mechanism of each discharge cell.

In detail, the address electrodes 6 are formed on one surface of the first substrate 2 in one direction (the Y-direction of the drawing), and the inner surface of the first substrate 2 covers the address electrodes 6. The first dielectric layer 8 is formed in its entirety. The address electrode 6 is formed in a stripe pattern, for example, and is located side by side with a neighboring address electrode 6 at a predetermined interval.

On the first dielectric layer 8, a partition 10, for example, a stripe pattern 10 having a stripe pattern parallel to the address electrode 6 is formed, and a surface of the partition 10 and the bottom surface of the discharge cell formed by these partitions. Red, green, and blue fluorescent layers 12R, 12G, and 12B are provided in this order. The shape of the partition wall 10 is not limited to the stripe pattern, but may be formed of a closed structure such as a lattice or other patterns.

On the inner surface of the second substrate 4 opposite to the first substrate 2, a display made up of the scan electrode 14 and the sustain electrode 16 along a direction orthogonal to the address electrode 6 (the X direction in the drawing). An electrode 18 is formed, and the second dielectric layer 20 and the MgO passivation layer 22 that are transparent are disposed on the entire inner surface of the second substrate 4 while covering the display electrodes 18.

In this embodiment, the scan electrode 14 and the sustain electrode 16 are each of the transparent electrodes 14a and 16a having a stripe pattern, and the bus electrodes 14b having low resistances located at one edges of the transparent electrodes 14a and 16a, respectively. 16b). Indium tin oxide (ITO) is preferable as the transparent electrodes 14a and 16a, and metal electrodes containing silver, aluminum or copper are preferable as the bus electrodes 14b and 16b.

By the combination of the first substrate 2 and the second substrate 4 described above, the discharge space where the address electrode 6 and the display electrode 18 intersect constitute one discharge cell. (Mostly Ne-Xe mixed gas).

By the above-described configuration, an address voltage Va is applied between the address electrode 6 and the scan electrode 14 to select a discharge cell in which light emission will occur through address discharge, and the scan electrode 14 of the selected discharge cell and When the sustain voltage Vs is applied between the sustain electrodes 16, a plasma discharge occurs in the discharge cell, and vacuum ultraviolet rays are emitted from the excitation atoms of Xe generated during plasma discharge, and the vacuum ultraviolet rays excite the fluorescent layer to emit visible light. By doing so, a predetermined display is made.

In the above-described configuration, the address electrode 6 and the display electrode 18 are separately formed on each of the first substrate 2 and the second substrate 4, but the present invention is not limited thereto. And the display electrode 18 may be simultaneously formed on any one of the first substrate 2 and the second substrate 4.

As shown in FIGS. 2 and 3, the electrodes causing the plasma discharge in the discharge cells are once in the terminal region 26 outside the display region 24 as well as the display region 24 in which the discharge cells are positioned for actual display. This extension is connected to the connection member (not shown) in the terminal region 26 to receive the voltage required for driving the PDP.

Here, the PDP according to the present embodiment improves the electrode structure such that the electrode line widths in the terminal region 26 and the display region 24 are uniform within a certain range, thereby accurately correcting fine and precise electrode patterns by an offset method. The present invention provides a configuration that minimizes defect rate and secures stability of an electrode forming process.

In the following, the electrode structure will be described using the address electrode 6 as an example.

5 is a partially enlarged plan view of a plasma display panel according to an exemplary embodiment of the present invention as shown in FIGS. 2 to 4.

Referring to FIG. 5, the address electrode 6 may be disposed at the outermost portion of the first substrate 2 of the effective portion 27 positioned in the display area 24 and the terminal area 26 outside the display area 24. The terminal portion 28 is located, and the connecting portion 29 connecting the effective portion 27 and the terminal portion 28 in the terminal region 26.

At this time, the line width D2 of the electrode of one terminal portion 28 having the shape in which the terminal portion 28 is divided into a plurality is formed larger or smaller in the range of 30% or less of the effective portion 27 electrode line width D1. The terminal portion electrode line width and the effective portion electrode line width are uniform.

