CN101308304A - Display device and pixel structure and driving method thereof - Google Patents

Abstract

The invention provides a display device, a pixel structure and a driving method thereof. The display device comprises a gate driving chip, a first gate line, a second gate line, a first pixel unit and a second pixel unit. The gate driving chip generates a first gate driving signal to be output to the first gate line and generates a second gate driving signal to be output to the second gate line. The first gate driving signal and the second gate driving signal are used for adjusting a first feed-through voltage generated by a first pixel area of the first pixel unit, a second feed-through voltage generated by a second pixel area of the first pixel unit, a third feed-through voltage generated by the first pixel area of the second pixel unit and a fourth feed-through voltage generated by the second pixel area of the second pixel unit. The purpose of providing two feed-through voltages with different magnitudes in a single pixel is achieved by using the original number of gate lines and data lines in the display device, the color cast phenomenon with large viewing angle can be solved, and the aperture ratio of the display device can be kept without being reduced.

Description

Display device, pixel structure and driving method thereof

technical field

The present invention relates to a display device and its pixel structure and driving method; more precisely, the present invention relates to a display device with low color washout and its pixel structure and driving method.

Background technique

With the advancement of science and technology, various electronic products have become an indispensable part of people's lives, and displays are important components of multimedia electronic products. Because liquid crystal display (liquid crystal display; LCD) has the advantages of power saving, no radiation, small size, low power consumption, no space, right angle plane, high resolution and stable image quality, it has gradually replaced the traditional cathode A ray tube display (cathoderay tube display; CRT display) has been widely used in mobile phones, screens, digital TVs, notebook computers and other electronic products for display purposes.

When a user views a traditional liquid crystal display from different viewing angles, the naked eye will obviously perceive different brightness due to the different phase difference values of different viewing angles. What's more, users will find the phenomenon of gray scale inversion.

In order to solve the above problems, the industry has developed a variety of technologies to increase the viewing angle to avoid the phenomenon of grayscale inversion in traditional liquid crystal displays, one of which is the multidomain vertical alignment (MVA) technology. The multi-area vertical alignment technology is mainly to separate the liquid crystal material in the liquid crystal display into multiple alignment areas, so that the liquid crystal materials in different alignment areas present a mutually compensating arrangement, so that users can enjoy different viewing angles under different viewing angles. The same phase difference value can be seen, thereby expanding the viewing angle range to avoid gray scale inversion phenomenon.

However, although the multi-domain vertical alignment technology has the advantages of high contrast and wide viewing angle, this technology also has some disadvantages, one of which is that when users watch the liquid crystal display using the multi-domain vertical alignment technology at a large viewing angle, they will feel To the defect of color cast. The generation of color shift is caused by the difference in the transmittance of the liquid crystal molecules of the display due to the difference in the conduction voltage when the viewing angle of the user changes. Therefore, the specific color originally seen by the naked eye of the user will be washed out when the viewing angle increases.

To sum up, although the use of multi-region vertical alignment technology can obtain liquid crystal displays with high contrast and wide viewing angles, thereby greatly improving the user experience, the large viewing angle shift phenomenon has always been an important issue that needs to be improved. Low color shift technology will be a necessary condition for liquid crystal displays to attack the large-size panel market in the future. In view of this, how to improve the problem of large-screen role bias has become one of the urgent problems to be solved.

Contents of the invention

An object of the present invention is to provide a pixel structure for a display device having a gate driver chip. This kind of pixel structure includes a first gate line, a second gate line and a pixel unit. The first gate line can receive the first gate driving signal generated by the gate driving chip. The second gate line can receive the second gate driving signal generated by the gate driving chip. The aforementioned pixel unit has a first pixel area and a second pixel area, wherein the first pixel area of the pixel unit is coupled to the first gate line through a first capacitor and a first thin film transistor, and generates a first feedthrough (feedthrough; FT) voltage, the second pixel region of the pixel unit is coupled to the second gate line by the second capacitor, and coupled to the first gate line by a second thin film transistor, and generates a second feedthrough pass voltage. The first feedthrough voltage and the second feedthrough voltage are adjusted according to the first gate driving signal and the second gate driving signal.

