Pixel array

Abstract

The invention discloses a pixel array. The pixel array comprises a plurality of pixel driving circuits and a plurality of light emitting diodes. The pixel driving circuits are individually coupled to one of the plurality of scanning lines to receive a scanning signal, coupled to one of the plurality of light-emitting lines to receive a light-emitting signal, and coupled to one of the plurality of data lines to receive pixel data. The light-emitting diodes are arranged in an array, an anode of a first light-emitting diode of the light-emitting diodes is coupled to one of the pixel driving circuits, a cathode of the first light-emitting diode is coupled to an anode of a second light-emitting diode of the light-emitting diodes having the same color as the first light-emitting diode, and a cathode of the second light-emitting diode receives a system low voltage.

Description

Technical Field

[0001] The present invention relates to a pixel array, and in particular to a pixel array related to light emitting diodes. Background Art

[0002] In addition to the basic liquid crystal display (LCD), advanced display technologies include active-matrix organic light-emitting diode (AMOLED), sub-millimeter light-emitting diode (Mini LED), micro-light-emitting diode (Micro LED), etc. Currently, the main ones in our lives are active-matrix organic light-emitting diode and sub-millimeter light-emitting diode, while micro-light-emitting diode is still under development. However, micro-light-emitting diode has the characteristics of high contrast, low power consumption and long service life, and its potential as an environmentally friendly next-generation display has attracted much attention.

[0003] Considering the cost and power consumption, micro-LEDs will use the Pentile pixel arrangement. However, the actual resolution of the Pentile pixel arrangement can only reach two-thirds of the nominal resolution. However, at a lower resolution, the graininess of the picture will be very heavy, resulting in the problem of grid points in the visual effect. Summary of the invention

[0004] The invention provides a pixel array, which can reduce the power consumption of light emitting diodes and suppress the problem of grid points in visual effects.

[0005] The pixel array of the present invention includes a plurality of pixel driving circuits and a plurality of light emitting diodes. The pixel driving circuits are individually coupled to one of the plurality of scanning lines to receive scanning signals, coupled to one of the plurality of luminous lines to receive luminous signals, and coupled to one of the plurality of data lines to receive pixel data. The light emitting diodes are arranged in an array, wherein an anode of a first light emitting diode of the light emitting diodes is coupled to one of the pixel driving circuits, a cathode of the first light emitting diode is coupled to an anode of a second light emitting diode of the same color as the first light emitting diode, and a cathode of the second light emitting diode receives a system low voltage.

[0006] Based on the above, in the pixel array of the embodiment of the present invention, the LEDs are driven according to color groups, but the LEDs that light up at the same time are in different positions. Therefore, the pixel array can reduce the power consumption of the LEDs and suppress the problem of grid points in visual effects.

[0007] In order to make the above features and advantages of the present invention more clearly understood, embodiments are given below and described in detail with reference to the accompanying drawings. BRIEF DESCRIPTION OF THE DRAWINGS

[0008] Figure 1 FIG. 4 is a system diagram of a pixel array according to a first embodiment of the present invention.

[0009] Figure 2 FIG. 4 is a system diagram of a pixel array according to a second embodiment of the present invention.

[0010] Figure 3 FIG. 4 is a system diagram of a pixel array according to a third embodiment of the present invention.

[0011] Figure 4 FIG. 4 is a system diagram of a pixel array according to a fourth embodiment of the present invention.

[0012] Figure 5 FIG. 4 is a system diagram of a pixel array according to a fifth embodiment of the present invention.

[0013] Figure 6 FIG. 4 is a system diagram of a pixel array according to a sixth embodiment of the present invention.

[0014] Figure 7 FIG. 4 is a system diagram of a pixel array according to a seventh embodiment of the present invention.

[0015] Figure 8 FIG. 4 is a system diagram of a pixel array according to an eighth embodiment of the present invention.

[0016] Fig. 9 FIG. 4 is a system diagram of a pixel array according to a ninth embodiment of the present invention.

[0017] Fig.10 FIG. 1 is a schematic diagram of an environment of a display device using a pixel array according to a ninth embodiment of the present invention.

[0018] Fig.11 FIG. 4 is a system diagram of a pixel array according to a tenth embodiment of the present invention.

[0019] Wherein, the reference numerals are:

[0020] 10: Display device

[0021] 20: Camera

[0022] 30: User

[0023] 100, 200, 300, 400, 500, 600, 700, 800, 900, 1000: Pixel array

[0024] A, B: Line of sight

[0025] B11, B12, B21, B22, B1a, B1b: Blue LED

[0026] D1: First direction

[0027] D2: Second direction

[0028] Data_R1, Data_G1, Data_B1, Data_R2, Data_G2, Data_B2, Data_Ra, Data_Ga, Data_Ba, Data_Rb, Data_Gb, Data_Bb: pixel data

[0029] DR11~DR16, DR21~DR26, DR1a~DR1f: Pixel drive circuit

[0030] EM1, EM2: Luminous signal

[0031] G11, G12, G21, G22, G1a, G1b: Green light emitting diode

[0032] Ldt1~Ldt6、Ldta~Ldtf:data line

[0033] Lem1, Lem2: luminous lines

[0034] LSC1, LSC2: Scan lines

[0035] PTD: Serial disable signal

[0036] PTD1: First serial disable signal

[0037] PTD2: Second serial disable signal

[0038] PTE: serial enable signal

[0039] PTE1: First serial enable signal

[0040] PTE2: Second serial enable signal

[0041] R11, R12, R21, R22, R1a, R1b: red light-emitting diodes

[0042] Scan1, Scan2: Scan signal

[0043] TE11~TE13, TE1a~TE1c, TB11~TB16, TB1a~TB1f: Transistors

[0044] VDD: system high voltage

[0045] VSS: System low voltage DETAILED DESCRIPTION

[0046] The present invention is described in detail below with reference to the accompanying drawings and specific embodiments, but is not intended to limit the present invention.

[0047] Unless otherwise defined, all terms (including technical and scientific terms) used herein have the same meaning as commonly understood by one of ordinary skill in the art to which the invention belongs. It will be further understood that terms such as those defined in commonly used dictionaries should be interpreted as having a meaning consistent with their meaning in the context of the relevant technology and the present invention, and will not be interpreted as an idealized or overly formal meaning unless explicitly defined as such herein.

[0048] It should be understood that although the terms "first", "second", "third", etc. may be used herein to describe various elements, components, regions, layers and / or parts, these elements, components, regions, and / or parts should not be limited by these terms. These terms are only used to distinguish one element, component, region, layer or part from another element, component, region, layer or part. Therefore, the "first element", "component", "region", "layer" or "part" discussed below may be referred to as a second element, component, region, layer or part without departing from the teachings of this article.

[0049] The terms used herein are for the purpose of describing specific embodiments only and are not restrictive. As used herein, unless the context clearly indicates otherwise, the singular forms "a", "an", and "the" are intended to include plural forms, including "at least one". ", "or" means "and / or". As used herein, the terms "and / or" include any and all combinations of one or more of the relevant listed items. It should also be understood that when used in this specification, the terms "include" and / or "include" specify the presence and / or parts of the features, regions, entireties, steps, operations, elements, but do not exclude the presence or addition of one or more other features, regions, entireties, steps, operations, elements, parts, and / or combinations thereof.

[0050] Figure 1 is a system diagram of a pixel array according to a first embodiment of the present invention. Figure 1In this embodiment, the pixel array 100 includes a plurality of pixel driving circuits (taking DR11-DR13, DR15, DR21-DR23, DR25 as examples) and a plurality of light emitting diodes (taking red light emitting diodes R11, R12, R21, R22, green light emitting diodes G11, G12, G21, G22, blue light emitting diodes B11, B12, B21, B22 as examples), wherein the red light emitting diodes R11, R12, R21, R22, green light emitting diodes G11, G12, G21, G22, blue light emitting diodes B11, B12, B21, B22 may be micro light emitting diodes. The pixel driving circuits DR11-DR13, DR15, DR21-DR23, DR25 receive the system high voltage VDD together.

[0051] The pixel driving circuits DR11-DR13 and DR15 are commonly coupled to the scan line LSC1 to receive the scan signal Scan1, and the pixel driving circuits DR21-DR23 and DR25 are commonly coupled to the scan line LSC2 to receive the scan signal Scan2. The pixel driving circuits DR11-DR13 and DR15 are commonly coupled to the light-emitting line Lem1 to receive the light-emitting signal EM1, and the pixel driving circuits DR21-DR23 and DR25 are commonly coupled to the light-emitting line Lem2 to receive the light-emitting signal EM2. The pixel driving circuits DR11 and DR21 are coupled to the data line Ldt1 to receive the pixel data Data_R1, the pixel driving circuits DR12 and DR22 are coupled to the data line Ldt2 to receive the pixel data Data_G1, the pixel driving circuits DR13 and DR23 are coupled to the data line Ldt3 to receive the pixel data Data_B1, and the pixel driving circuits DR15 and DR25 are coupled to the data line Ldt5 to receive the pixel data Data_G2.