For example, the electrode constituting the effective portion 27 may have a line width of 60-80 μm, and when the line width D1 of the effective portion electrode is 60 μm, the terminal electrode line width D2 may be 60 ± 18 μm.

The number of divisions of the terminal portion 28 is not particularly limited, and may be divided until the number of terminal portion line widths and the effective portion line widths satisfy a condition that becomes uniform within the above-mentioned range.

At this time, the portion S from which the width of the electrode gradually changes from the connecting portion 29 to the point where the division of the terminal portion 28 begins.

In addition, the address electrode 6 is divided into a plurality of groups. For each electrode group, the outer width M1 of the effective portion 27 is greater than the outer width M2 of the terminal portion 28 so that the connecting portion is inclined with respect to the length direction of the electrodes. Can be formed.

Although the above-described configuration has been described using the address electrode as an example, the present invention is not limited to the address electrode, and the line width of one terminal portion divided into one or two terminal portions of the address electrodes and the display electrodes is divided. It may be formed uniformly to the extent that it is formed larger or smaller in the range of 30% or less of the effective portion line width.

When the line width of the terminal portion and the effective portion line width are uniform within the above-described range, the amount of paste transferred to the printing blanket or transferred to the substrate when the electrode is formed by using the offset method can be uniformized to accurately realize the fine electrode pattern. Can be.

Hereinafter, a method of forming an electrode on a substrate of a plasma display panel by applying an offset method will be described with reference to FIGS. 6 to 8.

6A to 6E are conceptual views sequentially illustrating a process of electrode printing using an offset method.

As shown in Fig. 6A, first, the electrode paste 34 is filled into the intaglio 31 having the concave groove in the shape of the electrode pattern to be printed, and then the blade 32 is used. Thus, the electrode paste 34 overflowed on the intaglio 31 is removed.

Next, as shown in FIGS. 6B and 6C, the electrode paste 34 filled in the intaglio 31 is transferred to the printing blanket 35. The electrode paste 34 thus removed is transferred to the glass substrate 37 as shown in Figs. 6D and 6E. Thereafter, the electrode forming process is completed by drying and firing.

7 is a conceptual diagram schematically illustrating a process of forming grooves in a gravure plate to fill a paste and then transferring the glass substrate, and FIG. 8 illustrates a process of forming grooves in a gravure roll to fill a paste. A conceptual diagram briefly illustrating a process of transferring to a substrate.

The address electrode pattern and the display electrode pattern according to the present invention are formed as grooves in the gravure plate 31 or the gravure roll 39 and then filled with a paste, which is transferred to the blanket 35 to be transferred to the glass substrate 37. Can be.

An offset printing method of forming an address electrode and a display electrode on a substrate of a plasma display panel according to the present invention will be described in detail as follows.

First, a first substrate and a second substrate such as glass are prepared.

Next, an electrode is formed by an offset method, which will be described in more detail as follows.

In the case of the address electrode, the address electrode paste is filled into a gravure groove having a predetermined address electrode pattern.

At this time, the address electrode pattern of the gravure groove has an effective portion located in the display region set on the first substrate and the second substrate, a terminal portion located in the terminal region outside the display region, and a connecting portion of the effective portion and the terminal portion. It has a shape that is divided into connecting parts. In addition, the line width of the terminal electrode pattern has a shape in which each terminal electrode pattern is divided into a plurality, and the line width of each divided terminal electrode pattern is larger or smaller in the range of 30% or less of the effective part electrode pattern line width. And the line width of the effective portion electrode pattern may have a uniform shape.

In addition, the electrode pattern from the connection portion to the point where the division of the terminal portion starts includes a portion where the line width of the electrode pattern gradually changes.

In addition, the address electrode pattern may be divided into a plurality of groups, and the outer width of the effective portion may be greater than the outer width of the terminal portion for each electrode group, and the connection portion may have a shape inclined with respect to the length direction of the electrodes.

Next, the address electrode paste filled in the gravure groove is transferred from the gravure groove to the printing blanket.

The address electrode paste is then transferred from the printing blanket onto either of the first substrate and the second substrate.