Another object of the present invention is to provide a driving method, which is used in the pixel structure mentioned in the preceding paragraph. The driving method of the present invention includes the following steps: when the display device displays a first frame of an image, turn on the first gate line according to the first gate driving signal, so that the first feed-through voltage is greater than the first feed-through voltage Two feed-through voltages; and when the display device displays the second frame of the image, simultaneously turn on the first gate line and the second gate according to the first gate drive signal and the second gate drive signal line so that the second feedthrough voltage is greater than the first feedthrough voltage.

Another object of the present invention is to provide a display device, which includes a gate driver chip, a first gate line, a second gate line, a first pixel unit and a second pixel unit. Both the first pixel unit and the second pixel unit respectively have a first pixel area and a second pixel area. The first pixel area of the first pixel unit is coupled to the first gate line with a first capacitor and a first thin film transistor, and generates a first feed-through voltage; the second pixel area of the first pixel unit is coupled with a second capacitor Coupled with the second gate line, and coupled with the first gate line by a second thin film transistor to generate a second feed-through voltage; the first pixel area of the second pixel unit is connected to the second gate line by the third capacitor The gate line is coupled, and a third thin film transistor is coupled to the first gate line to generate a third feedthrough voltage; the second pixel area of the second pixel unit is connected by a fourth capacitor and a fourth thin film transistor It is coupled with the first gate line and generates a fourth feedthrough voltage. The first feedthrough voltage, the second feedthrough voltage, the third feedthrough voltage and the fourth feedthrough voltage are adjusted according to the first gate driving signal and the second gate driving signal respectively.

Another object of the present invention is to provide a driving method, which is used in the display device mentioned in the preceding paragraph. The driving method of the present invention includes the following steps: when the display device displays a first frame of an image, turn on the first gate line according to the first gate driving signal, so that the first feed-through voltage is greater than the first feed-through voltage Two feedthrough voltages, and the fourth feedthrough voltage is greater than the third feedthrough voltage; and when the display device displays the second frame of the image, according to the first gate drive signal and the second gate drive signal The first gate line and the second gate line are turned on at the same time, so that the second feed-through voltage is greater than the first feed-through voltage, and the third feed-through voltage is greater than the fourth feed-through voltage.

The present invention does not need to increase the feedthrough voltage of the gate line and the display device. In other words, the present invention can only use the original number of gate lines and data lines in the display device, that is, to achieve the purpose of providing two different feed-through voltages in a single pixel. Therefore, the large viewing angle deviation phenomenon can be solved smoothly, and because the number of gate lines and data lines does not increase, the aperture ratio of the display device is also maintained without decreasing.

Description of drawings

1 is a schematic diagram of a display device of the present invention;

2 is a schematic diagram of a two-pixel unit in a display device of the present invention;

FIG. 3A is a waveform diagram of a gate driving signal for displaying a first frame;

FIG. 3B is a waveform diagram of a gate driving signal for displaying a second frame;

FIG. 4A is a schematic diagram of a voltage waveform of a first pixel unit;

FIG. 4B is a schematic diagram of a voltage waveform of a second pixel unit; and

FIG. 5 is a flow chart of the driving method of the display device of the present invention.

Figure number:

1: Display device 10: Display panel

11: Gate driver chip 13: Source driver chip

111, 112, ..., 11m: grid lines

121, 122, ..., 12m: gate drive signal

131, 132, ..., 13n: data lines

141, 142: first polarity data signal/second polarity data signal

151: The first pixel unit 153: The second pixel unit

1300: The first gamma value of positive polarity 1301: Gamma value storage unit

1302: The first gamma value of negative polarity 1303: The first switching unit

1304: The second gamma value of positive polarity 1305: The second switching unit

1306: Negative second gamma value

151a: the first pixel area of the first pixel unit

151b: the second pixel area of the first pixel unit

153a: the first pixel area of the second pixel unit

153b: the second pixel area of the second pixel unit

1511: the first capacitor 1513: the second capacitor

1515: The first thin film transistor 1517: The second thin film transistor

1531: The third capacitor 1533: The fourth capacitor

1535: The third thin film transistor 1537: The fourth thin film transistor

30, 32: time period 411, 413: first feedthrough voltage

412, 414: second feedthrough voltage 421, 423: third feedthrough voltage

422, 424: the fourth feedthrough voltage

Detailed ways

After referring to the drawings and the implementations described later, those skilled in the art can understand other objectives and advantages of the present invention, as well as the technical means and implementation aspects of the present invention.

