KR100600271B1 - Barrier structure with ribs in plasma display panel - Google Patents

Abstract

The present invention includes a cell thermal array including a barrier rib formed on a dielectric and partitioning cells of a predetermined shape in a plasma display panel including a front substrate, a sustain electrode, a dielectric layer, a protective film, a back substrate, and an address electrode. The cell thermal array comprises at least one first thermal array and the first thermal array of a plurality of cells in which adjacent cells are divided into a central straight column partition and a straight row partition wall, and both side walls are partitioned into a curved column partition wall. At least one second thermal array which is formed to share a curved thermal partition wall and communicates with each other in a column direction and is alternately formed, wherein any one of the linear thermal partition wall, the linear row partition wall, and the curved thermal partition wall is formed or The two eliminate the partition structure of the plasma display panel having a different height from the other partition walls. The. According to the present invention, exhaust efficiency and brightness can be improved, and color temperature can be improved to enable image reproduction close to natural colors.

Plasma Display Panel, Striped Bulkhead, Lattice Bulkhead, Color Temperature

Description

Barrier structure with ribs in plasma display panel

1 is a view showing a schematic structure of a plasma display panel having a conventional stripe-shaped partition wall structure.

2 is a plan view of a barrier rib structure in a plasma display panel having a conventional grid barrier rib structure.

3 is a view showing a schematic structure of a plasma display panel having a partition structure according to the present invention.

4 is a cross-sectional view of the plasma display panel of FIG. 3 taken along line II ′.

5 is a cross-sectional view of the plasma display panel of FIG. 3 taken along the line II-II '.

6 is a cross-sectional view of the plasma display panel of FIG. 3 taken along line III-III '.

7 and 8 are plan views schematically illustrating a barrier rib structure of a plasma display panel according to an exemplary embodiment of the present invention, and FIG. 9 is an enlarged view of a in FIGS. 7 and 8.

10 and 11 are plan views schematically illustrating a partition structure of a plasma display panel according to still another embodiment of the present invention, and FIG. 12 is an enlarged view of b of FIGS. 10 and 11.

13 and 14 are plan views schematically illustrating a barrier rib structure of a plasma display panel according to another exemplary embodiment of the present invention.

15 and 16 are plan views schematically illustrating a barrier rib structure of a plasma display panel according to another exemplary embodiment of the present invention.

<Description of the symbols in the main part of the drawing>

100: back substrate 102: front substrate

104: address electrode 106: first dielectric layer

108a, 108a '108a' ', 108a' '', 108b: bulkheads

110: phosphor 112: sustain electrode

114: scan electrode 116: second dielectric layer

118: protective film A1: first thermal array

A2: second thermal array

The present invention relates to a barrier rib structure of a plasma display panel, which is a type of flat panel display device, and more particularly, a mixture of a stripe-type barrier rib and a grid-type barrier rib is used, and a bend is formed in the barrier rib to increase luminous efficiency. In addition, the present invention relates to a barrier rib structure of a plasma display panel with improved exhaust capacity and improved color temperature.

In general, a plasma display panel is a light emitting device that displays a color image by using a gas discharge phenomenon inside each cell. The manufacturing process is simple, the response speed is high, and the screen is easy to be enlarged. I am in the limelight.

The plasma display panel is roughly classified into a direct current plasma display panel and an alternating plasma display panel according to its operation principle, and can be roughly divided into a counter discharge type and a surface discharge type according to the configuration of electrodes for discharge.

1 is a view showing a schematic structure of a plasma display panel having a conventional stripe-shaped partition wall structure.

Referring to FIG. 1, in the conventional plasma display panel, a first electrode 14a, which is a transparent display electrode, and a second electrode 14b, which is an address electrode, are formed between the front glass substrate 10 and the rear glass substrate 12. . The first electrode 14a and the second electrode 14b are formed in a stripe shape on the front glass substrate 10 and the rear glass substrate 12, respectively, and are perpendicular to each other when the substrates 10 and 12 are assembled to each other. To cross. The first electrode 14a on the front glass substrate 10 is covered with the dielectric layer 16a, and a protective film 18 is stacked thereon. The second electrode 14b on the rear glass substrate 12 is covered with the dielectric layer 16b, and a plurality of stripe-shaped partition walls 20 are formed thereon, and a phosphor 22 is applied therebetween.