[0052] The anode of the red light emitting diode R11 (corresponding to the first light emitting diode or the third light emitting diode) is coupled to the pixel driving circuit DR11 (corresponding to the first pixel driving circuit or the second pixel driving circuit), and the cathode of the red light emitting diode R11 is coupled to the anode of the red light emitting diode R12 (corresponding to the second light emitting diode or the fourth light emitting diode) of the same color as the red light emitting diode R11 along the first direction D1 extending from the scanning lines LSC1-LSC2, and the cathode of the red light emitting diode R12 receives the system low voltage VSS. That is, the red light emitting diodes R11 and R12 are connected in series between the pixel driving circuit DR11 and the system low voltage VSS. The green light emitting diode G11 is connected in series between the pixel driving circuit DR12 and the system low voltage VSS.

[0053] The anode of the blue light-emitting diode B11 (corresponding to the first light-emitting diode or the third light-emitting diode) is coupled to the pixel driving circuit DR13 (corresponding to the first pixel driving circuit or the second pixel driving circuit), and the cathode of the blue light-emitting diode B11 is coupled to the anode of the blue light-emitting diode B12 (corresponding to the second light-emitting diode or the fourth light-emitting diode) of the same color as the blue light-emitting diode B11 along the first direction D1 extending from the scanning lines LSC1-LSC2, and the cathode of the blue light-emitting diode B12 receives the system low voltage VSS. That is, the blue light-emitting diodes B11 and B12 are connected in series to the pixel driving circuit DR13 and the system low voltage VSS. The green light-emitting diode G12 is connected in series between the pixel driving circuit DR15 and the system low voltage VSS.

[0054] The anode of the red light emitting diode R21 (corresponding to the first light emitting diode or the third light emitting diode) is coupled to the pixel driving circuit DR21 (corresponding to the first pixel driving circuit or the second pixel driving circuit), and the cathode of the red light emitting diode R21 is coupled to the anode of the red light emitting diode R22 (corresponding to the second light emitting diode or the fourth light emitting diode) of the same color as the red light emitting diode R21 along the first direction D1 extending from the scanning lines LSC1-LSC2, and the cathode of the red light emitting diode R22 receives the system low voltage VSS. That is, the red light emitting diodes R21 and R22 are connected in series between the pixel driving circuit DR21 and the system low voltage VSS. The green light emitting diode G21 is connected in series between the pixel driving circuit DR22 and the system low voltage VSS.

[0055] The anode of the blue light-emitting diode B21 (corresponding to the first light-emitting diode or the third light-emitting diode) is coupled to the pixel driving circuit DR23 (corresponding to the first pixel driving circuit or the second pixel driving circuit), and the cathode of the blue light-emitting diode B21 is coupled to the anode of the blue light-emitting diode B22 (corresponding to the second light-emitting diode or the fourth light-emitting diode) of the same color as the blue light-emitting diode B21 along the first direction D1 extending from the scanning lines LSC1 to LSC2, and the cathode of the blue light-emitting diode B22 receives the system low voltage VSS. That is, the blue light-emitting diodes B21 and B22 are connected in series to the pixel driving circuit DR23 and the system low voltage VSS. The green light-emitting diode G22 is connected in series between the pixel driving circuit DR25 and the system low voltage VSS.

[0056] According to the above, the more sensitive green LEDs G11, G12, G21, and G22 are driven independently, but the less sensitive red LEDs R11, R12, R21, and R22, and the blue LEDs B11, B12, B21, and B22 are driven according to color groups, but the red LEDs R11, R12, R21, and R22, and the blue LEDs B11, B12, B21, and B22 that are lit at the same time are in different positions. Therefore, the pixel array 100 can reduce the power consumption of the LEDs and suppress the problem of grid points in visual effects.

[0057] Figure 2 is a system diagram of a pixel array according to a second embodiment of the present invention. Figure 2 In this embodiment, the pixel array 200 includes a plurality of pixel driving circuits (taking DR11, DR12, DR15, DR16, DR22, DR23, DR24, and DR25 as examples) and a plurality of light emitting diodes (taking red light emitting diodes R11, R12, R21, and R22, green light emitting diodes G11, G12, G21, and G22, and blue light emitting diodes B11, B12, B21, and B22 as examples). The pixel driving circuits DR11, DR12, DR15, DR16, DR22, DR23, DR24, and DR25 receive the system high voltage VDD together.

[0058] The pixel driving circuits DR11, DR12, DR15, and DR16 are commonly coupled to the scan line LSC1 to receive the scan signal Scan1, and the pixel driving circuits DR22, DR23, DR24, and DR25 are commonly coupled to the scan line LSC2 to receive the scan signal Scan2. The pixel driving circuits DR11, DR12, DR15, and DR16 are commonly coupled to the emission line Lem1 to receive the emission signal EM1, and the pixel driving circuits DR22, DR23, DR24, and DR25 are commonly coupled to the emission line Lem2 to receive the emission signal EM2. The pixel driving circuit DR11 is coupled to the data line Ldt1 to receive the pixel data Data_R1, the pixel driving circuits DR12 and DR22 are coupled to the data line Ldt2 to receive the pixel data Data_G1, the pixel driving circuit DR23 is coupled to the data line Ldt3 to receive the pixel data Data_B1, the pixel driving circuit DR24 is coupled to the data line Ldt4 to receive the pixel data Data_R2, the pixel driving circuits DR15 and DR25 are coupled to the data line Ldt5 to receive the pixel data Data_G2, and the pixel driving circuit DR26 is coupled to the data line Ldt6 to receive the pixel data Data_B2.

[0059] The anode of the red light emitting diode R11 (corresponding to the first light emitting diode or the third light emitting diode) is coupled to the pixel driving circuit DR11 (corresponding to the first pixel driving circuit or the second pixel driving circuit), and the cathode of the red light emitting diode R11 is coupled to the anode of the red light emitting diode R12 (corresponding to the second light emitting diode or the fourth light emitting diode) of the same color as the red light emitting diode R11 along the first direction D1 extending from the scanning lines LSC1-LSC2, and the cathode of the red light emitting diode R12 receives the system low voltage VSS. That is, the red light emitting diodes R11 and R12 are connected in series between the pixel driving circuit DR11 and the system low voltage VSS. The green light emitting diode G11 is connected in series between the pixel driving circuit DR12 and the system low voltage VSS.

[0060] The green LED G12 is connected in series between the pixel driving circuit DR15 and the system low voltage VSS. The anode of the blue LED B12 (corresponding to the first LED or the third LED) is coupled to the pixel driving circuit DR16 (corresponding to the first pixel driving circuit or the second pixel driving circuit), and the cathode of the blue LED B12 is coupled to the anode of the blue LED B11 (corresponding to the second LED or the fourth LED) of the same color as the blue LED B12 along the opposite direction of the first direction D1 extending from the scanning lines LSC1-LSC2, and the cathode of the blue LED B11 receives the system low voltage VSS. That is, the blue LEDs B11 and B12 are connected in series to the pixel driving circuit DR16 and the system low voltage VSS.

[0061] The green light emitting diode G21 is connected in series between the pixel driving circuit DR22 and the system low voltage VSS. The anode of the blue light emitting diode B21 (corresponding to the first light emitting diode or the third light emitting diode) is coupled to the pixel driving circuit DR23 (corresponding to the first pixel driving circuit or the second pixel driving circuit), and the cathode of the blue light emitting diode B21 is coupled to the anode of the blue light emitting diode B22 (corresponding to the second light emitting diode or the fourth light emitting diode) of the same color as the blue light emitting diode B21 along the first direction D1 extending from the scanning lines LSC1-LSC2, and the cathode of the blue light emitting diode B22 receives the system low voltage VSS. That is, the blue light emitting diodes B21 and B22 are connected in series to the pixel driving circuit DR23 and the system low voltage VSS.

[0062] The anode of the red light emitting diode R22 (corresponding to the first light emitting diode or the third light emitting diode) is coupled to the pixel driving circuit DR24 (corresponding to the first pixel driving circuit or the second pixel driving circuit), and the cathode of the red light emitting diode R22 is coupled to the anode of the red light emitting diode R21 (corresponding to the second light emitting diode or the fourth light emitting diode) of the same color as the red light emitting diode R22 in the opposite direction of the first direction D1 extending from the scanning lines LSC1-LSC2, and the cathode of the red light emitting diode R21 receives the system low voltage VSS. That is, the red light emitting diodes R21 and R22 are connected in series between the pixel driving circuit DR24 and the system low voltage VSS. The green light emitting diode G22 is connected in series between the pixel driving circuit DR25 and the system low voltage VSS.