The content of the present invention will be explained by the following examples; however, the examples of the present invention are not intended to limit the present invention to be implemented in any environment, application or special manner as described in the examples. Therefore, the descriptions about the embodiments are only for the purpose of explaining the present invention rather than limiting the present invention. In the following embodiments and drawings, elements not directly related to the present invention are omitted and not shown.

FIG. 1 is a schematic diagram of a preferred embodiment of the display device of the present invention. The display device 1 can be the following flat panel displays: Organic Light-Emitting Diodes Display (OLED), Plasma Display Panel (PDP), Liquid Crystal Display (LCD) and Field Emission Display ( Field Emission Display; FED), etc. In this embodiment, the display device 1 is a liquid crystal display using a dot inversion driving method. The display device 1 includes a display panel 10, a gate driver chip 11, a source driver chip 13, m parallel gate lines (111, 112, ..., 11m), and n parallel data lines (131, 132 ,...,13n), where m and n are both positive integers. The display panel 10 includes a plurality of pixel units; for the sake of brevity, only the first pixel unit 151 and the second pixel unit 153 are marked in this embodiment. The source driver chip 11 is electrically connected to the gate lines 111, 112, . ..., 11m. The source driver chip 13 is electrically connected to the data lines 131 , 132 , .

FIG. 2 is a schematic diagram illustrating the connection relationship between the first pixel unit and the second pixel unit, the gate driver chip and the source driver chip of the display device according to an embodiment of the present invention. The operation and function of the first pixel unit and the second pixel unit of the display device of the present invention will be described in detail below with reference to FIG. 2 . At the same time, for the sake of simplicity, in FIG. 2, only the first gate lines 111, the second gate lines 112, the first data lines 131 and the second data lines 132 represent the m gate lines and the n gate lines of the display device 1. data lines. Similarly, in FIG. 2 , only the first gate drive signal 121 , the second gate drive signal 122 , the first polarity data signal 141 and the second polarity data signal 142 represent a plurality of gates of the display device 1 . polar drive signal and polar data signal.

The first pixel unit 151 includes a first pixel region 151a, a second pixel region 151b, a first capacitor 1511, a second capacitor 1513, a first thin film transistor (Thin Film Transistor; TFT) 1515 and a second thin film transistor 1517. The first pixel region 151 a of the first pixel unit 151 is coupled to the first gate line 111 through the first capacitor 1511 , and coupled to the first gate line 111 and the first data line 131 through the first thin film transistor 1515 . The second pixel region 151 b of the first pixel unit 151 is coupled to the second gate line 112 through the second capacitor 1513 ; and is also coupled to the first gate line 111 and the first data line 131 through the second thin film transistor 1517 .

The second pixel unit 153 also includes a first pixel region 153 a, a second pixel region 153 b, a third capacitor 1531 , a fourth capacitor 1533 , a third thin film transistor 1535 and a fourth thin film transistor 1537 . The first pixel region 153 a of the second pixel unit 153 is coupled to the second gate line 112 through the third capacitor 1531 ; and is coupled to the first gate line 111 and the second data line 132 through the third thin film transistor 1535 . The second pixel region 153 b of the second pixel unit 153 is coupled to the first gate line 111 through the fourth capacitor 1533 ; and is also coupled to the first gate line 111 and the second data line 132 through the fourth thin film transistor 1537 .

The first capacitor 1511, the second capacitor 1513, the third capacitor 1531 and the fourth capacitor 1533 all have a capacitance value, wherein the capacitance value of the first capacitor 1511 is smaller than the capacitance value of the second capacitor 1513; the capacitance value of the fourth capacitor 1533 is smaller than The capacitance value of the third capacitor 1531 .

