KR20060010915A - Driving method of plasm display panel - Google Patents

Abstract

The present invention relates to a plasma display panel driving method using a drive waveform comprising a reset section, an address section, and a sustain discharge section, wherein a scanning pulse is sequentially applied to a plurality of first electrodes in an address section, and address data is applied to the address electrodes. Is applied, and in the period of at least a part of the address period, the address data applied to the first address electrodes has a first pulse width, and the address data applied to the second address electrodes is the first pulse width. A plasma display panel driving method having a second pulse width different from that of the present invention is provided. According to the present invention, according to the red light emitting phosphor, the green light emitting phosphor, and the blue light emitting phosphor having different charge characteristics in the address period, address discharge without mis-discharge may occur in the discharge cells of all colors regardless of the phosphor for each RGB color. The reliability of the address discharge is improved.

Description

Driving method of plasma display panel

1 is a timing diagram illustrating an example of a drive signal of a plasma display panel.

2 is a view showing the structure of a conventional three-electrode surface discharge plasma display panel.

FIG. 3 shows a typical driving apparatus of the plasma display panel shown in FIG. 2.

FIG. 4 is a timing diagram illustrating a conventional address-display separation driving method for Y electrode lines of the plasma display panel of FIG. 2.

5 is a waveform diagram of an address section PA for explaining a panel driving method according to an exemplary embodiment of the present invention.

6 is a waveform diagram illustrating an address section PA for explaining a panel driving method according to an exemplary embodiment of the present invention.

7 is a waveform diagram of an address section PA for explaining a panel driving method according to an exemplary embodiment of the present invention.

Explanation of symbols on the main parts of the drawings

AR: Red light emitting address electrode line                 

AG: Green line address electrode line

AB: Address electrode line for blue light emission

112R: Red Light Emitting Phosphor

112G: Green Light Emitting Phosphor

112B: Blue light emitting phosphor

ta: pulse width of data applied to the first address electrode line

tb: pulse width of data applied to the second address electrode line

tc: pulse width of data applied to the third address electrode line

PR ... Reset period

PA ... address period

PS ... oil fat war

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a plasma display panel driving method for displaying a screen by applying a discharge pulse to an electrode structure forming a display cell coated with color phosphors such as a plasma display panel (PDP), and more particularly, to negative charge characteristics. The present invention relates to a plasma display panel driving method for differently applying a pulse to drive a cell coated with a phosphor having a phosphor and a cell coated with a phosphor having a positive charge characteristic.

FIG. 1 is a timing diagram illustrating an example of a driving signal of a plasma display panel, wherein an address electrode A, a common electrode X, and a scanning electrode Y1 in one subfield SF in an ADS driving method of an AC PDP. Drive signal applied to ˜Yn). Referring to FIG. 1, one subfield SF includes a reset period PR, an address period PA, and a sustain discharge period PS.

The reset period PR initializes the wall charge state of all cells by applying reset pulses to the scan lines of all groups and forcibly performing a write discharge. The reset period PR is performed before entering the address period PA, which is carried out over the entire screen, thus making it possible to create a wall distribution of wall charges with a fairly even and desired distribution. The cells initialized by the reset period PR have similar wall charge conditions in the cells.

The address period PA is performed after the reset period PR is performed. At this time, in the address period PA, the bias voltage Ve is applied to the common electrode X, and the scan electrodes Y1 to Yn and the address electrodes A1 to Am are simultaneously turned on at the cell positions to be displayed. Select the display cell.

After the address period PA is performed, the sustain pulse Vs is alternately applied to the common electrodes X and the scan electrodes Y1 to Yn to perform the sustain discharge period PS. During the sustain discharge period PS, a low level voltage VG is applied to the address electrodes A1 to Am. In PDP, the brightness is adjusted by the number of sustain discharge pulses. If the number of sustain discharge pulses in one subfield or one TV field is large, the luminance increases.

In particular, in the address period PA, an anode discharge pulse is applied to the scan electrodes Y1 to Yn, and an address data voltage Va is applied to the address electrodes A1 to Am to generate address discharge. The display cells are selected by the wall charge distribution (accumulating a large amount of negative charges near the scanning electrode) formed by the discharge, and a sustain discharge is generated. In the sustain discharge, the phosphor applied on the address electrode is excited by ultraviolet radiation formed by the discharge between the scan electrode and the common electrode to emit light.

