TWI629548B - Transparent display panel - Google Patents

Abstract

The see-through display panel includes a substrate and a pixel array. The pixel array is formed on the substrate and includes a plurality of data lines and a plurality of scan lines. The scan lines and the data lines surround a plurality of pixel regions that are isolated from each other. Each of the pixel regions defines an opaque region and a light-transmitting region, wherein each of the light-transmitting regions is located at a relative position in the corresponding pixel region, and at least three relative positions continuously arranged along one axial direction are different.

Description

Perspective display panel

The present invention relates to a display panel, and more particularly to a see-through display panel.

The display panel defines multiple pixel areas. The pixel regions include light transmissive and opaque components. The light-transmitting elements and the opaque elements in the pixel regions are periodically arranged, so that when light penetrates the light-transmitting elements between the two-pixel regions, diffraction occurs and the display quality is affected, such as images become blurry.

Embodiments of the present invention relate to a see-through display panel that suppresses optical diffraction of light passing through a pixel region and improves display quality.

According to an embodiment of the invention, a see-through display panel is provided. The see-through display panel includes a substrate and a pixel array. The pixel array is formed on the substrate and includes a plurality of data lines and a plurality of scan lines. The scan lines and the data lines surround a plurality of pixel regions that are separated from each other, and each of the pixel regions defines an opaque region and a light transmissive region, wherein the area of each of the light transmissive regions is a corresponding pixel region. At least 50% of the area, and the transmittance of each of the light-transmitting regions is greater than or substantially equal to 30%, and each of the light-transmitting regions is located at a relative position in the corresponding pixel region. At least three relatives arranged continuously along one axial direction The location is different.

According to an embodiment of the present invention, a see-through display surface is provided board. The see-through display panel includes a substrate and a pixel array. The pixel array is formed on the substrate and includes a plurality of data lines and a plurality of scan lines. The scan lines and the data lines surround a plurality of pixel regions that are separated from each other, and each of the pixel regions defines an opaque region and a light transmissive region, wherein the area of each of the light transmissive regions is a corresponding pixel region. At least 50% of the area, and the light transmittance of each of the light-transmitting regions is greater than or substantially equal to 30%, and each of the light-transmitting regions is located at a relative position in the corresponding pixel region, and at least four are continuously arranged along one axial direction. The relative positions are different.

In order to provide a better understanding of the above and other aspects of the present invention, the following detailed description of the embodiments and the accompanying drawings

100,200‧‧‧Perspective display panel

110‧‧‧First substrate

120‧‧‧ pixel array

121‧‧‧Information line

122‧‧‧ scan line

123‧‧‧Active components

124‧‧‧Capacitor electrode

125‧‧‧pixel electrodes

PX, PX_1 to PX_8‧‧‧ pixel area

X, Y‧‧‧ axial

S1, S2, S3, S4, S5‧‧‧ spacing

T1‧‧‧light transmission area

T11‧‧‧ first perspective area

T12‧‧‧Second perspective area

T2‧‧‧Opacity zone

1A is a top plan view of a see-through display panel in accordance with an embodiment of the present invention.

1B to 1D are diagrams showing other embodiments of the see-through display panel of Fig. 1A.

2 through 6 illustrate top views of a see-through display panel in accordance with several embodiments of the present invention.

7A to 7C are schematic views showing the relative positions of three consecutive light-transmitting regions according to an embodiment of the present invention.

8A to 8C are schematic views showing relative positions of three consecutive light-transmitting regions according to another embodiment of the present invention.

1A is a top plan view of a see-through display panel in accordance with an embodiment of the present invention. The fluoroscopic display panel 100 is, for example, a liquid crystal display panel, an RGB side by side OLED panel, a white organic light emitting diode with a color filter (WOLED with color filter), or an electrowetting Display panel (Electrowetting display panel). The perspective display panel 100 of this embodiment is exemplified by a liquid crystal display panel. Since the display panel 100 of the embodiment of the present invention is transparent, the user can simultaneously see an object or a scene behind the display panel 100, and at the same time, can view the image image presented by the display panel 100. In addition, the fluoroscopic display panel 100 can be assembled to a display device (not shown). The display device can optionally include a light source module (not shown) assembled with respect to the fluoroscopic display panel 100.