However, in the plasma display panel using the partition wall 20 formed as such a stripe, since the phosphor coated in the discharge space partitioned by the partition wall 20 is applied only to three surfaces (lower surface and side surfaces of the partition wall), the luminous efficiency is relatively high. It is low, and there is a problem in that cross talk, which is an optical interference phenomenon between cells, occurs.

2 is a plan view of a partition structure of a plasma display panel having a conventional grid-shaped partition structure.

Such a conventional plasma display panel has a merit in that the partition wall is formed in a lattice shape and phosphors are applied to the lower and four sides of the cell formed by the partition wall, thereby preventing cross talk and improving luminous efficiency. There is a problem that can not be.

Meanwhile, according to Korean Application No. 10-1999-0060162, which discloses a lattice-shaped partition wall structure, a plasma display panel in which a partition wall is formed in a ladder shape and a slot extending in a horizontal direction between neighboring cells is provided. do. However, the slots are parallel and not in communication, which is not conducive to the exhaust process.

In addition, the invention disclosed in Korean Application No. 10-2000-0022802 proposes a method of evacuating using first and second frit glass having different melting temperatures. However, before and after the exhaust process, the first and second frit glasses having different melting temperatures must be melted, respectively, so that there is a problem in that productivity is reduced by adding a process step.

On the other hand, the red, green, and blue fluorescent materials which generate red, green, and blue visible rays at the time of discharge are different in their luminous efficiency, and the luminous efficiency of the blue fluorescent material is lower than that of the red and green fluorescent materials. It is known to be relatively low. Therefore, when the red, green, and blue fluorescent materials are applied to the same area as in the conventional plasma display panel, it is difficult to adjust the white balance, and thus it is difficult to realize colors close to natural colors.

The present invention is to solve the problems described above, it is possible to improve the exhaust efficiency, to increase the brightness (brightness) and luminous efficiency (luminance efficiency), and to improve the color temperature is possible to reproduce images close to natural colors An object of the present invention is to provide a partition structure of a plasma display panel.

In order to achieve the above object, the present invention includes a cell thermal array including partitions for partitioning cells of a predetermined shape, wherein the cell thermal array includes adjacent cells divided into a straight column partition and a straight row partition in the center. And both sidewalls share at least one first thermal array comprising a plurality of cells partitioned by a curved thermal barrier and a curved thermal barrier of the first thermal array, the at least one being in communication in a thermal direction. The second thermal array is alternately formed, and any one or two of the linear thermal partition wall, the linear partition partition wall, and the curved thermal partition wall provide a partition structure of the plasma display panel having a different height from the other partition wall.
Here, the curved thermal partition wall of the thermal array has a radius of curvature based on the cells of the first thermal array, and may be symmetrical or asymmetrical with respect to the linear thermal partition wall.
In addition, the curved one side of the thermal partition of the thermal array has a radius of curvature based on the cells of the first thermal array, the other side of the thermal partition wall may be substantially straight.
In this case, the thermal partition wall having the curvature radius is connected in a substantially straight line at the row partition wall connection part of the first thermal array, and the thermal partition wall having the curvature radius is connected to the inflection point at the row partition wall connection part of the first thermal array.
The present invention also includes a cell thermal array including partitions for partitioning cells of a predetermined shape, wherein the cell thermal array includes adjacent cells divided into a straight column partition and a straight row partition in the center, and both side walls are formed in the cell array. At least one first thermal array composed of a plurality of cells partitioned by wedge-shaped thermal barriers, each of which is inclined at both ends and extends in a straight line; And at least one second thermal array configured to share the wedge-shaped thermal partition walls of the first thermal array and communicate with each other in a column direction. The linear thermal partition walls, the linear row partition walls, and the curves are alternately formed. Any one or two of the thermal partition walls provide a partition structure of the plasma display panel having a height different from that of the other partition walls.
Here, the wedge-shaped thermal partition wall of the thermal array may be symmetrical or asymmetrical with respect to the linear thermal partition wall.
In addition, the present invention includes a cell thermal array including partitions for partitioning cells of a predetermined shape, wherein the cell thermal array includes at least one partitioned by a curved partition and a row partition with adjacent cells having a radius of curvature. The first thermal array; And at least one second thermal array configured to share a curved thermal partition wall of the first thermal array, and further include a thermal partition wall at a central portion thereof to partition a cell and communicate with each other in a column direction. One of the curved thermal partition walls and the row partition walls provides a partition structure of the plasma display panel having a height different from that of the other partition wall.
Here, the curved thermal partition wall having the radius of curvature may be symmetrical or asymmetrical.