However, red phosphors (for example, (Y, Gd) BO ₃ : Eu) commonly employed among the phosphors applied on the address electrode have positively charged anode properties and blue phosphors (eg, For example, BaMgAl ₁₀ O ₁₇ : Eu has a weak positive charge property, whereas a green phosphor (eg, Zn ₂ SiO ₄ : Mn) has a negative charge property.

In the discharge cell through which the address electrode coated with phosphor having negative charge characteristics passes, there is a high possibility that low discharge occurs relatively less than the discharge cell through which the address electrode coated with phosphor having no negative charge characteristics or passes by. On the contrary, when a large amount of pulse energy is applied to cause sufficient discharge to occur in a discharge cell through which an address electrode coated with a phosphor having negative charge characteristics passes, overdischarge is performed in a discharge cell through which an address electrode coated with a phosphor having no negative charge characteristics or passes by Alternatively, there is a high possibility of false discharge.

Therefore, when the heights of the red, green, and blue phosphor layers are the same as the heights of the partition walls, there is a problem in that the address discharge voltage for the green phosphor is relatively higher than the address discharge voltage for the red and blue phosphors. In order to solve such a problem, Japanese Patent Laid-Open No. 2001-236893 discloses that a green phosphor having a negative polarity is mixed with a green phosphor having a positive polarity and changed to bipolar. However, as the polarity of the green phosphor is changed as described above, the characteristics of the address discharge are changed, thereby affecting the characteristics of the sustain discharge performed after the address discharge.

SUMMARY OF THE INVENTION The present invention has been made in view of the prior art and various other problems, and an object of the present invention is to provide a plasma display panel driving method for improving the reliability of the address discharge.

Another object of the present invention is to apply the waveform of the address data pulse in the address interval differently according to the characteristics of the phosphors for each RGB color, so that the plasma can generate an address discharge in all cells irrespective of the type of the phosphor for each RGB color. To provide a display panel driving method.

Plasma display panel driving method of the present invention for achieving the above technical problem,

A plasma display panel including first address electrodes and second address electrodes and first and second electrodes crossing the address electrodes is formed by a driving waveform including a reset section, an address section, and a sustain discharge section. In the display panel driving method,

In the address section, scanning pulses are sequentially applied to the plurality of first electrodes, and address data is applied to the address electrodes.

In at least a portion of the address period, the address data applied to the first address electrodes has a first pulse width, and the address data applied to the second address electrodes is different from the first pulse width. It has a second pulse width.

In the plasma display panel driving method, the plasma display panel includes a phosphor having positive charge characteristics on the first address electrodes, a phosphor having negative charge characteristics on the second address electrodes, The first pulse width is smaller than the second pulse width. For example, when sufficient address discharge can occur when the second pulse width is 1.65 sec, the first pulse width is 1.62 to 1.64 sec which is 0.01 to 0.03 sec smaller than the second pulse width. desirable.

The phosphor having positive charge characteristics on the first address electrodes may be a red light emitting phosphor, and the phosphor having negative charge characteristics on the second address electrodes may be a green light emitting phosphor.

In addition, in the plasma display panel driving method according to the present invention, the plasma display panel further includes third address electrodes, and in at least a portion of the address period, the address data applied to the third address electrodes is The first pulse width may have a third pulse width in a range of less than or equal to the second pulse width.

Further, in the plasma display panel driving method according to the present invention, a bias voltage is applied to the second electrode in the address section, whereby a sufficient negative charge is accumulated near the second electrode, so that the sustain discharge is advantageous, and the address electrode and the Counter discharge between one electrode can be enhanced.

On the other hand, the methods can be realized through a computer by means of a recording medium which records a program for execution on the computer.

Hereinafter, the configuration and operation of a plasma display panel driving method according to a preferred embodiment of the present invention will be described in detail with reference to the accompanying drawings.

In the plasma display panel driving method according to the present invention, the pulse widths of the respective address data are differently applied to each other in accordance with the charge characteristics of the phosphors applied on the address electrode lines in the address period. Prevent discharge.

2 is a view showing the structure of a conventional three-electrode surface discharge type plasma display panel.

