Abstract: A polarizer, a display panel and a method for manufacturing the display panel are disclosed. The polarizer may include a first liquid crystal layer and a second liquid crystal layer. The second liquid crystal layer may be formed on the first liquid crystal layer and stacked on the first crystal layer. A polarity of first liquid crystal molecules in the first liquid crystal layer may be smaller than a polarity of first liquid crystal molecules in a natural state.

Abstract: A polarizer, an electronic device and a preparation method for the polarizer are provided, the polarizer including: a base film, having a side surface and defining a first region and a second region surrounding the first region on the side surface; a linear polarizing film, arranged on the side surface of the base film and covering the second region; a transparent filler, arranged in a same layer with the linear polarizing film and covering the first region; and a retardation film, covering a side of the linear polarizing film and a side of the transparent filler away from the base film.

Abstract: A polarizer, a display panel and a method for manufacturing the display panel are disclosed. The polarizer may include a first liquid crystal layer and a second liquid crystal layer. The second liquid crystal layer may be formed on the first liquid crystal layer and stacked on the first crystal layer. A polarity of first liquid crystal molecules in the first liquid crystal layer may be smaller than a polarity of first liquid crystal molecules in a natural state.

Abstract: A display panel and a display device are provided. The display panel includes a flexible screen body having a first region and a second region. The second region has a bending transitional region coplanar with the first region, a bending region, and an extending region connected in sequence. The first region is connected to the bending region through the bending transitional region and is at least a part of an active region. The bending region and the extending region are at least a part of a non-active region and not coplanar with the first region. The bending transitional region is another part of the active region or another part of the non-active region. The display panel further includes a buffer layer disposed on surfaces of the bending transitional region and the bending region at a stress concentration side thereof. At least two sections of the buffer layer have different hardnesses.

Abstract: The present disclosure relates to the field of flexibility technology and discloses a flexible module and a display device. A flexible module, includes: a flexible panel, having a bendable part; a rotating shaft mechanism, attached to a surface of the bendable part and comprising a contact surface attached to the surface of the bendable part; and a strain gauge device, at least partially disposed on the bendable part. When the bendable part has a buckling deformation, the strain gauge device is configured to acquire a deformation amount of the bendable part and give a feedback to the rotating shaft mechanism, and the rotating shaft mechanism reduces a distance between a neutral surface and the contact surface of the rotating shaft mechanism according to the deformation amount.

Abstract: A module structure includes a support film layer. The support film layer includes a film layer body and a stress relief gap disposed in the film layer body. The stress relief gap includes a layer gap, and the film layer body is divided into stacked sub-layers by the layer gap. In the module structure according to the embodiments of the present application, the stress relief gap is disposed in the film layer body of the support film layer.

Abstract: Embodiments of the present application provide an array substrate, a chip on film and an alignment method. The array substrate includes a first pin correspondingly connected with a second pin on a chip on film; a first alignment mark located in a preset alignment range of the first pin and aligned with a second alignment mark on the chip on film; and a first offset mark located in the preset alignment range of the first pin, obtained according to the first alignment mark and the second alignment mark and configured to indicate an alignment deviation between the first pin and the second pin.

Abstract: A cover film is applied to a flexible display device. The cover film includes a light incident surface and a light exit surface. A plurality of concaves are provided on the light incident surface. Each of the concaves includes a first portion, and the first portion is arch shaped. By providing the plurality of concaves with an arched structure on the cover film, the flexible display device changes a light path less during a bending process, and rainbow ripples or water ripples may be avoided, thereby improving user experience. In addition, since the plurality of concaves are the arched structures with a certain radian, the plurality of concaves have a certain concentrating effect, so that brightness of a visible region of the flexible display device can be enhanced.

Abstract: A display panel and a display device are provided. The display panel includes a flexible screen body having a first region and a second region. The second region has a bending transitional region coplanar with the first region, a bending region, and an extending region connected in sequence. The first region is connected to the bending region through the bending transitional region and is at least a part of an active region. The bending region and the extending region are at least a part of a non-active region and not coplanar with the first region. The bending transitional region is another part of the active region or another part of the non-active region. The display panel further includes a buffer layer disposed on surfaces of the bending transitional region and the bending region at a stress concentration side thereof. At least two sections of the buffer layer have different hardnesses.

Abstract: A cover film is applied to a flexible display device. The cover film includes a light incident surface and a light exit surface. A plurality of concaves are provided on the light incident surface. Each of the concaves includes a first portion, and the first portion is arch shaped. By providing the plurality of concaves with an arched structure on the cover film, the flexible display device changes a light path less during a bending process, and rainbow ripples or water ripples may be avoided, thereby improving user experience. In addition, since the plurality of concaves are the arched structures with a certain radian, the plurality of concaves have a certain concentrating effect, so that brightness of a visible region of the flexible display device can be enhanced.