delete

delete

delete

delete

In the present invention, it is preferable that the red, green, and blue fluorescent materials are coated in the cells, and the three cells form unit pixels, and the coating area of the blue fluorescent material is increased more than the red and green colors so as to adjust the white balance. .

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

However, the following embodiments are provided to those skilled in the art to fully understand the present invention, and may be modified in various forms, and the scope of the present invention is limited to the embodiments described below. It doesn't happen. In the following description, when a layer is described as being on top of another layer, it may be directly on top of another layer, and a third layer may be interposed therebetween. In the drawings, the thickness and size of each layer are exaggerated for clarity and convenience of explanation. Like numbers refer to like elements in the figures.

3 is an exploded perspective view illustrating a schematic structure of a plasma display panel according to an exemplary embodiment of the present invention. 4 is a cross-sectional view of the plasma display panel of FIG. 3 taken along line II ′. 5 is a cross-sectional view of the plasma display panel of FIG. 3 taken along the line II-II '. 6 is a cross-sectional view of the plasma display panel of FIG. 3 taken along line III-III '.

3 to 6, the plasma display panel includes a back substrate 100 and a front substrate 102. An address electrode 104 and a second dielectric layer 106 formed to fill the address electrode 104 are provided on the rear substrate 100. The partition walls 108a, 108a ′, and 108b having predetermined shapes are provided on the second dielectric layer 106.

In the partition structure shown in FIG. 3, the thermal partition 108a refers to a partition wall arranged in the column direction Y, and the partition partition 108b refers to a partition wall arranged in the row direction X. . Also note that the concept of rows and columns is a relative concept that can change depending on the point of view. An inert gas such as argon is filled in the cell surrounded by the partitions 108a, 108a ', and 108b. In addition, red, green, and blue phosphors 110 are applied to the side and bottom surfaces of the partitions 108a, 108a ', and 108b forming each cell.

Such partitions 108a, 108a ', and 108b are divided into thermal partitions 108a, 108a' and a row partition 108b, and have a predetermined shape by the thermal partitions 108a, 108a 'and the partition partition 108b. The cell is partitioned. Portions of the thermal barriers 108a and 108a ', denoted by reference numeral 108a, form a bend. Such a bend is provided to further increase the coating area of the phosphor layer inside the partition wall.

As can be seen from the figure, in the present invention, the stripe-type barrier rib structure and the grid-type barrier rib structure are used in combination, and at the same time, the stripe-type barrier rib has a feature of forming a bend.

In the following description, the portion forming the lattice-shaped partition wall structure in the partition wall partitioning the cell having a predetermined shape is referred to as the first thermal array A1, and the portion forming the stripe-shaped partition wall structure is referred to as the second thermal array A2. Cell thermal arrays A1 and A2 will be referred to as including one thermal array A1 and a second thermal array A2.

That is, the present invention includes cell thermal arrays A1 and A2 including partition walls for partitioning cells of a predetermined shape, wherein the cell thermal arrays A1 and A2 are adjacent to each other. And at least one first thermal array A1 and the first thermal array A1, each of which includes a plurality of cells, each of which is divided into a straight row partition wall 108b, wherein both side walls are partitioned by a curved column partition 108a. At least one second thermal array A2 is formed to share the curved thermal partition 108a and communicate with each other in the column direction Y.