Referring to FIG. 2, between the front and rear glass substrates 100 and 106 of the conventional surface discharge plasma display panel 1, the address electrode lines A ₁ , A ₂ ,..., A _m , Dielectric layers 102 and 110, Y electrode lines Y ₁ , ..., Y _n , X electrode lines X ₁ , ..., X _n , fluorescent layer 112, barrier rib 114, and As a protective layer, the magnesium monoxide (MgO) layer 104 is provided, for example. Hereinafter, the Y electrode lines (Y ₁ ,..., Y _n ) and the X electrode lines (X ₁ , ..., X _n ) are collectively referred to as 'hold electrode lines', and the Y electrode lines ( Y ₁ , ..., Y _n are also called scan electrode lines, and X electrode lines X ₁ , ..., X _n are also called common electrode lines.

The address electrode lines A ₁ , A ₂ ,..., A _m are formed in a predetermined pattern on the front side of the rear glass substrate 106. The lower dielectric layer 110 is applied in front of the address electrode lines A ₁ , A ₂ ,..., A _m . In front of the lower dielectric layer 110, barrier ribs 114 are formed in a direction parallel to the address electrode lines A ₁ , A ₂ ,..., A _m . The partition walls 114 function to partition the discharge area of each display cell and to prevent optical interference between the display cells. The fluorescent layers 112R, 112G and 112B are applied in front of the dielectric layer 110 on the address electrode lines A ₁ , A ₂ ,..., A _m between the partition walls 114, and sequentially red fluorescent light. The layer 112R, the green fluorescent layer 112G, and the blue fluorescent layer 112B are disposed.

Among the phosphors constituting the phosphor layer 112 on the address electrode lines A ₁ , A ₂ ,..., A _m , a red phosphor 112R typically employed; for example, (Y, Gd) BO ₃ : Eu ) Has a positively charged anode and the blue phosphor 112G (eg, BaMgAl ₁₀ O ₁₇ : Eu) has weak positive charge characteristics, while the green phosphor 112B (eg, Zn ₂ SiO ₄ : Mn) has a negative charge with a negative charge.

The X electrode lines (X ₁ , ..., X _n ) and the Y electrode lines (Y ₁ , ..., Y _n ) are the address electrode lines (A ₁ , A ₂ , ..., A _m). It is formed in a predetermined pattern on the back of the front glass substrate 100 to be orthogonal to the. Each intersection sets a corresponding display cell. Each X electrode line (X ₁ , ..., X _n ) and each Y electrode line (Y ₁ , ..., Y _n ) are transparent electrode lines (X _na ) made of a transparent conductive material such as indium tin oxide (ITO). , Y _na ) and metal electrode lines X _nb and Y _nb for increasing conductivity may be formed. The front dielectric layer 102 is formed by applying the entire surface to the rear of the X electrode lines (X ₁ ,..., X _n ) and the Y electrode lines (Y ₁ ,..., Y _n ). A protective layer 104 for protecting the panel 1 from a strong electric field, for example, a magnesium monoxide (MgO) layer, is formed by applying a front surface to the back of the front dielectric layer 102. The plasma forming gas is sealed in the discharge space 108.

A driving scheme generally applied to such a plasma display panel is a method in which initialization, address, and display holding steps are sequentially performed in a unit sub-field. In the initialization step, the charge states of the display cells to be driven are made uniform. In the address step, the charge state of display cells to be selected and the charge state of display cells not to be selected are set. In the display holding step, display discharge is performed in the display cells to be selected. At this time, a plasma is formed from the plasma forming gas of the display cells performing display discharge, and the fluorescent layer 112 of the display cells is excited by ultraviolet radiation from the plasma to generate light.                     

3 illustrates a general driving device of the plasma display panel of FIG. 2.

Referring to the drawings, a typical driving device of the plasma display panel 1 includes an image processor 200, a controller 202, an address driver 206, an X driver 208, and a Y driver 204. The image processing unit 200 converts an external analog image signal into a digital signal, and internal image signals, for example, 8-bit red (R), green (G) and blue (B) image data, clock signals, vertical and horizontal, respectively. Generate synchronization signals. The controller 202 generates the driving control signals SA, SY, and SX according to the internal image signal from the image processor 200. The address driver 206 processes the address signal SA among the drive control signals SA, SY, and SX from the controller 202 to generate a display data signal, and generates the display data signal through the address electrode lines. To apply. The X driver 208 processes the X driving control signal SX among the driving control signals SA, SY, and SX from the controller 202 and applies the X driving control signal SX to the X electrode lines. The Y driver 204 processes the Y driving control signal SY among the driving control signals SA, SY, and SX from the controller 202 and applies the Y driving control signal SY to the Y electrode lines.

