TW200827889A - Liquid crystal display panel, liquid crystal display and driving method thereof - Google Patents

Abstract

A liquid crystal display panel, a liquid crystal display and a driving method thereof. The liquid crystal display panel comprises a data line, a first scanning line, a second scanning line and a pixel, and the second scanning line is next to the first scanning line. The pixel comprises a first sub-pixel, a second sub-pixel, a third switch, an auxiliary capacitance and a feedback capacitance, and the first sub-pixel and the second sub-pixel respectively comprises a first switch and a second switch. Input therminals of the first switch and the second switch are coupled to the data line, and control therminals of the first switch and the second switch are coupled to the first scanning line. An output therminal of the third switch is coupled to a commom electrode via the auxiliary capacitance, and the output therminal of the third switch is coupled to an output therminal of the first switch.

Description

200827889^ 3280PA IX. Description of the Invention: [Technical Field] The present invention relates to a liquid crystal display panel, a liquid crystal display, and a driving method thereof, and more particularly to a low color shift liquid crystal display panel, a liquid crystal display and the same Drive method. [Prior Art] Since the incident light of different angles is in the liquid crystal layer, the phase difference (Retardation) is different. Therefore, when the observation angle is different, the deflection coefficient of the light 'is different, resulting in the transmittance. Not the same. Therefore, different viewing angles will cause the brightness of the displayed light to be different. When different color lights (such as red light, green light, and blue light) are mixed in different brightness ratios in front view and side view, a color shift phenomenon (Color Shift) of different colors displayed in front view and side view is generated. In order to improve the color shift of the liquid crystal display, the conventional method is to divide a morpheme into two sub-vedins, each of which is controlled by a thin film transistor, so that a slightly different halogen voltage can be separately supplied to Two sub-vegetarians of the same element to improve color shift. The equivalent circuit diagram of the traditional element is shown in Fig. 1, which shows the equivalent circuit diagram of the traditional element. The conventional halogen element 110 includes a first sub-tenoxine 112, a second sub-halogen 114, an auxiliary electrode M1, and a thin film transistor TFT3. The parasitic capacitance C 〇 D3 is formed between the gate and the drain of the thin film transistor TFT 3, and the thin film transistor TFT 3 6

The drain of the 200827889^3 280PA is coupled to the auxiliary electrode M1. Auxiliary + CE forms a supplementary capacitance Q, and is common; _ and the common electrode is v_ ' and the voltage of the electric current across the auxiliary capacitor Cs is further included in the film: - poor: :c S. Electrode IT01. The thin film transistor TFT1 is formed on the film, and the first halogen electrode is added to the first halogen element to form the first liquid crystal capacitor CLC1 and the first storage electrode is formed between the film and the CGD1#. The transistor TFT1 ST1 can generate a capacitance Chu-working gold main idle pole and the pole between the zero once the 114 further includes the thin film transistor TFT2 and the second detector electrode. The thin film transistor TFT2 has the electrode No. IT02, and the second halogen electrode is ordered to be the same as the first element, t^ cLC2., Γ4" CGD2 is formed in the _ crystal tft2^s: = the biocapacitor film TFT1 and TFT2 The source is reduced to the data line 120, and the thin film transistor and the gate of the coffee are connected to the first scan line! 30(8), and the thin film transistor Tm is connected to the source of the thin film transistor TFT3. The gate of the crystal TFT 3 is lightly connected to the second scan line 130 (n+1). The second scan line l30 (n+1) is a scan line adjacent to the first scan line 13 〇 (8). After the next scan signal S(n+1) is enabled, the voltage difference Vlc2 across the second liquid crystal capacitor Clc2 will be smaller than the voltage difference vlci across the liquid crystal cell CLci, so that the second sub-halogen 114 is worn. The transmittance is lower than that of the first sub-stimulus 112, and the effect of low color shift (Low Color Shift) is achieved.