In addition, the front substrate 102 is coupled to face the rear substrate 100, and the sustain substrate 112 and the scan electrode 114 provided to be orthogonal to the address electrode 104 are formed on the front substrate 102. . In addition, a first dielectric layer 116 is formed on the front substrate 102 so that the sustain electrode 112 and the scan electrode 114 are embedded. A protective film 118 is provided on the first dielectric layer 116. The passivation layer 118 may be formed of magnesium oxide (MgO). Although not illustrated, a black matrix may be formed on the passivation layer 118. This black matrix has a function of preventing mutual interference of light formed from each pixel.

The storage electrode 112 and the scan electrode 114 are arranged in parallel with each other in a stripe shape, and are formed in a direction parallel to the metal electrodes 112b and 114b having a predetermined width and the metal electrodes 112b and 114b, respectively. And transparent electrodes 112a and 114a electrically connected to each other. The transparent electrodes 112a and 114a are formed of a transparent conductive film made of indium thin oxide (ITO). The sustain electrode 112 and the scan electrode 114 are preferably provided above the edge of the cell in order to improve the aperture ratio. The metal electrodes 112b and 114b may be formed by applying a metal (eg, silver) paste, drying, patterning using an exposure process, and then performing sintering treatment. The transparent electrodes 112a and 114a may be formed by vapor deposition of ITO and patterning using an exposure process.

The address electrode 104 is provided to be orthogonal to the sustain electrode 112 and the scan electrode 114. The address electrodes 104 are preferably arranged so as to be located at the center of each cell. The address electrode 104 may be formed by vapor deposition and patterning a conductive material, for example, an aluminum alloy such as Al-Mn.

The first and second dielectric layers 106 and 116 can be formed by forming a film using a low melting glass paste and sintering the same.

As the fluorescent material used as the phosphor 110, red is BO ₃ : Eu ³⁺ (borate with a rare earth europium as a light emitting center), and green is Zn ₂ SiO ₄ : Mn (manganese as a light emitting center). Zinc silicate) and blue color may include BaMgAl ₁₄ O ₂₃ : Eu ²⁺ (barium magnesium aluminate with europium as a light emitting center). One fluorescent material is applied to each cell in a predetermined order, and three adjacent cells coated with red, green, and blue fluorescent materials form a unit pixel.

The partitions 108a, 108a ', and 108b can be formed using a material in which a metal oxide such as alumina is mixed with glass having a low melting point. The partitions 108a, 108a ', and 108b may be manufactured using a sandblast method, and the shape of the photomask may be changed to form a partition structure according to preferred embodiments of the present invention by changing the shape of the photomask. have. When the partitions 108a, 108a ', and 108b are manufactured by the sandblasting method, some of the partitions have a height lower than that of the other partitions, thereby effectively exhausting the air inside the cell in the exhaust process.

Hereinafter, the operation of the above-described plasma display panel will be briefly described.

When a predetermined input pulse voltage is applied to the address electrode 104 and a scan pulse voltage is applied to the scan electrode 114, preliminary discharge occurs in the cell to accumulate charge on the surface of the first dielectric layer 116. At this time, when the sustain pulse voltage is applied to the sustain electrode 112, a discharging occurs due to the charge accumulated on the surface of the first dielectric layer 116. The discharging continues by alternately applying sustain pulse voltages to the scan electrodes 114 and the sustain electrodes 112. As a result of the above discharging, the inert gas in the cell is ionized into electrons and ions and becomes a plasma state. In this case, ultraviolet rays are emitted and collide with each of the red, green, and blue phosphors to emit visible light. Accordingly, an image may be displayed through a unit pixel consisting of three cells.

7 to 16 show the various arrangements of the cell thermal arrays A1 and A2 according to the partition structure of the present invention in more detail.

[First Embodiment]

7 to 9 are plan views illustrating only the partition structure of the plasma display panel according to the first embodiment of the present invention.