As a driving method of the plasma display panel 1 having the structure described above, an address-display separation driving method which is mainly used is disclosed in US Pat.

FIG. 4 shows a conventional address-display separation driving method for the Y electrode lines of the plasma display panel of FIG. 2.

Referring to the drawings, a unit frame may be divided into a predetermined number, for example, eight subfields SF1,..., SF8 to realize time division gray scale display. Each subfield SF1, ..., SF8 is divided into a reset section (not shown), an address section A1, ..., A8, and a sustain discharge section S1, ..., S8. do.

In each address section A1, ..., A8, a display data signal is applied to the address electrode lines and scan pulses corresponding to each of the Y electrode lines Y1, ..., Yn are sequentially applied.

In each sustain discharge section S1, ..., S8, pulses for display discharge alternately in the Y electrode lines Y1, ..., Yn and the X electrode lines X1, ..., Xn. Is applied to cause display discharge in discharge cells in which wall charges are formed in the address periods A1, ..., A8.

The luminance of the plasma display panel is proportional to the number of sustain discharge pulses in the sustain discharge sections S1, ..., S8 occupied in the unit frame. When one frame forming one image is represented by eight subfields and 256 gray levels, each subfield is sequentially held at a ratio of 1, 2, 4, 8, 16, 32, 64, and 128 in order. The number of pulses can be assigned. In order to obtain luminance of 133 gray levels, cells may be addressed and sustained and discharged during the subfield 1 period, the subfield 3 period, and the subfield 8 period.

The number of sustain discharges allocated to each subfield may be variably determined according to the weights of the subfields according to the APC (Automatic Power Control) step. The number of sustain discharges allocated to each subfield can be variously modified in consideration of gamma characteristics and panel characteristics. For example, the gradation level assigned to subfield 4 may be lowered from 8 to 6, and the gradation level assigned to subfield 6 may be increased from 32 to 34. In addition, the number of subfields forming one frame can be variously modified according to design specifications.

5 is a waveform diagram of an address section PA for explaining a panel driving method according to an exemplary embodiment of the present invention.

Here, the waveforms represented by the scan (Y1 to Yn) electrodes are shown as one waveform diagram, but this is for convenience of explanation, and in practice, one scan pulse corresponds to one scan electrode, and n number of scan pulses equal to the number of scan pulses. The waveforms of the scan electrodes Y ₁ : Y _n are superimposed.

Referring to the address section PA of FIG. 5, the high level voltage of the address data applied to the address A electrode maintains Va.

The bias voltage Ve is applied to the common electrodes X1 to Xn. The bias voltage Ve serves to make the sustain discharge favorable by accumulating negative charge sufficiently near the common electrodes X1 to Xn, and at the same time, the address electrodes A1 to Am and the scan electrodes Y1 to Yn. It plays a role in reinforcing opposing discharges. Reinforcing the counter discharge means that positive charges emitted from the dielectric on the address electrode do not come to the common electrodes X1 to Xn and proceed toward the scan electrodes so that the address discharge can be smoothly performed between the address electrodes and the scan electrodes. It means.

In the address section PA, the scan pulses applied to the scan electrodes Y1 to Yn are the potential difference ΔV _SC between the high level and the low level. = A pulse having V _{SC -H} -V _{SC -L} is applied in synchronization with the application of the address data Va. That is, the scan pulses ΔV _SC = V _{SC −H} −V _{SC -L} are sequentially applied to the plurality of scan electrodes Y1 to Yn, and the address data Va is applied to the address electrodes A1 to Am. Is approved.

In the plasma display panel driving method according to the present invention, the pulse width of the address data Va applied to the respective address electrode lines corresponding to the phosphors 112R, 112G, and 112B for each RGB color having different charge characteristics is applied differently. do. Hereinafter, it is assumed that the red light emitting (R) phosphor has a positive charge characteristic, the green light emitting (G) phosphor has a negative charge characteristic, and the blue light emitting (B) phosphor has a neutral characteristic or a weak positive charge characteristic. However, it should be noted that this assumption is merely for convenience of description and falls within the scope of the present invention even when the charge characteristic for each RGB color is different from the above assumption.

6 is a waveform diagram illustrating an address section PA for explaining a panel driving method according to an exemplary embodiment of the present invention.