The source driver chip 13 includes a gamma value storage unit 1301 , a first switching unit 1303 and a second switching unit 1305 . The gamma value storage unit 1301 stores a positive first gamma value 1300 , a negative first gamma value 1302 , a positive second gamma value 1304 and a negative second gamma value 1306 . Since the display device 1 of this embodiment is a liquid crystal display using a dot inversion driving method, the first polarity data signal 141 and the second polarity data signal 142 will be alternately output to the first data line 131 and the second polarity data line. Data line 132. At the same time, since the display panel 10 has two pixel units with different pixel structures (namely, the first pixel unit 151 and the second pixel unit 153), and the pixel units with these two different pixel structures pass through the first data line 131 and the second pixel unit respectively. The two data lines 132 alternately receive the first polarity data signal 141 and the second polarity data signal 142; therefore, the gamma value storage unit 1301 outputs the positive polarity first gamma value 1300, the negative polarity first gamma value 1302, and the positive polarity respectively. The polarity second gamma value 1304 and the negative polarity second gamma value 1306 enable the first pixel unit 151 and the second pixel unit 153 to have the same and optimized display performance.

When the display device 1 displays the first frame of the image, the first data line 131 will receive the first polarity data signal 141 with a positive polarity first gamma value 1300 through the first switching unit 1303; meanwhile, the second data line 132 A second polarity data signal 142 with a negative polarity second gamma value 1306 will be received through the second switching unit 1305 . When the display device 1 displays the second picture of the image, the first data line 131 will receive the second polarity data signal 142 with the first gamma value 1302 of negative polarity through the first switching unit 1303; 132 will receive the first polarity data signal 141 with the second gamma value 1304 of positive polarity through the second switching unit 1305 .

In a preferred embodiment, the first polarity data signal 141 and the second polarity data signal 142 are mutually inverse signals, that is, when the first polarity data signal 141 is a positive polarity data signal, the second polarity data signal The signal 142 is a negative polarity data signal; or when the first polarity data signal 141 is a negative polarity data signal, the second polarity data signal 142 is a positive polarity data signal. Through the foregoing description, those skilled in the art should be able to understand the switching methods of the positive first gamma value 1300, the negative first gamma value 1302, the positive second gamma value 1304, and the negative second gamma value 1306, so here No longer.

As mentioned above, when the display device 1 displays the first image frame, the gate driving chip 11 will output the first gate driving signal 121 and the second gate driving signal 122 as shown in FIG. 3A . At this time, the first pixel unit 151 will receive the first polarity data signal 141 with a positive polarity first gamma value 1300 through the first data line 131; The second polarity data signal 142 has a negative polarity second gamma value 1306 .

Please refer to FIG. 4A and FIG. 4B together. FIG. 4A is a schematic diagram of the voltage waveform of the first pixel unit 151 when the display device 1 displays the first frame and the second frame of the image; FIG. 4B is a schematic diagram of the voltage waveform of the display device 1 displaying the image. A schematic diagram of the voltage waveform of the second pixel unit 153 in the first frame and the second frame. In the time period 30 , the first gate driving signal 121 will simultaneously turn on the first TFT 1515 , the second TFT 1517 , the third TFT 1535 and the fourth TFT 1537 . At this time, the first pixel region 151a of the first pixel unit 151 will be charged through the first data line 131 through the first thin film transistor 1515, and at the same time, due to the change of the first gate driving signal 121, the first pixel region 151a of the first pixel unit 151 will A pixel region 151a and the first capacitor 1511 coupled to the first gate line 111 will cause the internal voltage of the first pixel region 151a to change.

Accordingly, the first pixel region 151a of the first pixel unit 151 will generate the first feed-through voltage 411; and the second pixel region 151b of the first pixel unit 151 will be charged through the first data line 131 through the second thin film transistor 1517, Furthermore, the second pixel region 151 b of the first pixel unit 151 generates a second feedthrough voltage 412 .