The fluoroscopic display panel 100 includes a first substrate 110, a pixel array 120, a second substrate (not shown), and a liquid crystal layer (not shown), wherein the liquid crystal layer is formed between the first substrate 110 and the second substrate. The pixel array 120 is formed on the first substrate 110. The pixel array 120 includes a plurality of data lines 121, a plurality of scanning lines 122, a plurality of active elements 123, a plurality of capacitive electrodes 124, and a plurality of pixel electrodes 125. The scan lines 122 and the data lines 121 surround a plurality of pixel regions PX (isolated by the scan lines 122 and the data lines 121) that are isolated from each other. In one embodiment, each pixel region PX is a single pixel region surrounded by adjacent two data lines 121 and adjacent two scan lines 122. Each of the active elements 123, each of the capacitor electrodes 124, and each of the pixel electrodes 125 is located in a corresponding pixel area PX. At least two of the pixel regions PX are similar in shape and/or similar in area, for example, Each of the pixel regions PX of the present embodiment is approximately rectangular and/or the area of each pixel region PX is nearly uniform.

Each pixel region PX defines an opaque region t2 and a light transmitting region t1. When the area of the light-transmitting region t1 is less than 50% of the area of the corresponding pixel region PX, it may cause a diffraction phenomenon after the light of the red wavelength passes. Since the area of each of the light-transmitting regions t1 in the embodiment of the present invention is at least 50% of the area of the corresponding pixel region PX, deterioration in display quality due to diffraction can be avoided.

In addition, the light transmittance of each of the light-transmitting regions t1 is greater than or substantially equal to 30%, so that the spatial resolution recognizable by the human eye is 4 lp/mm. In detail, the spatial resolution of the human eye to the object decreases as the observation distance increases and the brightness decreases. When the human eye observes an object 40 cm away, the human eye resolution limit is about 4 lp/mm (indicating that there are 4 pairs of black and white patterns in a length of 1 mm), and the image human eyes higher than this resolution are difficult to recognize. When observing an object through a filter with a transmittance of 25%, objects with a spatial resolution of 4 lp/mm or less are still clearly identifiable, but when the transmittance is less than 25%, the identifiable spatial frequency decreases, for example, When the penetration rate is 15%, objects with a spatial frequency of 3.2 lp/mm to 4 lp/mm are not recognized. In general, since the light transmittance of each of the light-transmitting regions t1 of the present embodiment is greater than or substantially equal to 30%, the spatial resolution recognizable by the human eye is 4 lp/mm or more.

The opaque region t2 includes any opaque portion of the pixel region PX, such as an active device, a capacitor electrode, a black matrix, a data line, a scan line, and other components composed of metal or non-metal. In the pixel region PX, a region other than the opaque region t2 is defined as a light-transmitting region t1. In this embodiment, the active component 123, the electricity The capacitor electrode 124, a portion of the data line 121, and/or a portion of the scan line 122 may be located in the opaque region t2, and a portion of the pixel electrode 125 overlapping the capacitor electrode 124 is located in the opaque region t2. A portion of the pixel electrode 125 that does not overlap with the capacitor electrode 124 is located in the light transmitting region t1.

The light transmitting region t1 has a relative position in the corresponding pixel region PX, wherein at least three relative positions that are continuously arranged in the axial direction are different; thus, the optical diffraction phenomenon can be destroyed to improve the display quality (for example, when When the user looks at an object or scene behind the display panel, the object or scene is not blurred. For example, the active component 123 and the capacitor electrode 124 of the embodiment are different in at least three relative positions that are continuously arranged in the axial direction, so that at least three relative positions of the light-transmitting region t1 continuously arranged along the same axial direction are different. . The axial direction here is, for example, along the X-axis or the Y-axis.

As used herein, "relative position is different" means, for example, that the center position or centroid position of the area geometry is different. When the shape, area and/or position of the light-transmitting region t1 is changed, the relative position of the light-transmitting region t1 is also changed; or, the light-transmitting regions t1 in each pixel region PX each have a centroid. The coordinates, wherein the three centroid coordinates of the at least three light-transmitting regions t1 continuously arranged in the same axial direction are different. Further, the sizes of at least three pixel regions successively arranged in the same axial direction are substantially the same. Further, as long as at least one of the position, shape and area of the opaque region t2 and/or the light-transmitting region t1 is changed, the relative position of the light-transmitting region t1 in the corresponding pixel region PX changes accordingly.