As can be seen from the figure, in the present embodiment, the cell thermal arrays A1 and A2 including partitions for partitioning cells of a predetermined shape are arranged in the form of a straight column partition 108a 'and a straight row partition wall 108b in which adjacent cells are centered. And the two side walls share a first thermal array A1 partitioned by a curved thermal partition 108a and a curved thermal partition 108a of the first thermal array. The second thermal array A2 formed in communication is alternately formed. In addition, at least one of the first thermal array A1 and the second thermal array A2 may be continuously disposed.
The thermal partition wall 108a of the first or second thermal array has a curvature having a predetermined radius of curvature, and the radius of curvature is formed from a straight line to a convex shape and has a convex shape to a range that does not interfere with an adjacent partition wall. Can be. That is, the curved thermal partition 108a has a convex shape outward with respect to the linear thermal partition 108a ', and the convex shape thereof has a range such that it does not interfere with adjacent adjacent curved partitions 108a. Have

The radius of curvature of the curved thermal partition 108a can be adjusted experimentally in consideration of the size of the cell according to the design rule, the exhaust efficiency to effectively discharge the air in the cell, and the size of the display panel to be manufactured. .

In FIG. 7, the curved thermal barriers 108a of the cell thermal arrays A1 and A2 have a predetermined radius of curvature based on the cells of the first thermal array A1 and the linear thermal barriers 108a ′. ) Is formed symmetrically with respect to the left and right, and FIG. 8 shows that it is formed symmetrically.

In addition, although not shown in the drawings, the one side thermal barrier 108a having the curvature of the thermal array has a predetermined radius of curvature based on the cells of the first thermal array, and the other side thermal barrier 108a has a substantially straight shape. Can also be taken.

FIG. 9 shows an enlarged view of the portion a of FIGS. 7 and 8, wherein the thermal partition wall 108a having the predetermined radius of curvature is connected to the row partition wall 108b of the first thermal array A1. In Figure a) shows the connection in a straight line.

Preferably, the thermal partition 108a of the first or second thermal array A2 and the partition partition 108b of the first thermal array can efficiently exhaust the air inside the cell in the exhaust process. It is preferable that the height is formed lower than other partition walls.

Second Embodiment

10 to 12 are plan views illustrating only a barrier rib structure of a plasma display panel according to another exemplary embodiment of the present invention.

Similar to the first embodiment, in the present embodiment, the cell thermal arrays A1 and A2 including partitions for partitioning cells of a predetermined shape have a straight column partition 108a 'and a straight row partition 108b with adjacent cells in the center. And the two side walls share a first thermal array A1 partitioned by a curved thermal partition 108a and a curved thermal partition 108a of the first thermal array. The second thermal array A2 formed in communication is alternately formed.

In addition, in FIG. 10, the curved thermal barriers 108a of the cell thermal arrays A1 and A2 have a predetermined radius of curvature based on the cells of the first thermal array A1. 108a ') is formed symmetrically based on the left, and Figure 11 shows that it is formed asymmetrically.

In addition, although not shown in the drawings, the one side thermal barrier 108a having the curvature of the thermal array has a predetermined radius of curvature based on the cells of the first thermal array, and the other side thermal barrier 108a has a substantially straight shape. Can also be taken.

FIG. 12 shows an enlarged view of the portion b of FIGS. 10 and 11, wherein the thermal partition wall 108a having the predetermined radius of curvature is connected to the row partition wall 108b of the first thermal array A1. ) Shows the connection to the inflection point.

Third Embodiment

13 and 14 are plan views schematically illustrating a barrier rib structure of a plasma display panel according to another exemplary embodiment of the present invention.

As can be seen in the figure, the present embodiment includes cell thermal arrays A1 and A2 including partition walls for partitioning cells of a predetermined shape, wherein the cell thermal arrays A1 and A2 are adjacent to each other. A plurality of partitions are divided into a straight column partition 108a 'and a straight row partition 108b, and both side walls are partitioned into wedge column partitions 108a' 'that are inclined at both ends of the row partition 108b and extend in a straight line. At least one first thermal array A1 comprising at least one cell and at least one second thermal partition 108a '' of the wedge-shaped partition wall 108a '' of the first thermal array A1 and communicating in a column direction. The array A2 is formed alternately.

FIG. 13 shows that such a wedge-shaped partition wall 108a ″ is formed symmetrically with respect to the straight column partition 108a ′, and FIG. 14 is formed asymmetrically.
The wedge-shaped partition bulkhead 108a '' has a convex shape outward with respect to the linear partition bulkhead 108a ', the convex shape of the wedge-shaped partition bulkhead 108a''does not interfere with the adjacent other wedge-shaped partition bulkhead 108a''. Has
Fourth Embodiment

delete

15 and 16 are plan views schematically illustrating a barrier rib structure of a plasma display panel according to another exemplary embodiment of the present invention.