Similarly, when the display device 1 displays the first frame of an image, the first pixel region 153a of the second pixel unit 153 will be charged through the third thin film transistor 1535 through the second data line 132, and then the first pixel region 153a of the second pixel unit 153 will be charged. The pixel region 153a generates a third feed-through voltage 421; and its second pixel region 153b will be charged through the fourth thin film transistor 1537 through the second data line 132, and at the same time, due to the change of the first gate drive signal 121, and the second The second pixel region 153b of the pixel unit 153 and the fourth capacitor 1533 coupled to the first gate line 111 will cause the internal voltage of the second pixel region 153b to change, accordingly, the second pixel region 153b of the second pixel unit 153 will A fourth feedthrough voltage 422 is generated.

When the display device 1 displays the first frame of an image, due to the charging of the first pixel region 151a of the first pixel unit 151 through the first thin film transistor 1515, and at the same time, due to the change of the first gate driving signal 121, the first pixel The first pixel region 151a of the unit 151 and the first capacitor 1511 coupled to the first gate line 111 will cause the internal voltage of the first pixel region 151a to change, while the second pixel region 151b of the unit 151 is only charged through the second thin film transistor 1517 . Therefore, the first feedthrough voltage 411 of the first pixel unit 151 will be greater than the second feedthrough voltage 412 . And because the second pixel region 153b of the second pixel unit 153 is charged by the fourth thin film transistor 1537 at the same time, and at the same time, due to the change of the first gate driving signal 121, the second pixel region 153b and the second pixel region 153b of the second pixel unit 153 and the second The fourth capacitor 1533 coupled to a gate line 111 will cause the internal voltage of the second pixel region 153b to change, while the first pixel region 153a thereof is only charged through the third thin film transistor 1535 . Therefore, the fourth feedthrough voltage 422 of the second pixel unit 153 will be greater than the third feedthrough voltage 421 .

When the display device 1 displays the second image frame, the gate driving chip 11 will output the first gate driving signal 121 and the second gate driving signal 122 as shown in FIG. 3B . At this time, the first pixel unit 151 will receive the second polarity data signal 142 with the first gamma value 1302 of negative polarity through the first data line 131; A first polarity data signal 141 having a positive polarity second gamma value 1304 . During the time period 32 , the first gate driving signal 121 turns on the first TFT 1515 , the second TFT 1517 , the third TFT 1535 and the fourth TFT 1537 at the same time. At this time, the first pixel region 151a of the first pixel unit 151 will be charged through the first data line 131 through the first thin film transistor 1515, and at the same time, due to the change of the first gate driving signal 121, the first pixel region 151a of the first pixel unit 151 will A pixel region 151a and the first capacitor 1511 coupled to the first gate line 111 will cause the internal voltage of the first pixel region 151a to change.

Accordingly, the first pixel region 151a of the first pixel unit 151 will generate another first feed-through voltage 413; and the second pixel region 151b of the first pixel unit 151 will pass through the first data line 131 At the same time, due to the change of the second gate driving signal 122, the second capacitor 1513 coupled with the second pixel region 151b of the first pixel unit 151 and the second gate line 112 will cause the inner part of the second pixel region 151b to The voltage changes, and accordingly, the second pixel region 151 b of the first pixel unit 151 will generate another second feedthrough voltage 414 .

When the display device 1 displays the second picture of the image, the first pixel region 153a of the second pixel unit 153 will be charged through the third thin film transistor 1535 through the second data line 132, and at the same time, due to the change of the second gate driving signal 122, The third capacitor 1531 coupled to the first pixel region 153a of the second pixel unit 153 and the second gate line 112 will cause the internal voltage of the first pixel region 153a to change, thereby making the second pixel unit 153 A pixel region 153a generates another third feed-through voltage 423; and its second pixel region 153b will be charged through the second data line 132 through the fourth thin film transistor 1537, and at the same time, due to the change of the first gate drive signal 121, and The second pixel region 153b of the second pixel unit 153 and the fourth capacitor 1533 coupled to the first gate line 111 will cause the internal voltage of the second pixel region 153b to change. Accordingly, the second pixel region 153 of the second pixel unit 153 153b will generate another fourth feedthrough voltage 424 .