[0063] Figure 3 is a system diagram of a pixel array according to a third embodiment of the present invention. Figure 3 In this embodiment, the pixel array 300 includes a plurality of pixel driving circuits (taking DR11 to DR16, DR22, and DR25 as examples) and a plurality of light emitting diodes (taking red light emitting diodes R11, R12, R21, and R22, green light emitting diodes G11, G12, G21, and G22, and blue light emitting diodes B11, B12, B21, and B22 as examples). The pixel driving circuits DR11 to DR16, DR22, and DR25 receive the system high voltage VDD together.

[0064] The pixel driving circuits DR11-DR16 are commonly coupled to the scan line LSC1 to receive the scan signal Scan1, and the pixel driving circuits DR22 and DR25 are commonly coupled to the scan line LSC2 to receive the scan signal Scan2. The pixel driving circuits DR11-DR16 are commonly coupled to the emission line Lem1 to receive the emission signal EM1, and the pixel driving circuits DR22 and DR25 are commonly coupled to the emission line Lem2 to receive the emission signal EM2. The pixel driving circuit DR11 is coupled to the data line Ldt1 to receive the pixel data Data_R1, the pixel driving circuits DR12 and DR22 are coupled to the data line Ldt2 to receive the pixel data Data_G1, the pixel driving circuit DR13 is coupled to the data line Ldt3 to receive the pixel data Data_B1, the pixel driving circuit DR14 is coupled to the data line Ldt4 to receive the pixel data Data_R2, the pixel driving circuits DR15 and DR25 are coupled to the data line Ldt5 to receive the pixel data Data_G2, and the pixel driving circuit DR16 is coupled to the data line Ldt6 to receive the pixel data Data_B2.

[0065] The anode of the red LED R11 (corresponding to the first LED or the third LED) is coupled to the pixel driving circuit DR11 (corresponding to the first pixel driving circuit or the second pixel driving circuit), and the cathode of the red LED R11 is coupled to the anode of the red LED R21 (corresponding to the second LED or the fourth LED) of the same color as the red LED R11 along the second direction D2 extending from the data lines Ldt1 to Ldt6, and the cathode of the red LED R21 receives the system low voltage VSS. That is, the red LEDs R11 and R21 are connected in series between the pixel driving circuit DR11 and the system low voltage VSS. The green LED G11 is connected in series between the pixel driving circuit DR12 and the system low voltage VSS.

[0066] The anode of the blue LED B11 (corresponding to the first LED or the third LED) is coupled to the pixel driving circuit DR13 (corresponding to the first pixel driving circuit or the second pixel driving circuit), and the cathode of the blue LED B11 is coupled to the anode of the blue LED B21 (corresponding to the second LED or the fourth LED) of the same color as the blue LED B11 along the second direction D2 extending from the data lines Ldt1 to Ldt6, and the cathode of the blue LED B21 receives the system low voltage VSS. That is, the blue LEDs B11 and B21 are connected in series to the pixel driving circuit DR13 and the system low voltage VSS.

[0067] The anode of the red light emitting diode R12 (corresponding to the first light emitting diode or the third light emitting diode) is coupled to the pixel driving circuit DR14 (corresponding to the first pixel driving circuit or the second pixel driving circuit), and the cathode of the red light emitting diode R12 is coupled to the anode of the red light emitting diode R22 (corresponding to the second light emitting diode or the fourth light emitting diode) of the same color as the red light emitting diode R12 along the second direction D2 extending from the data lines Ldt1 to Ldt6, and the cathode of the red light emitting diode R22 receives the system low voltage VSS. That is, the red light emitting diodes R12 and R22 are connected in series to the pixel driving circuit DR14 and the system low voltage VSS. The green light emitting diode G12 is connected in series between the pixel driving circuit DR15 and the system low voltage VSS.

[0068] The anode of the blue LED B12 (corresponding to the first LED or the third LED) is coupled to the pixel driving circuit DR16 (corresponding to the first pixel driving circuit or the second pixel driving circuit), and the cathode of the blue LED B12 is coupled to the anode of the blue LED B22 (corresponding to the second LED or the fourth LED) of the same color as the blue LED B12 along the second direction D2 extending from Ldt1 to Ldt6, and the cathode of the blue LED B22 receives the system low voltage VSS. That is, the blue LEDs B12 and B22 are connected in series to the pixel driving circuit DR16 and the system low voltage VSS.

[0069] The green light emitting diode G21 is connected in series between the pixel driving circuit DR22 and the system low voltage VSS. The green light emitting diode G22 is connected in series between the pixel driving circuit DR25 and the system low voltage VSS.

[0070] Figure 4 is a system diagram of a pixel array according to a fourth embodiment of the present invention. Figure 4 In this embodiment, the pixel array 400 includes a plurality of pixel driving circuits (taking DR11, DR12, DR14, DR15, DR22, DR23, DR25, and DR26 as examples) and a plurality of light emitting diodes (taking red light emitting diodes R11, R12, R21, and R22, green light emitting diodes G11, G12, G21, and G22, and blue light emitting diodes B11, B12, B21, and B22 as examples). The pixel driving circuits DR11, DR12, DR14, DR15, DR22, DR23, DR25, and DR26 receive the system high voltage VDD together.

[0071] The pixel driving circuits DR11, DR12, DR14, and DR15 are commonly coupled to the scan line LSC1 to receive the scan signal Scan1, and the pixel driving circuits DR22, DR23, DR25, and DR26 are commonly coupled to the scan line LSC2 to receive the scan signal Scan2. The pixel driving circuits DR11, DR12, DR14, and DR15 are commonly coupled to the emission line Lem1 to receive the emission signal EM1, and the pixel driving circuits DR22, DR23, DR25, and DR26 are commonly coupled to the emission line Lem2 to receive the emission signal EM2. The pixel driving circuit DR11 is coupled to the data line Ldt1 to receive the pixel data Data_R1, the pixel driving circuits DR12 and DR22 are coupled to the data line Ldt2 to receive the pixel data Data_G1, the pixel driving circuit DR23 is coupled to the data line Ldt3 to receive the pixel data Data_B1, the pixel driving circuit DR14 is coupled to the data line Ldt4 to receive the pixel data Data_R2, the pixel driving circuits DR15 and DR25 are coupled to the data line Ldt5 to receive the pixel data Data_G2, and the pixel driving circuit DR26 is coupled to the data line Ldt6 to receive the pixel data Data_B2.

[0072] The anode of the red LED R11 (corresponding to the first LED or the third LED) is coupled to the pixel driving circuit DR11 (corresponding to the first pixel driving circuit or the second pixel driving circuit), and the cathode of the red LED R11 is coupled to the anode of the red LED R21 (corresponding to the second LED or the fourth LED) of the same color as the red LED R11 along the second direction D2 extending from the data lines Ldt1 to Ldt6, and the cathode of the red LED R21 receives the system low voltage VSS. That is, the red LEDs R11 and R21 are connected in series between the pixel driving circuit DR11 and the system low voltage VSS. The green LED G11 is connected in series between the pixel driving circuit DR12 and the system low voltage VSS.

[0073] The anode of the red light emitting diode R12 (corresponding to the first light emitting diode or the third light emitting diode) is coupled to the pixel driving circuit DR14 (corresponding to the first pixel driving circuit or the second pixel driving circuit), and the cathode of the red light emitting diode R12 is coupled to the anode of the red light emitting diode R22 (corresponding to the second light emitting diode or the fourth light emitting diode) of the same color as the red light emitting diode R12 along the second direction D2 extending from the data lines Ldt1 to Ldt6, and the cathode of the red light emitting diode R22 receives the system low voltage VSS. That is, the red light emitting diodes R12 and R22 are connected in series to the pixel driving circuit DR14 and the system low voltage VSS. The green light emitting diode G12 is connected in series between the pixel driving circuit DR15 and the system low voltage VSS.

[0074] The green LED G21 is connected in series between the pixel driving circuit DR22 and the system low voltage VSS. The anode of the blue LED B21 (corresponding to the first LED or the third LED) is coupled to the pixel driving circuit DR23 (corresponding to the first pixel driving circuit or the second pixel driving circuit), and the cathode of the blue LED B21 is coupled to the anode of the blue LED B11 (corresponding to the second LED or the fourth LED) of the same color as the blue LED B21 in the opposite direction of the second direction D2 extending from the data lines Ldt1 to Ldt6, and the cathode of the blue LED B11 receives the system low voltage VSS. That is, the blue LEDs B11 and B21 are connected in series to the pixel driving circuit DR23 and the system low voltage VSS.