As shown in FIG. 1A, in the case of four consecutive pixel regions PX_1, PX_2, PX_3, and PX_4 arranged along the X axis, the relative positions of the active device 123 and the capacitor electrode 124 located in the pixel region PX_1 are located in the pixel. Active element in area PX_2 The relative positions of the member 123 and the capacitor electrode 124, the relative positions of the active device 123 and the capacitor electrode 124 in the pixel region PX_3 are different from the relative positions of the active device 123 and the capacitor electrode 124 in the pixel region PX_4. The relative positions of the opaque regions t2 are different, and the relative positions of the four light-transmitting regions t1 continuously arranged in the same axial direction are different.

Further, the relative position of the active element 123 in the pixel area PX_1 is located in the lower right corner, the relative position of the active element 123 in the pixel area PX_2 is located in the lower left corner, and the relative position of the active element 123 in the pixel area PX_3 is located in the upper right corner, and The relative position of the active element 123 in the pixel area PX_4 is located at the upper left corner, so that the relative positions of the four light-transmitting areas t1 successively arranged in the same axial direction are different. In this way, the diffraction phenomenon of light passing through the pixel regions can be destroyed to improve the display quality.

As shown in FIG. 1A, the light transmitting region t1 may include a first fluoroscopic region t11 and a second fluoroscopy region t12, and the light transmittance of the first fluoroscopy region t11 is greater than the light transmittance of the second fluoroscopic region t12. For example, the light transmittance of the first fluoroscopy region t11 is greater than 50% to improve the overall transmittance of the pixel region PX; in this design, even if the second fluoroscopy region t12 is less than 50%, the optical permeable region t12 can be effectively maintained or improved. The overall penetration rate of the pixel area PX.

In addition, when there are at least two sets of different distances between the light-transmitting regions t1 of the plurality of pixel regions PX, the diffraction phenomenon that the light penetrates the pixel regions can be destroyed. The "pitch" referred to herein is, for example, the geometric center or the distance between the centroids of the two light transmitting regions t1.

As shown in FIG. 1A, in the three consecutive pixel regions PX_1, PX_2, and PX_3 arranged along the X-axis, the light-transmitting region t1 located in the pixel region PX_1 and the light-transmitting region t1 located in the pixel region PX_2. The spacing S1 is different from the pixel area PX_2 The distance S2 between the inner light-transmissive region t1 and the light-transmitting region t1 in the pixel region PX_3 causes two sets of different pitches between the three pixel regions PX_1, PX_2 and PX_3, so that the light can penetrate the light. The diffraction phenomenon of some pixel areas. In another embodiment, the plurality of transparent regions t1 in a plurality of consecutive pixel regions arranged along the same axis may have more than two sets of different pitches, and the different pitches may be gradually changed, such as increasing or decreasing. However, it is also possible to gradually increase and decrease gradually, such as increasing gradually and then decreasing, or gradually decreasing and then increasing.

In another embodiment, the N pixel regions PX along the same axial direction may have a different spacing of Na groups, where N is any positive integer equal to or greater than 3, and a is between N-2 and 1 A positive integer between. For example, if there are 20 pixel regions PX along the same axial direction (N is equal to 20), the difference between them may be between 2 groups and 19 groups. The embodiment of the present invention is not limited as long as the actual number of different distance groups can be determined according to the display quality to be achieved. When there are more sets of different spacing between several pixel areas PX, the more the light diffraction can be destroyed, the better the display quality.

The relative positions of the plurality of light-transmitting regions t1 of the present invention are not limited to the above embodiments, and other embodiments may be employed. The following is exemplified by FIGS. 1B to 1D.

1B to 1D are diagrams showing other embodiments of the see-through display panel 100 of FIG. 1A. As shown in FIG. 1B, the relative positions of the three light-transmissive regions t1 continuously arranged along the X-axis in the see-through display panel 100 of the present embodiment are different from those of the pivotable display panel 100 of FIG.