200827889W32SOPA Dream Passing A Emperor Su Dong a The painting is traditional

Please refer to Fig. 2, which shows that the feedthrough effect caused by the v capacitor CGD3 will change to between first time and time t to t2. Based on the same working principle, the polarity of the first halogen electrode IT01 and the second halogen electrode ΙΤ02 is reversed. 'Traditional 昼素ι1〇 is between time t5 and t6, and VLC1 and VLC2 are slowly increased due to the capacitance charging effect. For (V5-VC〇m). Then, at time Ϊ6, VLC1 and VLC2 are increased to (V2-V_) due to the feedthrough effect caused by the parasitic capacitance CGD1 & CGD2, respectively. Following time t7, VLC2 will be reduced to (ν7-ν_〇) due to the charge sharing effect of the auxiliary capacitor Cs. Then at time ts, VLC2 will change to (V8) due to the feedthrough effect caused by the parasitic capacitance CGD3. -VC()m) This shows that the voltage difference VLC2 across the second liquid crystal capacitor cLC2 is less than the voltage difference VLC1 across the first liquid crystal capacitor CLC1 during the time (between 3 and 丨5 and between times t7 and t9). Therefore, the transmittance of the second sub-halogen 114 will be lower than that of the first sub-halogen 112, and the effect of low color shift (Low Color Shift) is achieved. However, since the transmittance of the second sub-halogen H4 is lower than The first sub-stimulus 112, therefore, will cause the overall transmittance of the conventional alizarin 110 to decrease, 8

200827889 W3280PA ^ The overall brightness of the LCD monitor is reduced, which affects the quality of the face. SUMMARY OF THE INVENTION In view of the above, an object of the present invention is to provide a liquid crystal display panel, a liquid crystal display, and a driving method thereof. A feedback capacitor is formed between the first pixel electrode and the auxiliary electrode, and the voltage difference between the first liquid crystal capacitor is increased by the feedback capacitor to improve the overall transmittance of the pixel, thereby improving the overall brightness of the liquid crystal display.

C According to the purpose of the present invention, a liquid crystal display panel is proposed. The liquid crystal display panel includes a data line, a first scan line, a second scan line, and a halogen, and the second scan line is a scan line adjacent to the first scan line. The halogen element includes a first sub-tendin, a second sub-tendin, a third switch, an auxiliary capacitor, and a feedback capacitor, and the first sub-element and the second sub-element include a first switch and a second switch, respectively. The first switch has a first input, a first controlled end and a first output, and the second switch has a second input, a second controlled end and a second output. The first input end and the second input end are coupled to the data line, and the first controlled end and the second controlled end are coupled to the first scan line. The first output is coupled to the third output via a feedback capacitor, and the third output is coupled to a common electrode via the auxiliary capacitor. Since the feedback capacitor is formed between the first output terminal and the third output terminal, the overall transmittance of the pixel is improved, thereby improving the overall brightness of the liquid crystal display. 9

According to another object of the present invention, a liquid crystal display is proposed. The liquid crystal display device includes a liquid crystal display panel, a scan driver and a data drive crying, and the liquid crystal I member display panel includes a data line, a first scan line, a second scan line 2, and a second scan line system and a first scan. The scan line is connected to the scan driver, and the data line is coupled to the data driver. The enthalpy includes a first sub-halogen, a second sub-halogen, a third switch, an auxiliary valley, and a feedback capacitor, and the first sub-element and the second sub-element include a first switch and a second switch, respectively. The first switch has a first input, a first controlled = and a first output, and the second switch has a second input, a second controlled end and a second output. The first input end and the second input end are coupled to the data line, and the first ... h and the second control end are connected to the scan line. The first output terminal is coupled to the third output terminal, and the third output terminal is coupled to a common electrode via the auxiliary. ί \ Since the feedback capacitor is formed at the first output terminal and the third output terminal 2', the overall transmittance of the pixel is increased, thereby improving the overall picture brightness of the liquid crystal display. According to still another object of the present invention, a driving method of a liquid crystal display is proposed. The liquid crystal display comprises a liquid crystal display panel, and the liquid crystal display panel comprises a body line, a first scan line, a disciple line and a pixel. The pixel includes at least a first sub-element and a second sub-element, and the first sub-element and the second sub-element include a first switch and a second switch.