When the display device 1 displays the second picture of the image, the first pixel region 151a of the first pixel unit 151 is charged by the first thin film transistor 1515 at the same time, and at the same time, due to the change of the first gate driving signal 121, the first pixel region 151a The first pixel region 151a of the unit 151 and the first capacitor 1511 coupled to the first gate line 111 will cause the internal voltage of the first pixel region 151a to change, and the second pixel region 151b of the unit 151 will also pass through the voltage of the second thin film transistor 1517 at the same time. At the same time, due to the change of the second gate driving signal 122, the second capacitor 1513 coupled with the second pixel region 151b of the first pixel unit 151 and the second gate line 112 will cause the inner part of the second pixel region 151b to voltage changes. Since the capacitance of the first capacitor 1511 is smaller than the capacitance of the second capacitor 1513 , accordingly, the second feedthrough voltage 422 of the first pixel unit 151 will be greater than the first feedthrough voltage 421 .

In addition, because the second pixel region 153b of the second pixel unit 153 is charged by the fourth thin film transistor 1537 at the same time, and at the same time, due to the change of the first gate driving signal 121, the second pixel region 153b of the second pixel unit 153 and the The fourth capacitor 1533 coupled to the first gate line 111 will cause the internal voltage of the second pixel region 153b to change, and the first pixel region 153a will also be charged by the third thin film transistor 1535 at the same time. The change of the driving signal 122, the third capacitor 1531 coupled to the first pixel region 153a of the second pixel unit 153 and the second gate line 112 will cause the internal voltage of the first pixel region 153a to change. Because the capacitance of the fourth capacitor 1533 is smaller than the capacitance of the third capacitor 1531 , accordingly, the third feedthrough voltage 423 of the second pixel unit 153 will be greater than the fourth feedthrough voltage 424 .

The present invention is not limited to the liquid crystal display using the dot inversion driving method, although this embodiment only illustrates the operation and function of the first pixel unit 151 and the second pixel unit 153 under the dot inversion driving method. However, those skilled in the art can know the operation and function of the first pixel unit 151 and the second pixel unit 153 under the row inversion (column inversion) driving method or other types of driving methods through the description in the preceding paragraph, so I won't repeat them here.

The driving process used in the display device 1 mentioned in the preceding paragraph is shown in FIG. 5 . First, step 501 is executed to provide a first polarity data signal and a second polarity data signal. Then execute step 503, when the display device displays the first frame of the image, turn on the first gate line according to the first gate drive signal, so that the first feedthrough voltage is greater than the second feedthrough voltage, and the fourth feedthrough The voltage is greater than the third feedthrough voltage. Finally, step 505 is executed, when the display device displays the second frame of the image, the first gate line and the second gate line are simultaneously turned on according to the first gate driving signal and the second gate driving signal, so that the second The feedthrough voltage is greater than the first feedthrough voltage, and the third feedthrough voltage is greater than the fourth feedthrough voltage.

Since the display device 1 is a liquid crystal display using a dot inversion driving method, the first polarity data signal and the second polarity data signal provided in step 501 will be output alternately, and the first frame and the second frame of the image That is, it is displayed by the first polarity data signal and the second polarity data signal which are alternately output.

In addition to the above-mentioned steps, the driving process of the display device to display images can also perform all the operations and functions described in the display device 1 of the present invention described in the preceding paragraph. Those skilled in the art can understand how the process shown in FIG. 5 is based on the above-mentioned process of the present invention. The display device 1 is used to perform these operations and functions, so details will not be repeated here.

To sum up, the display device disclosed in the present invention can provide two different feed-through voltages in a single pixel unit without increasing the number of gate lines and data lines. In other words, the display device disclosed in the present invention can provide two feed-through voltages of different magnitudes to a single pixel by only using the original number of gate lines and data lines. Therefore, the known large viewing angle deviation phenomenon of the liquid crystal display can be solved smoothly. Since the number of gate lines and data lines does not increase, the aperture ratio of the display device of the present invention is also kept without decreasing.

The above-mentioned embodiments are only used to illustrate the implementation of the present invention and explain the technical features of the present invention, and are not intended to limit the scope of protection of the present invention. Any changes or equivalence arrangements that can be easily accomplished by those skilled in the art belong to the scope of the present invention, and the scope of rights of the present invention should be determined by the claims.