As shown in FIG. 1C, the relative positions of the three light-transmissive regions t1 which are continuously arranged in the X-axis direction in the see-through display panel 100 are different, and the relative positions of the four light-transmitting regions t1 which are continuously arranged along the Y-axis direction are different. The system is different.

With four consecutive pixel regions PX_1, PX_5, PX_6 and PX_7 arranged along the Y axis, the relative position of the active element 123 in the pixel area PX_1 is located in the lower right corner, and the relative position of the active element 123 in the pixel area PX_5 is located on the upper right side. The angle, and the relative position of the active element 123 in the pixel area PX_6 is located at the upper left corner, so that the light-transmitting area t1 of the pixel area PX1, the light-transmitting area t1 of the pixel area PX_5 and the light-transmitting area t1 of the pixel area PX_6 are opposite. The location is different. Although the relative position of the active element 123 in the pixel area PX_1 and the relative position of the active element 123 in the pixel area PX_7 are also located in the lower right corner, the capacitive electrode 124 (opaque area) and the pixel area PX_7 in the pixel area PX_1 The positions of the capacitor electrodes 124 (opaque regions) are different, and thus the relative positions of the light-transmitting regions t1 of the pixel regions PX_1 and the light-transmitting regions t1 of the pixel regions PX_7 are different. Therefore, the relative positions of the light-transmitting regions t1 of the four pixel regions PX_1, PX_5, PX_6, and PX_7 successively arranged along the Y-axis are different.

Further, with four consecutive pixel regions PX_1, PX_5, PX_6, and PX_7 arranged along the Y-axis, the distance S3 between the light-transmitting region t1 located in the pixel region PX_1 and the light-transmitting region t1 located in the pixel region PX_5 a distance S4 between the light-transmitting region t1 in the pixel region PX_5 and the light-transmitting region t1 in the pixel region PX_6, a light-transmitting region t1 located in the pixel region PX_6, and a light-transmitting region located in the pixel region PX_7 The spacing S5 of t1 has three different spacings between the four pixel regions PX_1, PX_5, PX_6 and PX_7, which can destroy the diffraction phenomenon of light penetrating through these pixel regions.

As shown in FIG. 1D, the relative positions of the five light-transmissive regions t1 which are continuously arranged in the X-axis direction in the see-through display panel 100 are different, and the relative positions of the four light-transmitting regions t1 which are continuously arranged along the Y-axis direction are different. The system is different.

With five consecutive pixel regions PX_1, PX_2, PX_3, PX_4, and PX_8 arranged along the X-axis, the relative position of the active element 123 in the pixel region PX_1 is located at the lower right corner, and the relative position of the active element 123 in the pixel region PX_2. In the lower left corner, the relative position of the active element 123 in the pixel area PX_3 is located in the upper left corner, and the relative position of the active element 123 in the pixel area PX_4 is located in the upper right corner, so that the light transmissive area t1 of the pixel area PX_1 and the pixel area PX_2 The light transmission area t1, the light transmission area t1 of the pixel area PX_3 and the relative position of the light transmission area t1 of the pixel area PX_4 are different. Although the relative position of the active element 123 in the pixel area PX_3 and the relative position of the active element 123 in the pixel area PX_8 are also located in the upper left corner, the capacitive electrode 124 (opaque area) and the pixel area PX_8 in the pixel area PX_3 The positions of the capacitor electrodes 124 (opaque regions) are different, and therefore the relative positions of the light-transmitting regions t1 of the pixel regions PX_3 and the light-transmitting regions t1 of the pixel regions PX_8 are different. Therefore, the relative positions of the light-transmitting regions t1 of the five pixel regions PX_1, PX_2, PX_3, PX_4, and PX_8 successively arranged along the X-axis are different.

2 through 6 illustrate top views of a see-through display panel in accordance with several embodiments of the present invention. The fluoroscopic display panel 200 includes a first substrate 110, a pixel array 120, a second substrate (not shown), and a liquid crystal layer (not shown), wherein the liquid crystal layer is formed between the first substrate 110 and the second substrate. The pixel array 120 is formed on the first substrate 110 and includes a plurality of data lines 121 and a plurality of scan lines 122. The scan lines 122 and the data lines 121 surround a plurality of pixel regions PX isolated from each other. Each pixel region PX includes an opaque region t2, wherein the opaque region t2 includes any opaque portion of the pixel region PX, such as an active device, a capacitor electrode, a black matrix, a data line, and a scan line. Other components made of metal or non-metal.