[0075] The green LED G22 is connected in series between the pixel driving circuit DR25 and the system low voltage VSS. The anode of the blue LED B22 (corresponding to the first LED or the third LED) is coupled to the pixel driving circuit DR26 (corresponding to the first pixel driving circuit or the second pixel driving circuit), and the cathode of the blue LED B22 is coupled to the anode of the blue LED B12 (corresponding to the second LED or the fourth LED) of the same color as the blue LED B22 in the opposite direction of the second direction D2 extending from the data lines Ldt1 to Ldt6, and the cathode of the blue LED B12 receives the system low voltage VSS. That is, the blue LEDs B12 and B22 are connected in series to the pixel driving circuit DR26 and the system low voltage VSS.

[0076] Figure 5 is a system diagram of a pixel array according to a fifth embodiment of the present invention. Figure 5 In this embodiment, the pixel array 500 includes a plurality of pixel driving circuits (taking DR11 to DR15, DR22, DR23, and DR25 as examples) and a plurality of light emitting diodes (taking red light emitting diodes R11, R12, R21, and R22, green light emitting diodes G11, G12, G21, and G22, and blue light emitting diodes B11, B12, B21, and B22 as examples). The pixel driving circuits DR11 to DR15, DR22, DR23, and DR25 receive the system high voltage VDD together.

[0077] The pixel driving circuits DR11 to DR15 are commonly coupled to the scan line LSC1 to receive the scan signal Scan1, and the pixel driving circuits DR22, DR23, and DR25 are commonly coupled to the scan line LSC2 to receive the scan signal Scan2. The pixel driving circuits DR11 to DR15 are commonly coupled to the light-emitting line Lem1 to receive the light-emitting signal EM1, and the pixel driving circuits DR22, DR23, and DR25 are commonly coupled to the light-emitting line Lem2 to receive the light-emitting signal EM2. The pixel driving circuit DR11 is coupled to the data line Ldt1 to receive the pixel data Data_R1, the pixel driving circuits DR12 and DR22 are coupled to the data line Ldt2 to receive the pixel data Data_G1, the pixel driving circuits DR13 and DR23 are coupled to the data line Ldt3 to receive the pixel data Data_B1, the pixel driving circuit DR14 is coupled to the data line Ldt4 to receive the pixel data Data_R2, and the pixel driving circuits DR15 and DR25 are coupled to the data line Ldt5 to receive the pixel data Data_G2.

[0078] The anode of the red LED R11 (corresponding to the first LED or the third LED) is coupled to the pixel driving circuit DR11 (corresponding to the first pixel driving circuit or the second pixel driving circuit), and the cathode of the red LED R11 is coupled to the anode of the red LED R21 (corresponding to the second LED or the fourth LED) of the same color as the red LED R11 along the second direction D2 extending from the data lines Ldt1 to Ldt6, and the cathode of the red LED R21 receives the system low voltage VSS. That is, the red LEDs R11 and R21 are connected in series between the pixel driving circuit DR11 and the system low voltage VSS. The green LED G11 is connected in series between the pixel driving circuit DR12 and the system low voltage VSS.

[0079] The anode of the blue LED B11 (corresponding to the first LED or the third LED) is coupled to the pixel driving circuit DR13 (corresponding to the first pixel driving circuit or the second pixel driving circuit), and the cathode of the blue LED B11 is coupled to the anode of the blue LED B12 (corresponding to the second LED or the fourth LED) of the same color as the blue LED B11 along the first direction D1 extending from the scanning lines LSC1-LSC2, and the cathode of the blue LED B12 receives the system low voltage VSS. That is, the blue LEDs B11 and B12 are connected in series to the pixel driving circuit DR13 and the system low voltage VSS.

[0080] The anode of the red light emitting diode R12 (corresponding to the first light emitting diode or the third light emitting diode) is coupled to the pixel driving circuit DR14 (corresponding to the first pixel driving circuit or the second pixel driving circuit), and the cathode of the red light emitting diode R12 is coupled to the anode of the red light emitting diode R22 (corresponding to the second light emitting diode or the fourth light emitting diode) of the same color as the red light emitting diode R12 along the second direction D2 extending from the data lines Ldt1 to Ldt6, and the cathode of the red light emitting diode R22 receives the system low voltage VSS. That is, the red light emitting diodes R12 and R22 are connected in series to the pixel driving circuit DR14 and the system low voltage VSS. The green light emitting diode G12 is connected in series between the pixel driving circuit DR15 and the system low voltage VSS.

[0081] The green light emitting diode G21 is connected in series between the pixel driving circuit DR22 and the system low voltage VSS. The anode of the blue light emitting diode B21 (corresponding to the first light emitting diode or the third light emitting diode) is coupled to the pixel driving circuit DR23 (corresponding to the first pixel driving circuit or the second pixel driving circuit), and the cathode of the blue light emitting diode B21 is coupled to the anode of the blue light emitting diode B22 (corresponding to the second light emitting diode or the fourth light emitting diode) of the same color as the blue light emitting diode B21 along the first direction D1 extending from the scanning lines LSC1 to LSC2, and the cathode of the blue light emitting diode B22 receives the system low voltage VSS. That is, the blue light emitting diodes B21 and B22 are connected in series between the pixel driving circuit DR23 and the system low voltage VSS. The green light emitting diode G22 is connected in series between the pixel driving circuit DR25 and the system low voltage VSS.

[0082] Figure 6 is a system diagram of a pixel array according to a sixth embodiment of the present invention. Figure 6 In this embodiment, the pixel array 600 includes a plurality of pixel driving circuits (taking DR11 to DR13, DR15, DR16, DR21, DR22, and DR25 as examples) and a plurality of light emitting diodes (taking red light emitting diodes R11, R12, R21, and R22, green light emitting diodes G11, G12, G21, and G22, and blue light emitting diodes B11, B12, B21, and B22 as examples). The pixel driving circuits DR11 to DR13, DR15, DR16, DR21, DR22, and DR25 receive the system high voltage VDD together.

[0083] The pixel driving circuits DR11-DR13, DR15, and DR16 are commonly coupled to the scan line LSC1 to receive the scan signal Scan1, and the pixel driving circuits DR21, DR22, and DR25 are commonly coupled to the scan line LSC2 to receive the scan signal Scan2. The pixel driving circuits DR11-DR13, DR15, and DR16 are commonly coupled to the emission line Lem1 to receive the emission signal EM1, and the pixel driving circuits DR21, DR22, and DR25 are commonly coupled to the emission line Lem2 to receive the emission signal EM2. Pixel driving circuits DR11 and DR21 are coupled to data line Ldt1 to receive pixel data Data_R1, pixel driving circuits DR12 and DR22 are coupled to data line Ldt2 to receive pixel data Data_G1, pixel driving circuit DR13 is coupled to data line Ldt3 to receive pixel data Data_B1, pixel driving circuits DR15 and DR25 are coupled to data line Ldt5 to receive pixel data Data_G2, and pixel driving circuit DR16 is coupled to data line Ldt6 to receive pixel data Data_B2.

[0084] The anode of the red light emitting diode R11 (corresponding to the first light emitting diode or the third light emitting diode) is coupled to the pixel driving circuit DR11 (corresponding to the first pixel driving circuit or the second pixel driving circuit), and the cathode of the red light emitting diode R11 is coupled to the anode of the red light emitting diode R12 (corresponding to the second light emitting diode or the fourth light emitting diode) of the same color as the red light emitting diode R11 along the first direction D1 extending from the scanning lines LSC1-LSC2, and the cathode of the red light emitting diode R12 receives the system low voltage VSS. That is, the red light emitting diodes R11 and R12 are connected in series between the pixel driving circuit DR11 and the system low voltage VSS. The green light emitting diode G11 is connected in series between the pixel driving circuit DR12 and the system low voltage VSS.

[0085] The anode of the blue light-emitting diode B11 (corresponding to the first light-emitting diode or the third light-emitting diode) is coupled to the pixel driving circuit DR13 (corresponding to the first pixel driving circuit or the second pixel driving circuit), and the cathode of the blue light-emitting diode B11 is coupled to the anode of the blue light-emitting diode B21 (corresponding to the second light-emitting diode or the fourth light-emitting diode) of the same color as the blue light-emitting diode B11 along the second direction D2 extending from the data lines Ldt1 to Ldt6, and the cathode of the blue light-emitting diode B21 receives the system low voltage VSS. That is, the blue light-emitting diodes B11 and B21 are connected in series to the pixel driving circuit DR13 and the system low voltage VSS. The green light-emitting diode G12 is connected in series between the pixel driving circuit DR15 and the system low voltage VSS.