Abstract: A module structure includes a support film layer. The support film layer includes a film layer body and a stress relief gap disposed in the film layer body. The stress relief gap includes a layer gap, and the film layer body is divided into stacked sub-layers by the layer gap. In the module structure according to the embodiments of the present application, the stress relief gap is disposed in the film layer body of the support film layer.

Abstract: Disclosed is a connect device, having a substrate, a connect electrode, a first to third pairs of electrodes, and the connect electrode, the first to third pairs of electrodes are paved on the substrate, and the first to third pairs of electrodes have anodes and cathodes, and the anodes of the first to third pairs of electrodes are respectively employed to connect a power supply, the anodes of the first, second organic light emitting elements, and the cathodes of the first to third pairs of electrodes are respectively employed to connect the power supply, the cathodes of the first, second organic light emitting elements for respectively and simultaneously supplying power to the first, second organic light emitting elements with the power supply. The application satisfies brightness demands to the light devices without increasing additional power consumption. An organic light emitting device is further provided.

Abstract: Embodiments of the present application provide an array substrate, a chip on film and an alignment method. The array substrate includes a first pin correspondingly connected with a second pin on a chip on film; a first alignment mark located in a preset alignment range of the first pin and aligned with a second alignment mark on the chip on film; and a first offset mark located in the preset alignment range of the first pin, obtained according to the first alignment mark and the second alignment mark and configured to indicate an alignment deviation between the first pin and the second pin.

Abstract: A white-light LED module is disclosed. The white-light LED module includes a substrate, and a red-light LED chip string, a blue-light LED chip string, and a green-light LED chip string arranged on the substrate. The red-light LED chip string, the blue-light LED chip string, and the green-light LED chip string are connected in parallel. A number of blue LED chips within the blue-light LED chip string equals to the number of green LED chips within the green-light LED chip string. The number of red LED chips within the red-light LED chip string is as double as the number of blue LED chips and the green LED chips. In this way, the light mixture performance of the red, green and blue LED chips may be enhanced.

Abstract: The disclosure is related to a light guide plate having a light-emitting surface, wherein a plurality of V-shaped grooves is formed on the light-emitting surface; each of the V-shaped grooves extends along a curved path. The V-shaped grooves of the light guide plate extend along the curved path to avoid the light guide plate from collecting light in a single direction. The interference fringes of the light guide plate are reduced, thereby improving the uniformity of light emission of the light guide plate.

Abstract: A display device and a display module. The display module includes: a blue LED chip, a yellow phosphor layer and a colour filter. A peak wavelength of a blue light emitted from the blue LED chip is in a range of 460±5 nm. The blue LED chip excites the yellow phosphor layer to emit a white light. The colour filter is disposed outside the yellow phosphor layer, and the white light emitted irradiates on colour filter. Through right shifting the peak wavelength of the blue band emitted from the blue LED chip to about 460 nm to realize the low blue energy and decrease the radiation. The transmittance of blue light of the colour filter is less than 7%, the transmission peak wavelength of blue light is in a range of 440-450 nm. The display module can decrease the energy of the blue band and ensure the display effect.

Abstract: The disclosure provides a light guiding plate, used in a backlight module. The light guiding plate comprises a main board body and a sub board body. The main board body has an illuminating surface, a back surface opposite to the illuminating surface, and a first incident surface connected with the illuminating surface and the back surface. A plurality of quantum dots is uniformly embedded inside the sub board body. The sub board body is disposed on the first incident surface. The sub board body completely covers the first incident surface. The sub board body has a second incident surface, and the second incident surface is away from the first incident surface. The second incident surface is disposed opposite to a backlight source of the backlight module. The disclosure further provides a backlight module and a display.

Abstract: A light guiding plate and a backlight module are proposed. The light guiding plate includes light guiding matrixes. Two adjacent light guiding matrixes are equally spaced and the light guiding matrixes has two adjacent light guiding units. The light guiding plate has a side closed to a light source, and sizes of the light guiding unit increases with a distance from the side. Therefore, the reflected light from the light guiding plate is improved and thus make the emitted light even. This result reduces the interference phenomenon because it can prevent the reflected light from focusing on a certain area. Or, the light guiding matrix is shaped as a fold line or a curve. This structure makes the light emitted from the entire light guiding plate even and reduces the interference phenomenon because it can prevent the reflected light from focusing on a certain area.