For convenience of description, the waveforms represented by the scan Y1 to Yn electrodes are represented by one waveform diagram, and the address data Va waveforms applied to the address electrode lines are separately expressed for each RGB color.

As shown in FIG. 6, for example, address data Va applied to address electrode lines AG (A2, A5, A8, ..., Am-1) that emit the green light-emitting phosphor 112G. Has a pulse width tb, the pulse of the address data Va applied to the address electrode lines AR that emits the red light-emitting phosphor 112R. A1, A4, A7, ..., Am-2. The width may have a pulse width ta shorter than the pulse width tb of the address data corresponding to the green color G. In this way, if the pulse width of the corresponding address data is changed in accordance with the RGB color of the phosphor, erroneous discharge does not occur in both the discharge cell having the green light emitting phosphor 112G and the discharge cell having the red light emitting phosphor 112R. .

In addition, the pulse width tc of the address data Va applied to the address electrode lines AB (A3, A6, A9, ..., Am) for emitting the blue light emitting phosphor 112B is equal to or larger than ta. The pulse width may be equal to or smaller than tb.

That is, the pulse width of the address data for red light emitting (R) having positive charge characteristics is ta, the pulse width of the address data for green light emitting (G) having negative charge characteristics is tb, and the address data for blue light emitting (B) having neutral characteristics If the pulse width of tc is tc, it is preferable that the pulse width of each RGB color-specific address data Va has a pulse width of ta ≦ tc ≦ tb. However, when the blue light emitting (B) phosphor 112B has a weak positive charge characteristic, the pulse width tc of the address data corresponding thereto is preferably smaller than tb. The pulse width tc of the data is preferably equal to ta.

For example, when sufficient address discharge can occur when the pulse width (tb) of the address data for green light emitting (G) having negative charge characteristics is 1.65 sec, the address data for red light emitting (R) having positive charge characteristics can be generated. The pulse width ta is preferably 1.62 to 1.64 ec which is smaller by 0.01 to 0.03 ec than the pulse width tb. In addition, the pulse width tc of the address data for blue light emission B may have a pulse width equal to or larger than ta (1.62 to 1.64 kHz) and less than or equal to tb (1.65 kHz). However, when the blue light emitting (B) phosphor 112B has a weak positive charge characteristic, the pulse width tc of the address data corresponding thereto is preferably smaller than tb (1.65 kHz), and has a strong positive charge characteristic. It is preferable that the pulse width tc of the address data corresponding thereto is equal to ta (1.62 to 1.64 sec).

As described above, applying the pulse width of the corresponding address data differently according to the RGB color of the phosphor may be performed in a period of at least a part of the address section PA. That is, it does not need to be made over the entire address section PA. Since the wall charges may be different depending on the time difference between the first half and the second half of the address section PA, it is necessary to apply different pulse widths of the address data only in a part of the address section PA depending on the characteristics of the panel. It may be.

FIG. 7 is a waveform diagram of an address section PA for explaining a panel driving method according to an exemplary embodiment of the present invention. The waveforms of address data Va applied to the address electrode lines are superimposed and the scan electrodes are displayed. Waveforms applied to the lines Y1 to Yn are displayed in sequential order.

As shown in FIG. 7, for example, when a scanning pulse is applied to the first scan electrode line Y1, address electrode lines passing through cells coated with phosphors having positive charge characteristics (for example, in FIG. 2). Address data Va having a small pulse width tb is applied to A1, A4, A7, A10, ..., Am-2 to which the red light-emitting phosphor 112R is applied, and a phosphor having negative charge characteristics is applied. A large pulse width (tb) in the address electrode lines (for example, A2, A5, A8, A11, ..., Am-1 to which the green light-emitting phosphor 112G is applied in FIG. 2). Address data Va is applied. On the other hand, address electrode lines coated with the blue light-emitting phosphor 112B (for example, A2, A5, A8, A11, ..., Am-1 coated with the green light-emitting phosphor 112G in FIG. 2) ), When the blue light emitting (B) phosphor 112B has a weak positive charge characteristic, a pulse smaller than tb can be applied with a pulse width tc of the address data corresponding thereto, and has a strong positive charge characteristic. The pulse width tc of the address data corresponding thereto may be applied in the same manner as ta.