200827889^ 3280PA - The driving method comprises the following steps: First, the first switch and the second switch are enabled, the first switch has a first input end, a first controlled end and a first output end, and the second switch has a second input end The second controlled end and the second output end are coupled to the data line, and the first controlled end and the second controlled end are connected to the first scan line. Then, the third switch is enabled, the third switch has a third input end, a third controlled end, and a first three output end, the third input end is coupled to the second output end, and the third controlled end is coupled To the second scan line, the second scan line is a scan line adjacent to the first scan line, and the third output end is coupled via an auxiliary (capacitively coupled to a common electrode, and the third output end is via a The feedback capacitor is coupled to the first output end. Since the feedback capacitor is formed between the first output end and the third output end, the overall transmittance of the pixel is increased, thereby improving the overall brightness of the liquid crystal display. The above described objects, features, and advantages of the present invention will become more apparent and understood from the following description. 3 is a schematic diagram showing a liquid crystal display. The liquid crystal display 20 includes a liquid crystal display panel 30, a data driver 40, and a scan driver 50. The liquid crystal display panel 30 includes a plurality of pixels 310, data lines 320, and scan lines. 330(1) to 330(N). The data driver 40 is coupled to the data 11 200827889, 3280 ΡΛ - line 320, and outputs the corresponding data signals D(1) to D(M) to the pixel 310 via the data line 320. The scan driver 50 Coupling to scan lines 330(1) to 330(N), and outputting scan signals S(1) to S(N) via scan lines 330(1) to 330(N) to sequentially enable each column of pixels 310 The equivalent circuit diagram of the book element is convenient for explanation. The first switch Q1, the second switch Q2 and the third switch Q3 in the following unit 310 are made of thin film transistors (Thin Film r.. Transistor, TFT). For example, the first to third inputs of each switch

I is illustrated by the source example, and the first to third controlled ends are illustrated by a gate example, and the first to third output terminals are illustrated by way of example. Referring to Figure 4, there is shown an equivalent circuit diagram of a halogen in accordance with a preferred embodiment of the present invention. The halogen element 310 includes a first sub-halogen 312, a second sub-halogen 314, an auxiliary electrode M2, and a thin film transistor TFT3. The parasitic capacitance CGD3 is formed between the gate and the drain of the thin film transistor TFT3, and the drain of the thin film transistor TFT3 is coupled to the auxiliary electrode M2. An auxiliary capacitor Cs is formed between the auxiliary electrode ^M2 and the common electrode CE, and the voltage level on the common electrode CE is VCC)m, and the voltage difference across the auxiliary capacitor Cs is Vcs 〇 the first sub-element 312 The first switch Q1 and the first halogen electrode IT01 are further included. The first pole of the first switch Q1 is coupled to the first halogen electrode IT01, and the feedback capacitor CSP is formed between the first halogen electrode IT01 and the auxiliary electrode M2. A first liquid crystal capacitor CLC1 & a first storage capacitor CST1 is formed between the first pixel electrode IT01 and the common electrode CE, and the parasitic power 12

200827889 W3280PA The capacitance C〇di system is formed in the first switch Q1. IT02. The second switch Q2 has an 系 extreme wheel and a second 电极 element electrode IT02, and the second 昼 ΓΓ〇 electrode ΓΓ〇 2 and the common ^ second 昼 电极 electrode second liquid crystal capacitor CLC2 and the second storage battery, the same electrode CE The system is formed between the gate of the second switch Q2 and the gate 2C and the parasitic capacitance CGE>2 between the first switch Q1 and the second switch Q2: c