In this embodiment, the different positions of at least three relative positions which are continuously arranged in the axial direction through the opaque region t2 can make the relative positions of the at least three light-transmitting regions t1 continuously arranged in the axial direction different.

As shown in FIG. 2, in the three consecutive pixel regions PX_1, PX_2, and PX_3 arranged along the X-axis, the relative position of the opaque region t2 in the pixel region PX_1 and the pixel region PX_2 are not located. The relative positions of the light transmitting region t2 and the relative positions of the opaque regions t2 located in the pixel region PX_3 are different. For example, the relative position of the opaque region t2 in the pixel region PX_1 is opposite, the relative position of the opaque region t2 in the pixel region PX_2 is in the middle, and the relative position of the opaque region t2 in the pixel region PX_3 is biased. Next, the relative position of the light-transmitting region t1 in the pixel region PX_1, the relative position of the light-transmitting region t1 in the pixel region PX_2, and the relative position of the light-transmitting region t1 in the pixel region PX_3 are different. In this way, the diffraction phenomenon that the light penetrates through the pixel regions can be destroyed.

For another example, as shown in FIG. 3, in the three consecutive pixel regions PX_4, PX_6, and PX_7 arranged along the X-axis, the relative position of the opaque region t2 in the pixel region PX_4 is located in the pixel region PX_6. The relative positions of the inner opaque regions t2 and the relative positions of the opaque regions t2 located in the pixel regions PX_7 are different. For example, the relative position of the opaque region t2 in the pixel region PX_4 is set, the relative position of the opaque region t2 in the pixel region PX_6 is lower, and the relative position of the opaque region t2 in the pixel region PX_7 is biased. The relative position of the light-transmitting region t1 in the pixel region PX_4, the relative position of the light-transmitting region t1 in the pixel region PX_6, and the relative position of the light-transmitting region t1 in the pixel region PX_7 are different. In this way, the diffraction phenomenon that the light penetrates through the pixel regions can be destroyed.

For another example, as shown in Fig. 4, three consecutive rows along the X axis In the pixel regions PX_1, PX_2, and PX_3, the relative position of the opaque region t2 in the pixel region PX_1, the relative position of the opaque region t2 in the pixel region PX_2, and the pixel located in the pixel region PX_3 The relative positions of the light transmitting regions t2 are different. For example, the relative position of the opaque area t2 in the pixel area PX_1 is opposite, the relative position of the opaque area t2 in the pixel area PX_2 is leftward, and the relative position of the opaque area t2 in the pixel area PX_3 is lower. The relative position of the light-transmitting region t1 in the pixel region PX_1, the relative position of the light-transmitting region t1 in the pixel region PX_2, and the relative position of the light-transmitting region t1 in the pixel region PX_3 are different. In this way, the diffraction phenomenon that the light penetrates through the pixel regions can be destroyed.

In addition, three consecutive pixel regions are arranged along the same axial direction, and each of the opaque regions t2 located in the three pixel regions may extend along the same axial direction or in an axial direction substantially perpendicular to the same axial direction. With the pixel regions PX_1, PX_2, and PX_3 arranged along the X-axis, the long axis of the opaque region t2 in the pixel region PX_1 and the long axis of the opaque region t2 in the pixel region PX_3 are substantially Extending along the X-axis, the long axis of the opaque region t2 in the pixel region PX_2 is substantially perpendicular to the X-axis, that is, extending in the Y-axis direction.