Subsequently, when scan pulses are sequentially applied to the second and subsequent scan electrode lines Y2 to Yn, the address data Va having different pulse widths ta, tb and tc for each RGB color is applied to the address electrode lines, respectively. Is applied.

In this way, if the pulse width of the corresponding address data is changed in accordance with the RGB color of the phosphor, both of the discharge cells having the green light emitting phosphor 112G and the discharge cells having the red light emitting phosphor 112R are discharged without misdischarge. As such, the reliability of the address discharge is improved.

Meanwhile, the display panel driving method according to the present invention described above may be embodied as computer readable codes on a computer readable recording medium. Computer-readable recording media include any type of recording device that stores programs or data that can be read by a computer system. Examples of computer-readable recording media include ROM, RAM, CD-ROM, magnetic tape, hard disk, floppy disk, flash memory, optical data storage, and the like. Here, the program stored in the recording medium refers to a series of instruction commands used directly or indirectly in an apparatus having an information processing capability such as a computer to obtain a specific result. Thus, the term computer is used to mean all devices having an information processing capability for performing a specific function by a program, including a memory, an input / output device, and an arithmetic device, regardless of the name actually used. Even in the case of a device for driving a panel, its use is limited to a specific field of panel driving, and in reality, it is a kind of computer.

In particular, the display panel driving method according to the present invention is an integrated circuit, for example, a field programmable gate array (FPGA), which is prepared by a schematic or ultra high-speed integrated circuit hardware description language (VHDL) on a computer, and connected to a computer. It can be implemented by. The recording medium includes such a programmable integrated circuit.

The best embodiments have been disclosed in the drawings and specification above. Although specific terms have been used herein, they are used only for the purpose of describing the present invention and are not used to limit the scope of the present invention as defined in the meaning or claims. Therefore, those skilled in the art will understand that various modifications and equivalent other embodiments are possible from this. Therefore, the true technical protection scope of the present invention will be defined by the technical spirit of the appended claims.

 As described above, the plasma display panel driving method of the present invention has the following effects.

First, if the pulse widths of the corresponding address data are different according to the kinds of phosphors having different charge characteristics in the address period, address discharge-free discharge can occur in all discharge cells regardless of the kind of phosphors. Reliability is improved.

Second, according to the red light emitting phosphor, green light emitting phosphor, and blue light emitting phosphor having different charge characteristics in the address section, if the pulse widths of the corresponding address data are different, mis-discharge in discharge cells of all colors regardless of the phosphors for each RGB color Since no address discharge can occur, the reliability of the address discharge is improved.

Third, the manufacturing cost of the phosphor is reduced, and the width of the address voltage pulse can be flexibly adjusted according to the type of phosphor, compared to the conventional technique of changing the charge characteristics of the phosphor by mixing the phosphor having a polarity with the green light emitting phosphor. Freedom of discharge design is improved.

The invention is not limited to the examples described above and represented in the drawings. Those skilled in the art taught by the above-described embodiments, many modifications to the above-described embodiments are possible by substitution, erasure, merging, etc. within the scope and object of the present invention described in the following claims.

Claims (7)

A plasma display panel including first address electrodes and second address electrodes and first and second electrodes crossing the address electrodes is formed by a driving waveform including a reset section, an address section, and a sustain discharge section. In the display panel driving method, In the address section, scanning pulses are sequentially applied to the plurality of first electrodes, and address data is applied to the address electrodes. In at least a portion of the address period, the address data applied to the first address electrodes has a first pulse width, and the address data applied to the second address electrodes is different from the first pulse width. And a second pulse width. The method of claim 1, The plasma display panel includes a phosphor having a positive charge characteristic on the first address electrodes, a phosphor having a negative charge characteristic on the second address electrodes, And the first pulse width is smaller than the second pulse width. The method of claim 2, And the first pulse width is 0.01 to 0.03 kHz smaller than the second pulse width. The method of claim 2, The phosphor having positive charge characteristics on the first address electrodes is a red light emitting phosphor, and the phosphor having negative charge characteristics on the second address electrodes is a green light emitting phosphor. The method of claim 2, The plasma display panel further includes third address electrodes, In at least a portion of the address period, the address data applied to the third address electrodes has a third pulse width in a range of more than a first pulse width and less than the second pulse width. Driving method. The method of claim 1, And a bias voltage is applied to the second electrode in the address section. A recording medium on which a program for executing the method of any one of claims 1 to 6 is recorded on a computer.

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