The method of applying the display electrode paste is similar to the method of applying the address electrode paste. That is, first, the transparent electrode is formed on one of the first substrate and the second substrate, and then the bus electrode paste is filled into the gravure groove having the predetermined display electrode pattern, and the filled bus electrode paste is printed from the gravure groove. Transfer to the blanket.

Thereafter, the bus electrode paste is transferred from the printing blanket onto either of the first substrate and the second substrate. At this time, the bus electrode paste may be transferred onto a substrate on which the transparent electrode is formed, including the transparent electrode.

At this time, the display electrode pattern of the gravure groove is connected to the effective portion positioned in the display region where the display electrode is set on the first substrate and the second substrate, the terminal portion positioned in the terminal region outside the display region, and the effective portion and the terminal portion. It has a shape including a connecting portion. In addition, the line width of the terminal electrode pattern has a shape in which each terminal electrode pattern is divided into a plurality, and the line width of each divided terminal electrode pattern is larger or smaller in the range of 30% or less of the effective part electrode pattern line width. And the line width of the effective portion electrode pattern may have a uniform shape.

In addition, the electrode pattern from the connection portion to the point where the division of the terminal portion starts includes a portion where the line width of the electrode pattern gradually changes.

In addition, the display electrode pattern may be divided into a plurality of groups, and the outer width of the effective portion may be greater than the outer width of the terminal portion for each electrode group, and the connection portion may have a shape inclined with respect to the length direction of the electrodes.

Subsequently, patterns formed of the address electrode paste and the bus electrode paste applied through the above process are dried and baked to form address electrodes and display electrodes.

As described above, when the terminal electrode pattern line widths of the one or two of the address electrodes and the display electrodes and the effective part electrode pattern line widths are uniform within the above-described appropriate ranges, the address electrodes and the display electrodes are formed by using an offset printing method. As a result, the pattern can be accurately implemented in a simple and inexpensive process.

Next, a dielectric layer is formed to cover the address electrodes and the display electrodes.

Next, the front plate of the plasma display panel is completed by forming a protective film on the dielectric layer of the first substrate or the second substrate, and barrier ribs and phosphors are sequentially formed on the dielectric layers of the remaining substrates to complete the back plate of the plasma display panel.

The front panel and the rear panel thus completed are opposed to each other, and a plasma display panel is completed by injecting and encapsulating a discharge gas therebetween.

Although the preferred embodiments of the present invention have been described above, the present invention is not limited thereto, and various modifications and changes can be made within the scope of the claims and the detailed description of the invention and the accompanying drawings. Naturally, it belongs to the scope of the invention.

As described above, according to the method of manufacturing the plasma display panel according to the present invention, the terminal part of any one or two of the address electrodes and the display electrodes is divided into a plurality of parts, and the connection part is separated from the connection part to the point where the terminal part starts. Since the width of the electrode is gradually changed, the offset printing method is applied, and thus the fine electrode pattern can be accurately realized without defects.

1 is a partially enlarged plan view of a typical plasma display panel.

2 is a schematic diagram of electrodes provided on a first substrate in a plasma display panel according to an exemplary embodiment of the present invention.

3 is a schematic diagram of electrodes provided on a second substrate in a plasma display panel according to an exemplary embodiment of the present invention.

4 is a partially exploded perspective view illustrating an internal structure of a plasma display panel according to an exemplary embodiment of the present invention.

5 is a partially enlarged plan view of a plasma display panel according to an exemplary embodiment of the present invention as shown in FIGS. 2 to 4.

6A to 6E are conceptual views sequentially illustrating a process of electrode printing using an offset method.

FIG. 7 is a conceptual diagram schematically illustrating a process of forming grooves in a gravure plate to fill a paste and then transferring the glass substrate.

FIG. 8 is a conceptual view briefly illustrating a process of forming grooves in a gravure roll to fill a paste and then transferring the glass substrate to a glass substrate.

9 is an exploded perspective view showing a typical AC plasma display panel.