320, and the first switch Q1 and the second switch source are coupled to the data line 330 (1) to 33_ - the first closed circuit of the first sweep is connected to the third switch q3 of the scanning Q2 : pole 33G (n) 'and the second switch 第 开关 switch Φ between the extreme marriage to ^ tracing) to 33_ Zhongzhi 知 - know the line 330 (n + 1), the second scan line 33 〇 (four)) The more: the sweep, 33 〇 (n) adjacent to the - sweep line. When the third switch φ is mixed, the voltage difference across the second liquid crystal capacitor % will be less than the voltage difference % across the first liquid crystal $cLC1, so that the transmittance of the second sub-halogen 314 is lower than the first sub-昼312, and achieve the effect of low color shift (LQwC〇i〇r Shift). ^ In order to avoid the charge sharing of the auxiliary capacitor Cs, the feedback capacitance & is formed between the first-, elementary electrode iToi and the auxiliary electrode M2. After the third switch Q3 is induced, the voltage difference across the first liquid crystal capacitor Clci will increase due to feedback, Csp, so that the transmittance of the first sub-halogen 312 corresponds to the same, and the same. Therefore, the overall transmittance of the halogen 310 will be increased, and the overall brightness of the liquid crystal display 20 will be improved. 13 200827889/328〇pa # Please refer back to Figure 5 and Figure 6 for the feedback capacitor. Figure 5 shows the decoration of the electric valley and the auxiliary turtle, and the figure 6 is the fifth picture. In the middle of the AA d surface, the schematic diagram of the table. The third switch Qg is lightly connected to an auxiliary electrode, 2. The auxiliary electrode M2 and the common electrode CE are superposed to form an auxiliary capacitor cs, and the auxiliary electrode M2 is overlapped with the first halogen electrode (1). A storage capacitor CSP is formed. r Wei Suzhi A_ Qingcha Zhao Figure 7, which is a signal waveform diagram of the alizarin. First at time ^ to. Between the voltage difference V]lci across the first liquid crystal capacitor Clci and the voltage difference vLC2 across the second liquid crystal capacitor cLC2, the voltage difference vLC2 across the second liquid crystal capacitor cLC2 is gradually increased to (VrVcc)m) due to the capacitance charging effect. At the time of t2, Vlci and VlC2 are reduced to (V2"*Vcom) due to the feed-through effect caused by the parasitic capacitances CgdI and CGD2, respectively. Following time t3, vLC2 will be reduced from (V2-V_) to (V3_Vc〇m) due to the charge sharing effect of the auxiliary capacitor cs, and VLC1 will be coupled to the first pixel electrode by the feedback capacitor CSP. Between 1 and the auxiliary electrode M2 is increased from (V2_Vc〇m) to (VirVc〇m). Then at time t4, VLC2 is reduced to (V4-Vcom) by the feedthrough effect caused by parasitic capacitance CGD3, and Vlci is reduced from (Vii_Vc〇m) by (Vii_Vc〇m) due to the feedthrough effect caused by parasitic capacitance CGD3. (V12-^ com) 14

200827889 W3280PA Based on the same working principle, after the polarity of the first halogen electrode IT01 and the second halogen electrode IT02 is reversed, the halogen element 310 is between 1:5 and t6, and VLC1 and VLC2 are slowed down due to the capacitor charging effect. The step is increased to (V5-Vc·). Then at time t6, V LC1 and VlC2 are increased to (V6-Vcom) due to the feed-through effect caused by parasitic capacitances CGD1 and CGD2, respectively. When time t7 is followed, VLC2 will be due to the auxiliary capacitor cs. The charge sharing effect is generated and reduced from (v6_Vcc>m) to (V7-Vc(>m), and VLC1 is coupled between the first halogen electrode IT01 and the auxiliary electrode Μ2 by the feedback capacitor CSP. Increased from (VrVcom) to (V13_Vcom). Then at time, Vlc2 will increase from (v^vcom) to (ν8-ν.^^) due to the feedthrough effect caused by parasitic capacitance Cgd3, while Vlci will be parasitic The feedthrough effect caused by the capacitance cG〇3 is increased from (Vi3_Vc(4)) to (Vi4-Vcom) 〇