Further, for example, as shown in FIG. 5, the relative positions of the plurality of opaque regions t2 in the plurality of pixel regions PX successively arranged in the same axial direction are similar, but several pixels continuously arranged in the same axial direction. The relative positions of the plurality of opaque regions t2 in the region PX are different. The relative positions of the opaque regions t2 in the pixel region PX_1, the relative positions of the opaque regions t2 in the pixel region PX_4, and the pixels are obtained by three consecutive pixel regions PX_1, PX_4, and PX_5 arranged along the Y-axis. The relative positions of the opaque regions t2 in the region PX_5 are all above, so that the relative position of the light-transmitting region t1 in the pixel region PX_1, the relative position of the light-transmitting region t1 in the pixel region PX_4, and the light-transmitting region in the pixel region PX_5 The relative position of t1 is roughly The same is true; for three consecutive pixel regions PX_1, PX_2 and PX_3 arranged along the X axis, the relative position of the opaque region t2 in the pixel region PX_1 is opposite, and the relative opacity region t2 in the pixel region PX_2 is opposite. The position is on the right side, and the relative position of the opaque area t2 in the pixel area PX_3 is lower, so that the relative position of the light-transmitting area t1 in the pixel area PX_1, the relative position of the light-transmitting area t1 in the pixel area PX_2, and the pixel The relative positions of the light-transmitting regions t1 in the region PX_3 are different, so that the diffraction phenomenon of light passing through the pixel regions can be destroyed.

Further, for example, as shown in FIG. 6, the relative positions of the plurality of opaque regions t2 in the plurality of pixel regions PX successively arranged in the same axial direction are similar, but a plurality of pixels continuously arranged in the same axial direction. The relative positions of the plurality of opaque regions t2 in the region PX are different. The relative positions of the opaque regions t2 in the pixel region PX_1, the relative positions of the opaque regions t2 in the pixel region PX_4, and the pixels are obtained by three consecutive pixel regions PX_1, PX_4, and PX_5 arranged along the Y-axis. The relative positions of the opaque regions t2 in the region PX_5 are all above, so that the relative position of the light-transmitting region t1 in the pixel region PX_1, the relative position of the light-transmitting region t1 in the pixel region PX_4, and the light-transmitting region in the pixel region PX_5 The relative positions of t1 are substantially the same; for three consecutive pixel regions PX_1, PX_2 and PX_3 arranged along the X axis, the relative position of the opaque region t2 in the pixel region PX_1 is upward, and the pixel region PX_2 is not The relative position of the light-transmitting region t2 is shifted to the right, and the relative position of the opaque region t2 in the pixel region PX_3 is centered, so that the relative position of the light-transmitting region t1 in the pixel region PX_1 and the light-transmitting region in the pixel region PX_2 The relative position of t1 is different from the relative position of the light-transmitting region t1 in the pixel region PX_3, so that the diffraction phenomenon of light passing through the pixel regions can be destroyed.

In summary, the distribution area of the opaque component (such as the active component, the capacitor electrode, the black matrix, and/or other parts of the opaque material (such as metal)) The opaque area t2 of the PX area, the light-transmitting material (such as a transparent pixel electrode) and/or the distribution area of the hollow area define the light-transmitting area t1 of the pixel area PX. The relative position of the opaque region t2 in the pixel region PX may be up, down, left, right, centered or other relative relationship, thereby designing the relative position of the light transmitting region t1. As long as the relative positions of the light-transmitting regions t1 in at least three pixel regions PX along the same axial direction (eg, along the X-axis or the Y-axis) are different, or at least along the same axial direction (eg, along the X-axis or the Y-axis) The centroid coordinates of the light-transmitting region t1 in the three pixel regions PX may be different, and the embodiment of the present invention does not limit the relative position, area and/or shape of the light-transmitting region t1 in the pixel region PX.

7A to 7C are schematic views showing the relative positions of three consecutive light-transmitting regions t1 according to an embodiment of the present invention. The pixel area PX defines the light transmitting area t1 and the opaque area t2, and the portion other than the opaque area t2 belongs to the light transmitting area t1. That is to say, the light-transmitting region t1 in the pixel region PX is complementary to the opaque region t2.

As shown in Fig. 7A, the areas of the light-transmitting regions t1 of the three consecutive pixel regions PX arranged in the same axial direction are substantially the same, but the distribution regions are different, and thus the relative positions thereof are also different. As shown in Fig. 7B, the areas of the light-transmitting regions t1 of the three consecutive pixel regions PX arranged in the same axial direction are different, and thus the relative positions thereof are also different. As shown in Fig. 7C, the shapes of the light-transmitting regions t1 of the three consecutive pixel regions PX arranged in the same axial direction are different, and thus the relative positions thereof are also different. In Fig. 7C, one side of the light transmitting region t1 is a hypotenuse. In another embodiment, at least one side of the light transmitting region t1 may be a beveled edge or an arced edge.