[0086] The anode of the blue LED B12 (corresponding to the first LED or the third LED) is coupled to the pixel driving circuit DR16 (corresponding to the first pixel driving circuit or the second pixel driving circuit), and the cathode of the blue LED B12 is coupled to the anode of the blue LED B22 (corresponding to the second LED or the fourth LED) of the same color as the blue LED B12 along the second direction D2 extending from the data lines Ldt1 to Ldt6, and the cathode of the blue LED B22 receives the system low voltage VSS. That is, the blue LEDs B12 and B22 are connected in series to the pixel driving circuit DR16 and the system low voltage VSS.

[0087] The anode of the red LED R21 (corresponding to the first LED or the third LED) is coupled to the pixel driving circuit DR21 (corresponding to the first pixel driving circuit or the second pixel driving circuit), and the cathode of the red LED R21 is coupled to the anode of the red LED R22 (corresponding to the second LED or the fourth LED) of the same color as the red LED R21 along the first direction D1 extending from the scanning lines LSC1-LSC2, and the cathode of the red LED R22 receives the system low voltage VSS. That is, the red LEDs R21 and R22 are connected in series to the pixel driving circuit DR21 and the system low voltage VSS.

[0088] The green light emitting diode G21 is connected in series between the pixel driving circuit DR22 and the system low voltage VSS. The green light emitting diode G22 is connected in series between the pixel driving circuit DR25 and the system low voltage VSS.

[0089] Figure 7 is a system diagram of a pixel array according to a seventh embodiment of the present invention. Figure 7 In this embodiment, the pixel array 700 includes a plurality of pixel driving circuits (taking DR11 to DR13, DR15, DR22, DR24, DR25, and DR26 as examples) and a plurality of light emitting diodes (taking red light emitting diodes R11, R12, R21, and R22, green light emitting diodes G11, G12, G21, and G22, and blue light emitting diodes B11, B12, B21, and B22 as examples). The pixel driving circuits DR11 to DR13, DR15, DR22, DR24, DR25, and DR26 receive the system high voltage VDD together.

[0090] The pixel driving circuits DR11-DR13 and DR15 are commonly coupled to the scan line LSC1 to receive the scan signal Scan1, and the pixel driving circuits DR22, DR24, DR25 and DR26 are commonly coupled to the scan line LSC2 to receive the scan signal Scan2. The pixel driving circuits DR11-DR13 and DR15 are commonly coupled to the emission line Lem1 to receive the emission signal EM1, and the pixel driving circuits DR22, DR24, DR25 and DR26 are commonly coupled to the emission line Lem2 to receive the emission signal EM2. The pixel driving circuit DR11 is coupled to the data line Ldt1 to receive the pixel data Data_R1, the pixel driving circuits DR12 and DR22 are coupled to the data line Ldt2 to receive the pixel data Data_G1, the pixel driving circuit DR13 is coupled to the data line Ldt3 to receive the pixel data Data_B1, the pixel driving circuit DR24 is coupled to the data line Ldt4 to receive the pixel data Data_R2, the pixel driving circuits DR15 and DR25 are coupled to the data line Ldt5 to receive the pixel data Data_G2, and the pixel driving circuit DR26 is coupled to the data line Ldt6 to receive the pixel data Data_B2.

[0091] The anode of the red LED R11 (corresponding to the first LED or the third LED) is coupled to the pixel driving circuit DR11 (corresponding to the first pixel driving circuit or the second pixel driving circuit), and the cathode of the red LED R11 is coupled to the anode of the red LED R21 (corresponding to the second LED or the fourth LED) of the same color as the red LED R11 along the second direction D2 extending from the data lines Ldt1 to Ldt6, and the cathode of the red LED R21 receives the system low voltage VSS. That is, the red LEDs R11 and R21 are connected in series between the pixel driving circuit DR11 and the system low voltage VSS. The green LED G11 is connected in series between the pixel driving circuit DR12 and the system low voltage VSS.

[0092] The anode of the blue light-emitting diode B11 (corresponding to the first light-emitting diode or the third light-emitting diode) is coupled to the pixel driving circuit DR13 (corresponding to the first pixel driving circuit or the second pixel driving circuit), and the cathode of the blue light-emitting diode B11 is coupled to the anode of the blue light-emitting diode B12 (corresponding to the second light-emitting diode or the fourth light-emitting diode) of the same color as the blue light-emitting diode B11 along the first direction D1 extending from the scanning lines LSC1-LSC2, and the cathode of the blue light-emitting diode B12 receives the system low voltage VSS. That is, the blue light-emitting diodes B11 and B12 are connected in series to the pixel driving circuit DR13 and the system low voltage VSS. The green light-emitting diode G12 is connected in series between the pixel driving circuit DR15 and the system low voltage VSS.

[0093] The green LED G21 is connected in series between the pixel driving circuit DR22 and the system low voltage VSS. The anode of the red LED R22 (corresponding to the first LED or the third LED) is coupled to the pixel driving circuit DR24 (corresponding to the first pixel driving circuit or the second pixel driving circuit), and the cathode of the red LED R22 is coupled to the anode of the red LED R12 (corresponding to the second LED or the fourth LED) of the same color as the red LED R22 along the opposite direction of the second direction D2 extending from the data lines Ldt1 to Ldt6, and the cathode of the red LED R12 receives the system low voltage VSS. That is, the red LEDs R22 and R12 are connected in series to the pixel driving circuit DR24 and the system low voltage VSS.

[0094] The green light emitting diode G22 is connected in series between the pixel driving circuit DR25 and the system low voltage VSS. The anode of the blue light emitting diode B22 (corresponding to the first light emitting diode or the third light emitting diode) is coupled to the pixel driving circuit DR26 (corresponding to the first pixel driving circuit or the second pixel driving circuit), and the cathode of the blue light emitting diode B22 is coupled to the anode of the blue light emitting diode B21 (corresponding to the second light emitting diode or the fourth light emitting diode) of the same color as the blue light emitting diode B22 in the opposite direction of the first direction D1 extending from the scanning lines LSC1 to LSC2, and the cathode of the blue light emitting diode B21 receives the system low voltage VSS. That is, the blue light emitting diodes B22 and B21 are connected in series between the pixel driving circuit DR26 and the system low voltage VSS.

[0095] Figure 8 is a system diagram of a pixel array according to an eighth embodiment of the present invention. Figure 8 In this embodiment, the pixel array 800 includes a plurality of pixel driving circuits (taking DR11 to DR16, DR22, and DR25 as examples) and a plurality of light emitting diodes (taking red light emitting diodes R11, R12, R21, and R22, green light emitting diodes G11, G12, G21, and G22, and blue light emitting diodes B11, B12, B21, and B22 as examples). The pixel driving circuits DR11 to DR16, DR22, and DR25 receive the system high voltage VDD together.

[0096] The pixel driving circuits DR11-DR16 are commonly coupled to the scan line LSC1 to receive the scan signal Scan1, and the pixel driving circuits DR22 and DR25 are commonly coupled to the scan line LSC2 to receive the scan signal Scan2. The pixel driving circuits DR11-DR16 are commonly coupled to the emission line Lem1 to receive the emission signal EM1, and the pixel driving circuits DR22 and DR25 are commonly coupled to the emission line Lem2 to receive the emission signal EM2. The pixel driving circuit DR11 is coupled to the data line Ldt1 to receive the pixel data Data_R1, the pixel driving circuits DR12 and DR22 are coupled to the data line Ldt2 to receive the pixel data Data_G1, the pixel driving circuit DR13 is coupled to the data line Ldt3 to receive the pixel data Data_B1, the pixel driving circuit DR14 is coupled to the data line Ldt4 to receive the pixel data Data_R2, the pixel driving circuits DR15 and DR25 are coupled to the data line Ldt5 to receive the pixel data Data_G2, and the pixel driving circuit DR16 is coupled to the data line Ldt6 to receive the pixel data Data_B2.

[0097] The anode of the red light emitting diode R11 (corresponding to the first light emitting diode or the third light emitting diode) is coupled to the pixel driving circuit DR11 (corresponding to the first pixel driving circuit or the second pixel driving circuit), and the cathode of the red light emitting diode R11 is coupled to the anode of the red light emitting diode R22 (corresponding to the second light emitting diode or the fourth light emitting diode) of the same color as the red light emitting diode R11 along the angle direction of the first direction D1 extending from the scanning lines LSC1-LSC2 and the second direction D2 extending from the data lines Ldt1-Ldt6, and the cathode of the red light emitting diode R22 receives the system low voltage VSS. That is, the red light emitting diodes R11 and R22 are connected in series between the pixel driving circuit DR11 and the system low voltage VSS. The green light emitting diode G11 is connected in series between the pixel driving circuit DR12 and the system low voltage VSS.