Since the pixel 310 is between t3 and t5 and between time t7 and t9, the voltage difference u across the second liquid crystal capacitor CLC2 is slightly smaller than the difference Vlci between the two ends of the first liquid crystal capacitor cLC1. The penetration rate of 314 will be lower than that of sub-pixel 312, and the effect of low color shift (L〇wc〇lor shift) is achieved. 0 In order to avoid the reduction of the overall wear of pixels due to the charge sharing effect of the auxiliary capacitor cs. The transmittance, the feedback capacitor Csp is formed between the first-deuterium electrode plus 1 and the auxiliary electrode M2, and since the wire Ves across the auxiliary capacitor Cs rises, the feedback of the feedback capacitor & The bit will also rise; in addition, according to the charge is not extinguished 15 200827889v328〇pa • law, ie (V3-)) xCsp gas v 『v2) x (cLC1 + cstl), as vcs rise from va to V3, VLC1 also Will rise from v2 to Vii. Thereby, the transmittance of the first sub-halogen 312 is improved. As can be seen from Fig. 2, VLC1 of the conventional halogen 110 is (Hm) between time t2 and t5, and VLC1 is CVVVcoj between time 1; 6 and t9. However, as can be clearly seen from the drawing of Fig. 7, the Vlci of the pixel 31 is greater than (V2-Vc〇m) 2 (v "Vc_) between time t3 and t4, and at time t7 to t8. The V between is greater than (V6-VC()m) C (V "Vc(10)). And the % of the halogen element 310 is greater than (V2-Vc()m) (v12-vc()m) between time t4 and t5, and is greater than (v6-vec) between time t8 and t9. m) (v14_u. '' It can be seen that between time 13 and 15 and between time 17 and 19, the VLCdf of the alizarin 310 is larger than the conventional alizarin 11〇, so that the transmittance of the first sub element It is higher than the traditional first-sub-small 112. Therefore, the overall transmittance of the alizarin will be increased to improve the overall brightness of the liquid crystal display 2G.

How to drive the liquid crystal display Refer to Figure 8, which is a flow chart of the driving method of the liquid crystal display. The driving method is used for the foregoing liquid crystal display 20, and the method includes the following steps: First, as shown in step 810, the first switch Q1 and the second switch Q2, the first switch Q i and the second switch Q 2 are enabled. The gate of the first switch Q1 and the second switch Q2 is coupled to the first line 330(n). Flat 16

200827889 W3280PA, as shown in step 820, enabling the third switch Q3, the source of the third switch Q3 is coupled to the drain of the second switch Q2, and the gate of the third switch Q3 is coupled to the second scan line 330. (n+1), the second scan line 330 (n+1) is a scan line adjacent to the first scan line 330(n), and the drain of the third switch Q3 is coupled to the common capacitor Cs. The electrode CE, and the pole of the third switch Q3 is consumed by the feedback capacitor CSP to the pole of the first switch Q1. After the third switch Q3 is enabled, the voltage difference VLC1 across the first liquid crystal capacitor CLC1 is increased by coupling the feedback capacitor CSP between the anode of the third switch Q3 and the drain of the first switch Q1. Therefore, the overall transmittance of the halogen 310 will be improved, and the overall brightness of the liquid crystal display 20 will be improved. The liquid crystal display panel, the liquid crystal display and the driving method thereof disclosed in the above embodiments of the present invention, by forming a feedback capacitor between the first halogen electrode and the auxiliary electrode, the overall transmittance of the halogen is improved, thereby improving the liquid crystal display. The overall picture brightness. In view of the above, the present invention has been disclosed in a preferred embodiment, and is not intended to limit the present invention. It will be apparent to those skilled in the art that various changes and modifications can be made without departing from the spirit and scope of the invention. Therefore, the scope of the invention is defined by the scope of the appended claims. 17

200827889 W3280PA [Simple description of the diagram] Figure 1 shows the equivalent circuit diagram of the traditional halogen. Figure 2 is a diagram showing the signal waveforms of a conventional halogen. Figure 3 is a schematic diagram showing a liquid crystal display. Figure 4 is a diagram showing the equivalent circuit diagram of a pixel in accordance with a preferred embodiment of the present invention. Figure 5 shows the layout of the feedback capacitor and the auxiliary capacitor. Figure 6 is a schematic cross-sectional view showing the feedback capacitor and the auxiliary capacitor. Figure 7 shows the signal waveform of the system. FIG. 8 is a flow chart showing a driving method of a liquid crystal display. [Main component symbol description] 2 0 · LCD display is not 3 0 · LCD display panel 4 0 · tribute drive is 5 0 : Scan driver 310 : Alizarin 320 : Data line 330 (1) ~ 330 (N): Scan line 330(n) ··first scan line 330(n+l) ··Second scan line 110: conventional pixel 112, 312: first sub-element 114, 314: second sub-salm 18