8A to 8C are schematic views showing the relative positions of three consecutive light-transmitting regions t1 according to another embodiment of the present invention. The pixel area PX defines the light transmitting area t1 and the opaque area t2, and the portion other than the opaque area t2 belongs to the light transmitting area t1.

In this embodiment, the light transmitting region t1 includes a first fluoroscopic region t11 and a second fluoroscopy region t12. The light transmittance of the first fluoroscopy area t11 is greater than the light transmittance of the second fluoroscopy area t12. For example, the light transmittance of the first fluoroscopic region t11 is greater than 50%, and the light transmittance of the second fluoroscopy region t12 may be less than 50%, and the overall light transmittance of the light-transmitting region t1 of the pixel region PX is still effectively maintained. Greater than or substantially equal to 30%.

In conclusion, the present invention has been disclosed in the above preferred embodiments, and is not intended to limit the present invention. A person skilled in the art can make various changes and modifications 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.

Claims (15)

A fluoroscopic display panel comprising: a substrate; and a pixel array formed on the substrate and comprising: a plurality of data lines; and a plurality of scan lines surrounding the plurality of pixel regions isolated from each other Each of the pixel regions defines an opaque region and a light transmissive region, wherein each of the light transmissive regions has an area corresponding to at least 50% of an area of the pixel region, and transmittance of each of the light transmissive regions More than or substantially equal to 30%, and each of the light transmissive regions is located at a relative position in the corresponding pixel region, and at least three of the relative positions are continuously arranged along an axial direction; wherein each of the pixels The zone is a single pixel zone surrounded by two adjacent data lines and two adjacent scan lines. The fluoroscopic display panel of claim 1, wherein the pixel array further comprises: a plurality of active components, each of the active components being located in the corresponding opaque region. The fluoroscopic display panel of claim 1, wherein the pixel array further comprises: a plurality of capacitor electrodes, each of the capacitor electrodes being located in the corresponding opaque region. The fluoroscopic display panel of claim 1, wherein the pixel array further comprises: a plurality of pixel electrodes, each of the pixel electrodes being located in the corresponding light transmissive region. The fluoroscopic display panel of claim 1, wherein the area of each of the pixel regions is substantially the same. The fluoroscopic display panel of claim 1, wherein each of the pixel regions has a similar shape. The fluoroscopic display panel of claim 1, wherein the N pixel regions include a Na group of different spacings, wherein N is a positive integer equal to or greater than 3, and a is between N-2 and A positive integer between 1. The fluoroscopic display panel of claim 7, wherein the N-a group is spaced apart by a gradient. The fluoroscopic display panel of claim 1, wherein the relative position of each of the light transmitting regions is a centroid position. The see-through display panel of claim 1, wherein the plurality of relative positions that are successively arranged along the other axial direction are substantially the same. The fluoroscopic display panel of claim 1, wherein the light transmissive area further comprises a first fluoroscopy area and a second fluoroscopy area, wherein the first fluoroscopy area has a light transmittance greater than the second The transmittance of the see-through area. The see-through display panel of claim 11, wherein the first see-through region has a light transmittance greater than 50%. The fluoroscopic display panel of claim 1, wherein at least three of the pixel regions successively arranged along the axial direction have substantially the same area. The fluoroscopic display panel of claim 1, wherein at least one side of each of the light transmitting regions is a beveled edge or an arced edge. A fluoroscopic display panel comprising: a substrate; and a pixel array formed on the substrate and comprising: a plurality of data lines; and a plurality of scan lines surrounding the plurality of pixel regions isolated from each other Each of the pixel regions defines an opaque region and a light transmissive region, wherein each of the light transmissive regions has an area corresponding to at least 50% of an area of the pixel region, and transmittance of each of the light transmissive regions Greater than or substantially equal to 30%, and each of the light transmissive regions is located corresponding to the painting a relative position in the prime region, wherein at least four of the relative positions are consecutively arranged along an axial direction; wherein each of the pixel regions is surrounded by two adjacent data lines and two adjacent scan lines A single pixel area.