Claims (9)

A first substrate and a second substrate disposed to face each other; Address electrodes formed on the first substrate in parallel with one direction; A partition wall disposed in the display area set by the first substrate and the second substrate to partition discharge spaces; Phosphor layers formed in the respective discharge spaces; And Display electrodes formed on the second substrate along a direction crossing the address electrodes; The address electrodes and the display electrodes are divided into an effective part located in the display area, a terminal part located in a terminal area outside the display area, and a connection part connecting the effective part and the terminal part, The address electrodes have a shape in which each terminal electrode is divided into a plurality, and the line width of each of the divided terminal electrode is formed to be larger or smaller in the range of 30% or less of the effective part electrode line width. And a portion where the width of the electrode gradually changes from the connection portion to the point where the division of the terminal portion starts. A first substrate and a second substrate disposed to face each other; Address electrodes formed on the first substrate in parallel with one direction; A partition wall disposed in the display area set by the first substrate and the second substrate to partition discharge spaces; Phosphor layers formed in the respective discharge spaces; And Display electrodes formed on the second substrate along a direction crossing the address electrodes; The address electrodes and the display electrodes are divided into an effective part located in the display area, a terminal part located in a terminal area outside the display area, and a connection part connecting the effective part and the terminal part, Each of the display electrodes has a shape in which each terminal electrode is divided into a plurality, and a line width of each of the divided terminal electrode is formed larger or smaller in the range of 30% or less of the effective part electrode line width. And a portion where the width of the electrode gradually changes from the connection portion to the point where the division of the terminal portion starts. The method according to claim 1 or 2, The electrodes are divided into a plurality of groups, and the outer width of the effective portion is greater than the outer width of the terminal portion for each electrode group, and the connection portion is formed to be inclined with respect to the longitudinal direction of the electrodes. The method according to claim 1 or 2, And a line width of an electrode constituting the effective portion falls within a range of 60 to 80 mu m. The method according to claim 1 or 2, And the electrodes are formed by an offset printing method. 1. A method of manufacturing a plasma display panel in which an address electrode and a display electrode are disposed on a first substrate and a second substrate in a direction crossing each other. Filling the address electrode paste into a gravure groove having a predetermined address electrode pattern; Transferring the charged address electrode paste from the gravure groove to a printing blanket; And Transferring the address electrode paste from the printing blanket onto the first substrate Including; The address electrode pattern of the gravure groove has a shape divided into an effective part in which the address electrodes are located in the display area, a terminal part located in a terminal area outside the display area, and a connection part connecting the effective part and the terminal part. , Each terminal portion electrode pattern has a shape divided into a plurality, the line width of each of the divided terminal portion electrode pattern has a larger or smaller shape in the range of 30% or less of the effective portion electrode pattern line width, And a portion where the width of the electrode is gradually changed from the connection portion to the point where the division of the terminal portion starts. 1. A method of manufacturing a plasma display panel in which an address electrode and a display electrode are disposed on a first substrate and a second substrate in a direction crossing each other. Filling the bus electrode paste into a gravure recess having a predetermined display electrode pattern; Transferring the charged bus electrode paste from the gravure groove to a printing blanket; And Transferring the bus electrode paste from the printing blanket onto the second substrate Including; The display electrode pattern of the gravure groove has a shape divided into an effective part in which the display electrodes are located in the display area, a terminal part located in a terminal area outside the display area, and a connection part connecting the effective part and the terminal part. , Each terminal portion electrode pattern has a shape divided into a plurality, the line width of each of the divided terminal portion electrode pattern has a larger or smaller shape in the range of 30% or less of the effective portion electrode pattern line width, And a portion in which the line width of the electrode pattern gradually changes in the electrode pattern from the connection portion to the point where the division of the terminal portion starts. The method according to claim 6 or 7, The address electrode pattern and the display electrode pattern may have a shape in which the electrodes are divided into a plurality of groups, and the outer width of the effective portion is greater than the outer width of the terminal portion for each electrode group, and the connection portion is inclined with respect to the length direction of the electrodes. The plasma display panel manufacturing method. The method according to claim 6 or 7, A method of manufacturing a plasma display panel in which a line width of an electrode pattern constituting the effective portion is in a range of 60 to 80 µm.