200827889 W3280PA 120, 320: data line 130(n), 330(n) ·•first scan line 130(n+l), 330(n+l) ··second scan line TFT: thin film transistor CE: common electrode

Ml, M2: auxiliary electrode IT01 · · first halogen electrode IT02 : second halogen electrode

Cixi: The first liquid crystal capacitor

ClC2: second liquid crystal capacitor

Csti · first storage capacitor

CsT2 ·Second storage capacitor cs: auxiliary capacitor cSP: feedback capacitor

CgDI, CgD2, CgD3 : Parasitic capacitance Q1 : First switch Q2 : Second switch Q3 · · Third switch 19

Claims (1)

200827889_〇pa - X. Patent application scope: 1. A liquid crystal display panel comprising: a data line; a first scan line and a second scan line, the second scan line being associated with the first scan line a scanning line; a unit comprising: a first sub-tendin, comprising: a first switch having a first input end, a first controlled end, and a first output end, the first The input end is coupled to the data line, f the first controlled end is coupled to the first scan line; and the second sub element includes: a second switch having a second input end and a second a second input end coupled to the data line, the second controlled end is coupled to the first scan line; a third switch having a third input end, a third controlled end and a third output end, the third input end is coupled to the second output r end, the third controlled end is coupled to the second scan line; The third output terminal is coupled to a common electrode via the auxiliary capacitor; a feedback capacitor, the third The end system via the feedback capacitor is coupled to the first output terminal. 2. The liquid crystal display panel of claim 1, wherein the first sub-element further comprises a first pixel electrode coupled to the first output end, the first pixel electrode and the A first 20 200827889 W3280PA - a liquid crystal capacitor and a first liquid crystal capacitor are formed between the common electrodes. 3. The liquid crystal display panel of claim 2, wherein the third output end is coupled to an auxiliary electrode, and the auxiliary electrode is interposed between the first halogen element and the common electrode. 4. The liquid crystal display panel of claim 3, wherein the auxiliary capacitor and the common electrode overlap to form the auxiliary capacitor. 5. The liquid crystal display panel of claim 3, wherein the auxiliary electrode and the first halogen electrode overlap to form the feedback/capacitor. The liquid crystal display panel of claim 2, wherein the second sub-halogen further comprises a second halogen electrode coupled to the second output end, the second halogen electrode and the A second liquid crystal capacitor and a second storage capacitor are formed between the common electrodes. 7. The liquid crystal display panel of claim 6, wherein the voltage difference between the two ends of the second liquid crystal capacitor is reduced from a first voltage difference to a second voltage after the third switch is enabled. difference. The liquid crystal display panel of claim 7, wherein the voltage difference between the two ends of the first liquid crystal capacitor is increased from the first voltage difference to one after the third switch is enabled The third voltage difference. 9. The liquid crystal display panel of claim 1, wherein the first switch, the second switch, and the third open relationship are Thin Film Transistors (TFTs) 〇10. The method includes: a liquid crystal display panel, comprising: 21 200827889 / 3280PA a data line; a first scan line and a second scan line, the second scan line is adjacent to the first scan line and a scan line The first sub-terminal includes: a first switch having a first input end, a first controlled end, and a first output end, the first input end coupled to the a data line, the first controlled end is coupled to the first scan line; a second sub element includes: a second switch having a second input, a second controlled end, and a second An output terminal, the second input end is coupled to the data line, the second controlled end is coupled to the first scan line; and a third switch has a third input end, a third controlled end, and a third output end coupled to the second input The third controlled end is coupled to the second scan line; an auxiliary capacitor, the third output is coupled to a common electrode via the auxiliary capacitor; a feedback capacitor, the third output is The feedback capacitor is coupled to the first output. a data driver is connected to the data line; a scan driver is coupled to the first scan line and the second scan line. 11. The liquid crystal display of claim 10, wherein the first sub-tenon further comprises a first halogen electrode coupled to the first 22 200827889^3280PA output, the first halogen electrode And forming a first liquid crystal capacitor and a first liquid crystal capacitor between the common electrodes. 12. The liquid crystal display of claim 11, wherein the third output terminal is coupled to an auxiliary electrode, the auxiliary electrode being interposed between the first halogen electrode and the common electrode. 