[0098] The anode of the blue light emitting diode B11 (corresponding to the first light emitting diode or the third light emitting diode) is coupled to the pixel driving circuit DR13 (corresponding to the first pixel driving circuit or the second pixel driving circuit), and the cathode of the blue light emitting diode B11 is coupled to the anode of the blue light emitting diode B22 (corresponding to the second light emitting diode or the fourth light emitting diode) of the same color as the blue light emitting diode B11 along the angle direction of the first direction D1 extending from the scanning lines LSC1-LSC2 and the second direction D2 extending from the data lines Ldt1-Ldt6, and the cathode of the blue light emitting diode B22 receives the system low voltage VSS. That is, the blue light emitting diodes B11 and B22 are connected in series to the pixel driving circuit DR13 and the system low voltage VSS.

[0099] The anode of the red light emitting diode R12 (corresponding to the first light emitting diode or the third light emitting diode) is coupled to the pixel driving circuit DR14 (corresponding to the first pixel driving circuit or the second pixel driving circuit), and the cathode of the red light emitting diode R12 is coupled to the anode of the red light emitting diode R21 (corresponding to the second light emitting diode or the fourth light emitting diode) of the same color as the red light emitting diode R12 along the direction opposite to the first direction D1 extending from the scanning lines LSC1 to LSC2 and the angle direction of the second direction D2 extending from the data lines Ldt1 to Ldt6, and the cathode of the red light emitting diode R21 receives the system low voltage VSS. That is, the red light emitting diodes R12 and R21 are connected in series to the pixel driving circuit DR14 and the system low voltage VSS. The green light emitting diode G12 is connected in series between the pixel driving circuit DR15 and the system low voltage VSS.

[0100] The anode of the blue light emitting diode B12 (corresponding to the first light emitting diode or the third light emitting diode) is coupled to the pixel driving circuit DR16 (corresponding to the first pixel driving circuit or the second pixel driving circuit), and the cathode of the blue light emitting diode B12 is coupled to the anode of the blue light emitting diode B21 (corresponding to the second light emitting diode or the fourth light emitting diode) of the same color as the blue light emitting diode B12 along the direction opposite to the first direction D1 extending from the scanning lines LSC1-LSC2 and the angle direction of the second direction D2 extending from the data lines Ldt1-Ldt6, and the cathode of the blue light emitting diode B21 receives the system low voltage VSS. That is, the blue light emitting diodes B12 and B21 are connected in series to the pixel driving circuit DR16 and the system low voltage VSS.

[0101] The green light emitting diode G21 is connected in series between the pixel driving circuit DR22 and the system low voltage VSS. The green light emitting diode G22 is connected in series between the pixel driving circuit DR25 and the system low voltage VSS.

[0102] Fig. 9 is a system diagram of a pixel array according to a ninth embodiment of the present invention. Fig. 9 In this embodiment, the pixel array 900 includes a plurality of pixel driving circuits (taking DR11 to DR16 as an example), a plurality of light emitting diodes (taking red light emitting diodes R11, R12, green light emitting diodes G11, G12, blue light emitting diodes B11, B12 as an example), and a plurality of transistors TE11 to TE13 and TB11 to TB16. The pixel driving circuits DR11 to DR16 receive the system high voltage VDD together, and the transistors TE11 to TE13 and TB11 to TB16 are N-type transistors as an example, but the embodiment of the present invention is not limited thereto.

[0103] The pixel driving circuits DR11 to DR16 are commonly coupled to the scan line LSC1 to receive the scan signal Scan1, and the pixel driving circuits DR11 to DR16 are commonly coupled to the light emitting line Lem1 to receive the light emitting signal EM1. The pixel driving circuit DR11 is coupled to the data line Ldt1 to receive the pixel data Data_R1, the pixel driving circuit DR12 is coupled to the data line Ldt2 to receive the pixel data Data_G1, the pixel driving circuit DR13 is coupled to the data line Ldt3 to receive the pixel data Data_B1, the pixel driving circuit DR14 is coupled to the data line Ldt4 to receive the pixel data Data_R2, the pixel driving circuit DR15 is coupled to the data line Ldt5 to receive the pixel data Data_G2, and the pixel driving circuit DR16 is coupled to the data line Ldt6 to receive the pixel data Data_B2.

[0104] The anode of the red light emitting diode R11 (corresponding to the first light emitting diode or the third light emitting diode) is coupled to the pixel driving circuit DR11 (corresponding to the first pixel driving circuit or the fourth pixel driving circuit). The first end of the transistor TB11 (corresponding to the first bypass transistor or the third bypass transistor) is coupled to the cathode of the red light emitting diode R11, the control end of the transistor TB11 receives the serial disable signal PTD, and the second end of the transistor TB11 receives the system low voltage VSS, that is, the transistor TB11 is connected in series between the cathode of the red light emitting diode R11 and the system low voltage VSS.

[0105] The anode of the green light emitting diode G11 (corresponding to the first light emitting diode or the third light emitting diode) is coupled to the pixel driving circuit DR12 (corresponding to the first pixel driving circuit or the fourth pixel driving circuit). The first end of the transistor TB13 (corresponding to the first bypass transistor or the third bypass transistor) is coupled to the cathode of the green light emitting diode G11, the control end of the transistor TB13 receives the serial disable signal PTD, and the second end of the transistor TB13 receives the system low voltage VSS, that is, the transistor TB13 is connected in series between the cathode of the green light emitting diode G11 and the system low voltage VSS.

[0106] The anode of the blue light emitting diode B11 (corresponding to the first light emitting diode or the third light emitting diode) is coupled to the pixel driving circuit DR13 (corresponding to the first pixel driving circuit or the fourth pixel driving circuit). The first end of the transistor TB15 (corresponding to the first bypass transistor or the third bypass transistor) is coupled to the cathode of the blue light emitting diode B11, the control end of the transistor TB15 receives the serial disable signal PTD, and the second end of the transistor TB15 receives the system low voltage VSS, that is, the transistor TB15 is connected in series between the cathode of the blue light emitting diode B11 and the system low voltage VSS.

[0107] The first end of the transistor TB12 (corresponding to the second bypass transistor or the fourth bypass transistor) is coupled to the pixel driving circuit DR14 (corresponding to the third pixel driving circuit or the fifth pixel driving circuit), and the control end of the transistor TB12 receives the serial disable signal PTD. The anode of the red light emitting diode R12 (corresponding to the second light emitting diode or the fourth light emitting diode) is coupled to the second end of the transistor TB12, and the cathode of the red light emitting diode R12 receives the system low voltage VSS. That is, the transistor TB12 is connected in series between the pixel driving circuit DR14 and the anode of the red light emitting diode R12.

[0108] The first end of the transistor TB14 (corresponding to the second bypass transistor or the fourth bypass transistor) is coupled to the pixel driving circuit DR15 (corresponding to the third pixel driving circuit or the fifth pixel driving circuit), and the control end of the transistor TB14 receives the serial disable signal PTD. The anode of the green light emitting diode G12 (corresponding to the second light emitting diode or the fourth light emitting diode) is coupled to the second end of the transistor TB14, and the cathode of the green light emitting diode G12 receives the system low voltage VSS. That is, the transistor TB14 is connected in series between the pixel driving circuit DR15 and the anode of the green light emitting diode G12.

[0109] The first end of the transistor TB16 (corresponding to the second bypass transistor or the fourth bypass transistor) is coupled to the pixel driving circuit DR16 (corresponding to the third pixel driving circuit or the fifth pixel driving circuit), and the control end of the transistor TB16 receives the serial disable signal PTD. The anode of the blue light emitting diode B12 (corresponding to the second light emitting diode or the fourth light emitting diode) is coupled to the second end of the transistor TB16, and the cathode of the blue light emitting diode B12 receives the system low voltage VSS. That is, the transistor TB16 is connected in series between the pixel driving circuit DR16 and the anode of the blue light emitting diode B12.

[0110] A first end of the transistor TE11 (corresponding to the first series transistor or the second series transistor) is coupled to the cathode of the red light emitting diode R11, a control end of the transistor TE11 receives the series enable signal PTE, and a first end of the transistor TE11 is coupled to the anode of the red light emitting diode R12, that is, the transistor TE11 is connected in series between the cathode of the red light emitting diode R11 and the anode of the red light emitting diode R12.

[0111] The first end of the transistor TE12 (corresponding to the first series transistor or the second series transistor) is coupled to the cathode of the green light emitting diode G11, the control end of the transistor TE12 receives the series enable signal PTE, and the first end of the transistor TE12 is coupled to the anode of the green light emitting diode G12, that is, the transistor TE12 is connected in series between the cathode of the green light emitting diode G11 and the anode of the green light emitting diode G12.