Claims (21)

1. A pixel structure for a display device, characterized in that the display device has a gate driver chip, and the pixel structure comprises: a first gate line, receiving a first gate drive signal generated by the gate drive chip; a second gate line, receiving a second gate drive signal generated by the gate drive chip; and A pixel unit with: a first pixel region, coupled to the first gate line by a first capacitor and a first thin film transistor, and generating a first feed-through voltage; and a second pixel region, coupled to the second gate line by a second capacitor, and coupled to the first gate line by a second thin film transistor, and generating a second feed-through voltage; Wherein, the first feed-through voltage and the second feed-through voltage are adjusted according to the first gate driving signal and the second gate driving signal. 2. The pixel structure according to claim 1, wherein the display device has a source driver chip coupled to the pixel structure, wherein when the source driver chip outputs a first polarity data When the signal is sent to the pixel structure, the first gate driving signal adjusts the first feedthrough voltage through the first thin film transistor and the first capacitor, and the first gate driving signal passes through the first The two thin film transistors adjust the second feed-through voltage so that the first feed-through voltage is greater than the second feed-through voltage. 3. The pixel structure according to claim 2, wherein when the source driving chip outputs a second polarity data signal to the pixel structure, the first gate driving signal passes through the The first thin film transistor and the first capacitor adjust the first feedthrough voltage, the first gate drive signal adjusts the second feedthrough voltage through the second thin film transistor, and the second gate The pole driving signal adjusts the second feedthrough voltage through the second capacitor so that the second feedthrough voltage is greater than the first feedthrough voltage. 4. The pixel structure according to claim 3, wherein the first polarity data signal and the second polarity data signal are opposite to each other. 5. The pixel structure according to claim 1, wherein the capacitance of the first capacitor is smaller than the capacitance of the second capacitor. 6. A driving method suitable for driving the pixel structure according to claim 1, characterized in that the driving method comprises the following steps: When the display device displays a first frame of an image, the first gate line is turned on according to the first gate drive signal, so that the first feed-through voltage is greater than the second feed-through voltage ;as well as When the display device displays the second frame of the image, the first gate line and the second gate are simultaneously turned on according to the first gate drive signal and the second gate drive signal line so that the second feedthrough voltage is greater than the first feedthrough voltage. 7. driving method as claimed in claim 6 is characterized in that, described driving method further comprises the following steps: outputting a first polarity data signal; and The first frame of the image is displayed through the first polarity data signal. 8. driving method as claimed in claim 7 is characterized in that, described driving method further comprises the following steps: outputting a second polarity data signal; and The second frame of the image is displayed through the second polarity data signal. 9. The driving method according to claim 8, wherein the first polarity data signal and the second polarity data signal are opposite to each other. 10. A display device, characterized in that the display device comprises: A gate drive chip, used to generate a first gate drive signal and a second gate drive signal; a first gate line, receiving the first gate driving signal; a second gate line, receiving the second gate driving signal; A first pixel unit having: a first pixel region, coupled to the first gate line by a first capacitor and a first thin film transistor, and generating a first feed-through voltage; and a second pixel region, coupled to the second gate line by a second capacitor, and coupled to the first gate line by a second thin film transistor, and generating a second feedthrough voltage; and A second pixel unit having: a first pixel region, coupled to the second gate line by a third capacitor, and coupled to the first gate line by a third thin film transistor, and generating a third feedthrough voltage; and a second pixel region, coupled to the first gate line by a fourth capacitor and a fourth thin film transistor, and generating a fourth feed-through voltage; Wherein, the first feedthrough voltage, the second feedthrough voltage, the third feedthrough voltage and the fourth feedthrough voltage are respectively based on the first gate drive signal and the second gate The drive signal is adjusted. 11. The display device according to claim 10, wherein the display device further comprises a source driver chip coupled to the first pixel unit and the second pixel unit, wherein when the source When the pole driver chip outputs a first polarity data signal to the first pixel unit and a second polarity data signal to the second pixel unit, the first gate drive signal passes through the first The thin film transistor and the first capacitor adjust the first feedthrough voltage, and the first gate drive signal adjusts the second feedthrough voltage through the second thin film transistor, so that the first feedthrough voltage greater than the second feedthrough voltage, the first gate drive signal is adjusted through the third thin film transistor to adjust the third feedthrough voltage, the first gate drive signal is through the fourth thin film transistor And the fourth capacitor adjusts the fourth feedthrough voltage so that the fourth feedthrough voltage is greater than the third feedthrough voltage. 