In this embodiment as well, the cell thermal arrays A1 and A2 include partition walls for partitioning cells of a predetermined shape, wherein the cell thermal arrays A1 and A2 are curved in which adjacent cells have a predetermined radius of curvature. At least one first thermal array A1 partitioned by the thermal partition 108a and the row partition 108b and a curved thermal partition 108a of the first thermal array A1, Another thermal partition 108a '' 'is further provided to partition the cell and at least one second thermal array A2 formed in communication in the column direction is alternately showing the partition structure of the plasma display panel formed. have.

Such cell thermal arrays A1 and A2 are symmetrically formed in FIG. 15, and asymmetrically formed in FIG. 16.
The curved thermal partition 108a has an outwardly convex shape with respect to a cell formed of the curved thermal partition 108a and the row partition 108b, and the convex shape of the curved partition bulkhead 108a is adjacent to the other curved wall. It has a range that does not interfere with.

In the present invention, the phosphors of red, green, and blue are respectively applied to the cells of the barrier rib structure shown in the above embodiments, and the phosphors are applied to the respective cells in a predetermined order to form red, green, and blue cells as shown. Unit pixels are formed.

In the present invention, since the luminous efficiency of the blue fluorescent material is lower than that of the green or red fluorescent material, the blue fluorescent material is applied to be disposed in a cell having a large area, and the green and red fluorescent material is suitably disposed to be a cell having a small area. By applying, the white balance can be adjusted so that an image close to natural colors can be reproduced.

Preferably, in the cell thermal arrays A1 and A2, a blue fluorescent substance is applied to the cells of the second thermal array A2 to adjust the white balance.

The barrier rib structure of the plasma display panel according to the exemplary embodiments of the present invention may be modified into various other desired shapes by changing the shape of the photomask, but the present invention is not limited thereto. In addition, the present invention may be more remarkably the effect of the present invention with reference to the following experimental example, this experimental example is not intended to limit the present invention.

Table 1 is a table comparing the brightness of the plasma display panel according to the present invention and the plasma display panel according to the preferred embodiment of the present invention.

division F / W brightness P / W brightness Conventional 175 cd / m ² 1020 cd / m ² The present invention 186 cd / m ² 1090 cd / m ² efficiency 11 cd / m ² 70 cd / m ² Increase 6.28% 6.86%

As shown in Table 1, it can be seen that the plasma display panel according to the preferred embodiment of the present invention has an effect of improving brightness by 6 to 7% compared to the conventional plasma display panel using only stripe-type partition walls.

Table 2 is a table comparing the number of occurrences of the center reversal unevenness of the plasma display panel and the plasma display panel according to the preferred embodiment of the present invention in the case of using a conventional grid-shaped partition wall.

division Panel production quantity Center Inverted Spot Conventional 100 43 The present invention 100 12 Increase -31%

As shown in Table 2, it can be seen that the plasma display panel according to the preferred embodiment of the present invention has an effect of reducing the amount of central reversal staining by 31% compared to the conventional plasma display panel using only the grid-shaped partition walls. This is because, in the case of the present invention, the impurity evacuation efficiency is increased, resulting in less central reversal staining.

Table 3 is a table comparing the color temperature expression ranges of the plasma display panel and the plasma display panel according to the preferred embodiment of the present invention in the case of using a conventional lattice partition.

division Color temperature range Conventional 8010 ~ 9830 K The present invention 7980-11200 K Expression range difference (11200-7980)-(9830-8010) = 1400 K Rate of increase (based on Max) 11200/9830 = 1.139 (13.9%)

As shown in Table 3, it can be seen that the plasma display panel according to the preferred embodiment of the present invention has an effect of increasing the color temperature by 13.9% compared to the conventional plasma display panel using only the grid-shaped partition walls. This is because the color temperature range is increased by bending the thermal partition wall, which shows the superiority of the effect of the present invention.

According to the plasma display panel according to the present invention, since the phosphor coating area can be increased as compared with the plasma display panel employing the stripe-type partition wall, the brightness can be increased, and the color temperature can be increased by forming a bend in the partition wall.