[0112] The first end of transistor TE13 (corresponding to the first series transistor or the second series transistor) is coupled to the cathode of the blue light-emitting diode B11, the control end of transistor TE13 receives the series enable signal PTE, and the first end of transistor TE13 is coupled to the anode of the blue light-emitting diode B12, that is, transistor TE13 is connected in series between the cathode of the blue light-emitting diode B11 and the anode of the blue light-emitting diode B12.

[0113] In the present embodiment, transistors TE11 to TE13 jointly receive a serial enable signal PTE, and transistors TB11 to TB16 jointly receive a serial disable signal PTD, wherein the serial enable signal PTE and the serial disable signal PTD may be inverted signals to each other, or only one of the serial enable signal PTE and the serial disable signal PTD may be enabled, depending on the circuit design, but the embodiments of the present invention are not limited thereto.

[0114] Based on the above, in the present embodiment, when the transistors TE11 to TE13 are turned on, the transistors TB11 to TB16 are not turned on (or turned off), so that the cathode of the red LED R11 is coupled to the anode of the red LED R12, the cathode of the green LED G11 is coupled to the anode of the green LED G12, and the cathode of the blue LED B11 is coupled to the anode of the blue LED B12, that is, the red LED R11 is connected in series to the red LED R12, the green LED G11 is connected in series to the green LED G12, and the blue LED B11 is connected in series to the blue LED B12.

[0115] At this time, the red LEDs R11 and R12 are driven by the pixel driving circuit DR11, the green LEDs G11 and G12 are driven by the pixel driving circuit DR12, and the blue LEDs B11 and B12 are driven by the pixel driving circuit DR13, that is, the pixel driving circuits DR14 to DR16 are isolated from the red LEDs R11, R12, the green LEDs G11, G12, and the blue LEDs B11, B12. Since the pixel driving circuits DR14 to DR16 are not used to drive the red LEDs R11, R12, the green LEDs G11, G12, and the blue LEDs B11, B12, the pixel driving circuits DR14 to DR16 may not operate to save power consumption.

[0116] On the other hand, when transistors TB11-TB16 are turned on, transistors TE11-TE13 are not turned on (or turned off), so that the cathodes of the red light emitting diode R11, the green light emitting diode G11, and the blue light emitting diode B11 receive the system low voltage VSS, the anode of the red light emitting diode R12 is coupled to the pixel driving circuit DR13, the anode of the green light emitting diode G12 is coupled to the pixel driving circuit DR14, and the anode of the blue light emitting diode B12 is coupled to the pixel driving circuit DR15. At this time, the red light emitting diodes R11, R12, the green light emitting diodes G11, G12, and the blue light emitting diodes B11, B12 are driven by the free pixel driving circuits DR11-DR16, thereby displaying a picture with the original resolution.

[0117] According to the above, through the configuration of transistors TE11-TE13 and TB11-TB16, the red light emitting diodes R11, R12, the green light emitting diodes G11, G12, the blue light emitting diodes B11, B12 and the pixel driving circuits DR11-DR16 can be operated in the power saving mode or the normal display mode, so that the pixel array 900 can save power consumption in a specific application environment, such as displaying a static image or a transitional image.

[0118] Fig.10 FIG. 1 is a schematic diagram of an environment of a display device using a pixel array according to a ninth embodiment of the present invention. Fig. 9 and Fig.10 In this embodiment, for example, the pixel array 900 is applied to the display device 10 of the vehicle. Further, the user 30 (eg, a driver) may watch the road conditions (as shown in the sight line A) or the dashboard (as shown in the sight line B).

[0119] When the user 30 is watching the road (i.e., the display device 10 (i.e., the dashboard) using the pixel array 900 is outside the user's 30 line of sight A), the serial enable signal PTE is disabled and the serial disable signal PTD is enabled, so that the pixel array 900 operates in the power saving mode. When the user 30 is watching the dashboard (i.e., the display device 10 using the pixel array 900 is located in the user's 30 line of sight B), the serial enable signal PTE is enabled and the serial disable signal PTD is disabled, so that the pixel array 900 operates in the normal display mode.

[0120] In this embodiment, the camera 20 or similar components can be used to determine the sight line of the user 30, thereby determining whether the pixel array 900 operates in the power saving mode or the normal display mode.

[0121] Fig.11 is a system diagram of a pixel array according to the tenth embodiment of the present invention. Fig. 9 and Fig.11In this embodiment, 1000 has a plurality of display regions (such as display regions R1 to R3). Specifically, the display region R1 (corresponding to the first display region) is configured with, for example, pixel driving circuits DR11 to DR16, red light emitting diodes R11 and R12, green light emitting diodes G11 and G12, blue light emitting diodes B11 and B12, and transistors TE11 to TE13 and TB11 to TB16, and the display region R2 (corresponding to the second display region) is configured with, for example, pixel driving circuits DR1a to DR1f, red light emitting diodes R1a and R1b, green light emitting diodes G1a and G1b, blue light emitting diodes B1a and B1b, and transistors TE1a to TE1c and TB1a to TB1f.

[0122] The pixel driving circuits DR1a to DR1f are commonly coupled to the scan line LSC1 to receive the scan signal Scan1, and the pixel driving circuits DR1a to DR1f are commonly coupled to the light emitting line Lem1 to receive the light emitting signal EM1. The pixel driving circuit DR1a is coupled to the data line Ldta to receive the pixel data Data_Ra, the pixel driving circuit DR1b is coupled to the data line Ldtb to receive the pixel data Data_Ga, the pixel driving circuit DR1c is coupled to the data line Ldtc to receive the pixel data Data_Ba, the pixel driving circuit DR1d is coupled to the data line Ldtd to receive the pixel data Data_Rb, the pixel driving circuit DR1e is coupled to the data line Ldte to receive the pixel data Data_Gb, and the pixel driving circuit DR1f is coupled to the data line Ldtf to receive the pixel data Data_Bf.

[0123] The circuit structures of the pixel driving circuits DR11-DR16, the red light emitting diodes R11, R12, the green light emitting diodes G11, G12, the blue light emitting diodes B11, B12, and the transistors TE11-TE13 and TB11-TB16 are substantially the same as those of the pixel array 900, except that the transistors TE11-TE13 (corresponding to the first series transistors) jointly receive the first series enable signal PTE1 and the transistors TB11-TB16 (corresponding to the first bypass transistors and the second bypass transistors) jointly receive the first series disable signal PTD1.

[0124] The circuit structures of the pixel driving circuits DR1a-DR1f, the red light emitting diodes R1a, R1b, the green light emitting diodes G1a, G1b, the blue light emitting diodes B1a, B1b, and the transistors TE1a-TE1c and TB1a-TB1f are substantially the same as those of the pixel array 900, except that the transistors TE1a-TE1c (corresponding to the second series transistors) jointly receive the second series enable signal PTE2 that is independent of the first series enable signal PTE1, and the transistors TB1a-TB1f (corresponding to the third bypass transistor and the fourth bypass transistor) jointly receive the second series disable signal PTD2 that is independent of the first series disable signal PTD1.

[0125] In an embodiment of the present invention, when the display area R1 is determined to be a display hot zone based on the image data used to generate pixel data (such as Data_R1, Data_G1, Data_B1, Data_R2, Data_G2, Data_B2, Data_Ra, Data_Ga, Data_Ba, Data_Rb, Data_Gb, Data_Bb), the first series enable signal PTE1 is enabled and the first series disable signal PTD1 is disabled; when it is determined that the display area R1 is not a display hot zone, the first series enable signal TPE1 is disabled and the first series disable signal PTD1 is enabled.

[0126] Similarly, when the display region R2 is determined to be a display hot zone based on the image data, the second serial enable signal PTE2 is enabled and the second serial disable signal PTD2 is disabled; when the display region R2 is determined not to be a display hot zone, the second serial enable signal PTE2 is disabled and the second serial disable signal PTD2 is enabled.

[0127] In the embodiment of the present invention, when it is determined based on the image data that the image displayed in the display area R2 includes a dynamic image, the display area R1 is determined to be a display hotspot; similarly, when it is determined based on the image data that the image displayed in the display area R2 includes a dynamic image, the display area R2 is determined to be a display hotspot.

[0128] exist Figures 1 to 11 In the embodiments, the same or similar elements are marked with the same or similar reference numerals to make the differences between the embodiments easier to understand, but the embodiments of the present invention are not limited thereto.

[0129] In the embodiment of the present invention, the cathode of one of the red LEDs R11, R12, R21, R22 and the blue LEDs B11, B12, B21, B22 can be coupled to the anode of the same color LED along the first direction D1 extending from the scan lines LSC1-LSC2.

[0130] In the embodiment of the present invention, the cathode of one of the red LEDs R11, R12, R21, R22 and the blue LEDs B11, B12, B21, B22 is coupled to the anode of the same color LED along the direction opposite to the first direction D1 extending from the scan lines LSC1-LSC2.