13. The liquid crystal display of claim 12, wherein the auxiliary capacitor and the common electrode overlap form the auxiliary capacitor. 14. The liquid crystal display of claim 12, wherein the auxiliary electrode and the first halogen electrode overlap to form the feedback capacitor. 15. The liquid crystal display of claim 11, wherein the second sub-genogen further comprises a second halogen electrode coupled to the second output end, the second pixel electrode and the common electrode A second liquid crystal capacitor and a second storage capacitor are formed between each other. 16. The liquid crystal display according to claim 15, wherein the voltage difference between the two ends of the second liquid crystal capacitor is reduced from a first voltage difference to a second voltage difference after the third switch is enabled. . 17. The liquid crystal display of claim 16, wherein the voltage difference between the two ends of the first liquid crystal capacitor is increased from the first voltage difference to a third voltage difference after the third switch is enabled. . 18. The liquid crystal display of claim 10, wherein the first switch, the second switch, and the third open relationship are Thin Film Transistors (TFTs) 〇23 200827889 /3280PA - 19. A liquid crystal display device includes a data line, a first scan line, a second scan line, and a pixel. The pixel includes at least a first sub-pixel. And the second sub-pixel, the first sub-pixel includes a first switch, the second sub-element has a second switch, the driving method comprises: (a) enabling the first switch and the a second switch having a first input end, a first controlled end, and a first output end, the second switch having a second input end, a second controlled end, and a second output End, the r first input end and the second input end are connected to the picking line 'the young one controlled end and the second controlled end are coupled to the first scan line; and (b) A third switch is enabled, the third switch has a third input a third controlled end coupled to the second output end, the third controlled end is coupled to the second scan line, the second scan line is coupled to the second scan line a scan line adjacent to the first scan line, the third output end is coupled to a common electrode via an auxiliary capacitor, and the third output end is coupled to the first via a feedback capacitor Output. The driving method of claim 19, wherein the first sub-halogen further comprises a first halogen electrode coupled to the first output end, the first halogen electrode and the common electrode A first liquid crystal capacitor and a first liquid crystal capacitor are formed. 21. The driving method of claim 20, wherein the third output is coupled to an auxiliary electrode, the auxiliary electrode being interposed between the first halogen electrode and the common electrode. The driving method of claim 21, wherein the auxiliary electrode and the common electrode overlap form the auxiliary capacitor. 23. The driving method of claim 21, wherein the auxiliary electrode and the first halogen electrode overlap to form the feedback capacitor. 24. The driving method of claim 20, wherein the second sub-genogen further comprises a second pixel electrode coupled to the second output end, the second halogen electrode and the common electrode A second liquid crystal capacitor and a second storage capacitor are formed between each other. The driving method of claim 24, wherein the voltage difference between the two ends of the second liquid crystal capacitor is reduced from a first voltage difference to a second voltage after the third switch is enabled difference. 26. The driving method of claim 25, wherein the voltage difference between the two ends of the first liquid crystal capacitor is increased from the first voltage difference to a third voltage difference after the third switch is enabled . 27. The driving method of claim 19, wherein the first switch, the second switch, and the third open relationship are Thin Film Transistors (TFTs) 〇 28. The panel comprises: at least one element comprising: a feedback capacitor; a first switch; a first sub-element having a first halogen element; and a second sub-pixel having a second pixel electrode The second 25 200827889 V3280PA, the pixel electrode is coupled to the first halogen electrode via the first switch and the feedback capacitor, and a data line for transmitting a data signal to the first sub-genogen and the first a second scan line for enabling the first sub-tenoxine and the second sub-tenoxine; and a second scan line for enabling the first switch such that the first pixel element The voltage is changed from a first voltage to a second voltage. The liquid crystal display panel of claim 28, further comprising: an auxiliary electrode coupled to the first switch, wherein the auxiliary electrode and the first halogen electrode overlap to form the feedback capacitor . The liquid crystal display panel of claim 28, further comprising: a common electrode; an auxiliary electrode coupled to the first switch, the auxiliary electrode and the common electrode overlapped with the same electrode An auxiliary capacitor. 26