12. The display device according to claim 11, wherein when the source driver chip outputs the first polarity data signal to the second pixel unit and outputs the second polarity data signal to For the first pixel unit, the first gate driving signal is adjusted through the first thin film transistor and the first capacitor to adjust the first feed-through voltage, and the first gate driving signal is passed through the The second thin film transistor adjusts the second feedthrough voltage, and at the same time, the second gate drive signal adjusts the second feedthrough voltage through the second capacitor, so that the second feedthrough voltage is greater than the set The first feedthrough voltage, the first gate drive signal is adjusted by the third thin film transistor, and the second gate drive signal is adjusted by the third capacitor The third feedthrough voltage, the first gate drive signal adjusts the fourth feedthrough voltage through the fourth thin film transistor and the fourth capacitor, so that the third feedthrough voltage is greater than the Fourth feedthrough voltage. 13. The display device as claimed in claim 12, wherein the first polarity data signal and the second polarity data signal are opposite to each other. 14. The display device according to claim 12, wherein the source driver chip comprises a gamma value storage unit for storing a first positive gamma value, a first negative gamma value, a first gamma value, and a first negative gamma value. Two positive polarity gamma values and a second negative polarity gamma value, wherein when the source driver chip outputs the first polarity data signal to the first pixel unit and outputs the second polarity data signal to the first pixel unit For the second pixel unit, the first polarity data signal is input to the first pixel unit according to the first positive polarity gamma value, and the second polarity data signal is input according to the second negative polarity gamma value values are input to the second pixel cell such that the first feedthrough voltage is equal to the third feedthrough voltage and the second feedthrough voltage is equal to the fourth feedthrough voltage. 15. The display device according to claim 14, wherein when the source driver chip outputs the first polarity data signal to the second pixel unit and outputs the second polarity data signal to For the first pixel unit, the first polarity data signal is input to the second pixel unit according to the second positive polarity gamma value, and the second polarity data signal is input according to the first negative polarity A gamma value is input to the first pixel unit such that the first feedthrough voltage is equal to the third feedthrough voltage, and the second feedthrough voltage is equal to the fourth feedthrough voltage. 16. The display device according to claim 10, wherein a capacitance value of the first capacitor is smaller than a capacitance value of the second capacitor, and a capacitance value of the fourth capacitor is smaller than that of the first capacitor. One capacitance value of three capacitors. 17. A driving method suitable for driving the display device according to claim 10, characterized in that the driving method comprises the following steps: When the display device displays a first frame of an image, the first gate line is turned on according to the first gate drive signal, so that the first feedthrough voltage is greater than the second feedthrough voltage voltage, and the fourth feedthrough voltage is greater than the third feedthrough voltage; and When the display device displays a second frame of the image, the first gate line and the second gate are simultaneously turned on according to the first gate drive signal and the second gate drive signal pole line, so that the second feedthrough voltage is greater than the first feedthrough voltage, and the third feedthrough voltage is greater than the fourth feedthrough voltage. 18. The driving method according to claim 17, wherein the driving method further comprises the following steps: Outputting a first polarity data signal and a second polarity data signal; Wherein, the first frame of the image is displayed through the first polarity data signal received by the first pixel unit and the second polarity data signal received by the second pixel unit. 19. The driving method according to claim 18, wherein the first polarity data signal and the second polarity data signal are opposite to each other. 20. The driving method according to claim 17, wherein the driving method further comprises the following steps: Outputting a first polarity data signal and a second polarity data signal; Wherein, the second frame of the image is displayed through the second polarity data signal received by the first pixel unit and the first polarity data signal received by the second pixel unit. 21. The driving method as claimed in claim 20, wherein the first polarity data signal and the second polarity data signal are opposite to each other.

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