[0131] In the embodiment of the present invention, the cathode of one of the red LEDs R11, R12, R21, R22 and the blue LEDs B11, B12, B21, B22 is coupled to the anode of the LED of the same color along the second direction D2 extending along the data lines Ldt1-Ldt6.

[0132] In the embodiment of the present invention, the cathode of one of the red LEDs R11, R12, R21, R22 and the blue LEDs B11, B12, B21, B22 is coupled to the anode of the same color LED along the direction opposite to the second direction D2 extending from the data lines Ldt1-Ldt6.

[0133] In the embodiment of the present invention, the cathode of one of the red light-emitting diodes R11, R12, R21, R22 and the blue light-emitting diodes B11, B12, B21, B22 is coupled to the anode of the light-emitting diode of the same color along the angle direction between the first direction D1 extending from the scan lines LSC1-LSC2 and the second direction D2 extending from the data lines Ldt1-Ldt6.

[0134] In the embodiment of the present invention, the cathode of one of the red light-emitting diodes R11, R12, R21, R22 and the blue light-emitting diodes B11, B12, B21, B22 is coupled to the anode of the light-emitting diode of the same color along the angle direction opposite to the first direction D1 extending from the scan lines LSC1 to LSC2 and the second direction D2 extending from the data lines Ldt1 to Ldt6.

[0135] In the embodiment of the present invention, the cathode of one of the red light-emitting diodes R11, R12, R21, R22 and the blue light-emitting diodes B11, B12, B21, B22 is coupled to the anode of the light-emitting diode of the same color along an angle direction opposite to the first direction D1 extending from the scan lines LSC1 to LSC2 and the second direction D2 extending from the data lines Ldt1 to Ldt6.

[0136] In the embodiment of the present invention, the cathode of one of the red light-emitting diodes R11, R12, R21, R22 and the blue light-emitting diodes B11, B12, B21, B22 is coupled to the anode of the light-emitting diode of the same color along an angle direction opposite to the first direction D1 extending from the scan lines LSC1 to LSC2 and the second direction D2 extending from the data lines Ldt1 to Ldt6.

[0137] In summary, in the pixel array of the embodiment of the present invention, the more sensitive green LED is driven independently, but the less sensitive red LED and blue LED are driven according to color groups, but the red LED and blue LED that are lit at the same time are in different positions. Therefore, the pixel array can reduce the power consumption of the LED and suppress the problem of grid points in the visual effect. In addition, through the configuration of the series transistor and the bypass transistor, the LED of the pixel array can be operated in the series mode (i.e., the power saving mode) or the independent driving mode (i.e., the normal display mode), so that the pixel array can save power consumption in a specific application environment.

[0138] Although the present invention has been disclosed as above by way of embodiments, it is not intended to limit the present invention. Any person having ordinary knowledge in the technical field may make some changes and modifications without departing from the spirit and scope of the present invention. Therefore, the protection scope of the present invention shall be determined by the scope of the attached patent application.

Claims

1. A pixel array, characterized in that: include: A plurality of pixel driving circuits are respectively coupled to one of the plurality of scanning lines to receive a scanning signal, coupled to one of the plurality of light-emitting lines to receive a light-emitting signal, and coupled to one of the plurality of data lines to receive a pixel data; A plurality of light-emitting diodes are arranged in an array, wherein an anode of a first light-emitting diode of the light-emitting diodes is coupled to a first pixel driving circuit among the pixel driving circuits, a cathode of the first light-emitting diode is coupled to an anode of a second light-emitting diode of the same color as the first light-emitting diode among the light-emitting diodes, and a cathode of the second light-emitting diode receives a system low voltage.

2. The pixel array according to claim 1, wherein: The cathode of the first light emitting diode is coupled to the anode of the second light emitting diode along a first direction in which the scanning lines extend.

3. The pixel array according to claim 1, wherein: The cathode of the first light emitting diode is coupled to the anode of the second light emitting diode along a direction opposite to a first direction in which the scan lines extend.

4. The pixel array according to claim 1, wherein: The cathode of the first light emitting diode is coupled to the anode of the second light emitting diode along a second direction in which the data lines extend.

5. The pixel array according to claim 1, wherein: The cathode of the first light emitting diode is coupled to the anode of the second light emitting diode in a direction opposite to a second direction in which the data lines extend.

6. The pixel array according to claim 1, wherein: The cathode of the first light emitting diode is coupled to the anode of the second light emitting diode along an angle direction between a first direction in which the scan lines extend and a second direction in which the data lines extend.

7. The pixel array according to claim 1, wherein: The cathode of the first light emitting diode is coupled to the anode of the second light emitting diode along an angle direction opposite to a first direction in which the scan lines extend and a second direction in which the data lines extend.

8. The pixel array according to claim 1, wherein: The cathode of the first light emitting diode is coupled to the anode of the second light emitting diode along an angle direction opposite to a first direction in which the scan lines extend and a second direction in which the data lines extend.

9. The pixel array according to claim 1, wherein: The cathode of the first light emitting diode is coupled to the anode of the second light emitting diode along an angle direction opposite to a first direction in which the scan lines extend and opposite to a second direction in which the data lines extend.

10. The pixel array according to claim 1, wherein: The first light emitting diode is one of a red light emitting diode and a green light emitting diode.

11. The pixel array according to claim 1, wherein: An anode of a third LED among the LEDs having a different color from that of the first LED is coupled to a second pixel driving circuit among the pixel driving circuits, a cathode of the third LED is coupled to an anode of a fourth LED among the LEDs having the same color as that of the third LED, and a cathode of the fourth LED receives the system low voltage.

12. The pixel array according to claim 11, wherein: The first light emitting diode and the third light emitting diode are respectively a red light emitting diode and a blue light emitting diode.

13. The pixel array according to claim 1, wherein: Also includes: A first series-connected transistor connected in series between the cathode of the first light-emitting diode and the anode of the second light-emitting diode; a first bypass transistor connected in series between the cathode of the first light emitting diode and the system low voltage; and a second bypass transistor connected in series between a third pixel driving circuit among the pixel driving circuits and the anode of the second light emitting diode, When the first series transistor is turned on, the first bypass transistor and the second bypass transistor are not turned on, and when the first bypass transistor and the second bypass transistor are turned on, the first series transistor is not turned on.

14. The pixel array according to claim 13, wherein: Also includes: a second series transistor connected in series between a cathode of a third LED different from the first LED among the LEDs and an anode of a fourth LED of the same color as the third LED, wherein an anode of the third LED is coupled to a fourth pixel driving circuit among the pixel driving circuits, and a cathode of the fourth LED receives the system low voltage; a third bypass transistor connected in series between the cathode of the third light emitting diode and the system low voltage; and a fourth bypass transistor connected in series between a fifth pixel driving circuit among the pixel driving circuits and the anode of the fourth light emitting diode, When the second series transistor is turned on, the third bypass transistor and the fourth bypass transistor are not turned on, and when the third bypass transistor and the fourth bypass transistor are turned on, the second series transistor is not turned on.

15. The pixel array according to claim 14, wherein: The first series transistor and the second series transistor receive a series enable signal together, and the first bypass transistor, the second bypass transistor, the third bypass transistor and the fourth bypass transistor receive a series disable signal together.

16. The pixel array according to claim 15, wherein: When a display device using the pixel array is located in a user's field of vision, the series enable signal is enabled and the series disable signal is disabled; when the display device using the pixel array is located outside the user's field of vision, the series enable signal is disabled and the series disable signal is enabled.

17. The pixel array according to claim 14, wherein: The invention further comprises a plurality of display areas, wherein the first series transistor in a first display area of ​​the display areas receives a first series enable signal, the second series transistor in a second display area of ​​the display areas receives a second series enable signal which is independent of the first series enable signal, the first bypass transistor and the second bypass transistor in the first display area jointly receive a first series disable signal, and the third bypass transistor and the fourth bypass transistor in the second display area jointly receive a second series disable signal which is independent of the first series disable signal.

18. The pixel array according to claim 17, wherein: When the first display area is determined to be a display hot zone based on image data, the first series enable signal is enabled and the first series disable signal is disabled; when the first display area is determined not to be the display hot zone, the first series enable signal is disabled and the first series disable signal is enabled; when the second display area is determined to be the display hot zone based on the image data, the second series enable signal is enabled and the second series disable signal is disabled; when the second display area is determined not to be the display hot zone, the second series enable signal is disabled and the second series disable signal is enabled.

19. The pixel array according to claim 18, wherein: When it is determined based on the image data that the first display area displays a dynamic image, the first display area is determined to be the display hotspot; when it is determined based on the image data that the second display area displays the dynamic image, the second display area is determined to be the display hotspot.

20. The pixel array according to claim 1, wherein: The light emitting diodes include a plurality of micro light emitting diodes.

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