In addition, according to the present invention, the problem of generating a central discharge stain can be improved by improving the exhaust efficiency of the impurity gas as compared with the plasma display panel employing the lattice-shaped partition wall.

In the present invention, since the luminous efficiency of the blue fluorescent material is lower than that of the green or red fluorescent material, the blue fluorescent material is applied to be disposed in a cell having a large area, and the green and red fluorescent material is suitably disposed to be a cell having a small area. There is an effect that the white balance can be adjusted by applying.

As mentioned above, although preferred embodiment of this invention was described in detail, this invention is not limited to the said embodiment, A various deformation | transformation by a person of ordinary skill in the art within the scope of the technical idea of this invention is carried out. This is possible.

Claims (14)

A cell thermal array comprising partitions defining a cell of a predetermined shape, The cell thermal array includes at least one first thermal array and the first thermal array including a plurality of cells in which adjacent cells are divided into a central linear thermal partition and a linear row partition, and both side walls are partitioned into a curved thermal partition. At least one second thermal array formed by alternating sharing of the columnar curved walls and communicating in a column direction is formed, and any one of the linear thermal partition wall, the linear row partition wall, and the curved thermal partition wall is formed. Or two partition walls of the plasma display panel having different heights from the other partition walls. The method of claim 1, The curved thermal partition wall of the thermal array has a radius of curvature based on the cells of the first thermal array, the partition structure of the plasma display panel symmetrical with respect to the linear thermal partition wall. The method of claim 1, The curved thermal partition wall of the thermal array has a radius of curvature based on the cells of the first thermal array, the partition structure of the plasma display panel of the left and right asymmetrical with respect to the linear thermal partition wall. The method of claim 1, The curved one side partition wall of the thermal array has a radius of curvature based on the cells of the first thermal array, the other side partition wall partition wall structure of the plasma display panel is approximately straight. The method according to any one of claims 2 to 4, The partition wall having the radius of curvature is a partition structure of the plasma display panel is connected in a substantially straight line at the connecting partition wall of the first thermal array. The method according to any one of claims 2 to 4, And a thermal partition wall having the radius of curvature is connected to the inflection point at the connection partition wall of the first thermal array. A cell thermal array comprising partitions defining a cell of a predetermined shape, The cell thermal array includes at least a plurality of cells each of which adjacent cells are divided into a central straight column partition and a straight row partition wall, and both side walls are partitioned by a wedge-shaped partition wall which is inclined at both ends and extends in a straight line. One or more first thermal arrays; And at least one second thermal array sharing the wedge thermal barrier of the first thermal array and communicating in a column direction. The linear thermal barrier, the linear row partition, and the wedge column are alternately formed. Any one or two of the partition walls have a height different from that of the other partition walls. The method of claim 7, wherein The wedge-shaped thermal partition wall of the thermal array is a partition structure of the plasma display panel symmetrical with respect to the linear thermal partition wall. The method of claim 7, wherein The wedge-shaped thermal partition wall of the thermal array is a partition structure of the plasma display panel is asymmetrical with respect to the straight thermal partition wall. A cell thermal array comprising partitions defining a cell of a predetermined shape, The cell thermal array includes at least one first thermal array in which adjacent cells are partitioned by a curved thermal partition and a row partition with a radius of curvature; And at least one second thermal array configured to share a curved thermal partition wall of the first thermal array, and further include a thermal partition wall at a central portion thereof to partition a cell and communicate with each other in a column direction. The partition wall structure of the plasma display panel, wherein one of the curved thermal partition wall and the row partition wall has a height different from that of the other partition wall. The method of claim 10, The curved thermal partition wall having the radius of curvature is a partition structure of the plasma display panel symmetrical. The method of claim 10, The curved thermal partition wall having the radius of curvature is a partition structure of the plasma display panel asymmetrical. The method of claim 10, A partition structure of a plasma display panel in which three neighboring cells form a unit pixel, and each cell is coated with red, green, and blue phosphors. The method of claim 13, The barrier rib structure of the plasma display panel to adjust the white balance by increasing the coating area of the blue fluorescent material than red, green.

Images