Abstract: A display device includes a translucent windscreen, particularly the windscreen of a motor vehicle, a narrow-band light source that emits light into the windscreen via an edge thereof, and a periodic structure formed in the windscreen that bends the light from the light source toward the eye of a driver.

Abstract: There is disclosed a method of and apparatus for predictive tracking for a head mounted display. The method comprises obtaining one or more three-dimensional angular velocity measurements from a sensor monitoring the head mounted display and setting a prediction interval based upon the one or more three-dimensional angular velocity measurements such that the prediction interval is substantially zero when the head mounted display is substantially stationary and the prediction interval increases up to a predetermined latency interval when the head mounted display is moving at an angular velocity of or above a predetermined threshold. The method further includes predicting a three-dimensional orientation for the head mounted display to create a predicted orientation at a time corresponding to the prediction interval, and generating a rendered image corresponding to the predicted orientation for presentation on the head mounted display.

Abstract: A head-mounted display device includes an image display unit which displays an image. The head-mounted display device includes: a microphone unit including an audio input unit which converts a sound into an electrical signal and capable of switching a position of the audio input unit between a plurality of positions; a position determination unit which determines which position of the plurality of positions the audio input unit is located at; and a mode switching control unit which switches an operation of the audio input unit and a display mode of the image display unit, respectively, on the basis of the determined position.

Abstract: A spectacle lens for a display device can be fitted on the head of a user and generate an image. The spectacle lens body can include a front side, a rear side, a coupling-in section in an edge area of the spectacle lens and a coupling-out section in a central area of the spectacle lens, two opposing reflecting surfaces in the area of the coupling-in section, and facets embedded in the area of the coupling-in section in the spectacle lens body between the two reflecting surfaces and arranged next to each other in the direction from the coupling-in to the coupling-out section in a first and an adjoining second area. The facets in the first area can be partially reflective or reflective. The facets in the second area can be partially reflective. Directly neighboring facets in the second area can be connected by a partially transparent or wholly transparent face.

Abstract: A spectacle lens for a display device that can be fitted on the head of a user and generate an image. A coupling-in section in an edge area of the spectacle lens and a coupling-out section in a central area of the spectacle lens. The spectacle lens is suitable for coupling light bundles of pixels of the generated image into the spectacle lens via the coupling-in section, guiding them in the spectacle lens to the coupling-out section and coupling them out of the spectacle lens via the coupling-out section. The coupling-in section can divide at least one of the light bundles into several first sub-bundles and couple them into the spectacle lens offset from each other in a first direction such that the first sub-bundles are guided in the spectacle lens to the coupling-out section along a second direction running transverse with respect to the first direction.

Abstract: Systems, devices, and methods for eyebox expansion by exit pupil replication in wearable heads-up displays (“WHUDs”) are described. A WHUD includes a scanning laser projector (“SLP”), a holographic combiner, and an exit pupil selector positioned in the optical path therebetween. The exit pupil selector is controllably switchable into and between N different configurations. In each of the N configurations, the exit pupil selector receives a light signal from the SLP and redirects the light signal towards the holographic combiner effectively from a respective one of N virtual positions for the SLP. The holographic combiner converges the light signal to a particular one of N exit pupils at the eye of the user based on the particular virtual position from which the light signal is made to effectively originate. In this way, multiple instances of the exit pupil are distributed over the eye and the eyebox of the WHUD is expanded.

Abstract: A light guide prism for guiding image light from a display device to an observer's eye and displaying a virtual image of the display device in the observer's field of view includes at least four sides disposed to surround an optical path of image light incident from one end, a reflecting surface configured to reflect the image light guided by the at least four sides, and an emission surface configured to emit the image light reflected at the reflecting surface towards the observer's eye. At least one groove in a V-shape is formed on each of the at least four sides. As a result, a light guide prism that reduces stray light and ghost light occurring due to reflection at inner surfaces and an image display apparatus using this light guide prism can be provided.

Abstract: Provided is a light guide prism including: an incident surface on which image light from a display device is incident; one or more reflection surfaces which reflect the image light incident thereon, the reflection surfaces including at least an emission side reflection surface; and an emission surface forming an acute angle with the emission side reflection surface and emitting the image light reflected by the emission side reflection surface, toward an eyeball of an observer. In one aspect, the light guide prism includes a prism tip disposed as protruding from an end of the emission side reflection surface and from an end of the emission surface, in a direction in which a width between the emission side reflection surface and the emission surface narrows. Further provided is an image display apparatus including: a display device which emits image light; the light guide prism; and a support.

Abstract: Provided is a light guide prism including: an incident surface; one or more reflection surfaces, the reflection surfaces including at least an emission side reflection surface; and an emission surface, in which the light guide prism has a tip face positioned between the emission side reflection surface and the emission surface, the tip face most protruding from an end of the emission side reflection surface and from an end of the emission surface in a direction in which a width between the emission side reflection surface and the emission surface narrows, the tip face being a curved face. Further provided is an image display apparatus including: a display device; the light guide prism; and a support.

Abstract: A light guide prism that is used by being placed in front of a user's eye and guides image light from a display device to the user's eye for observation as a virtual image includes a first light-guiding portion, a second light-guiding portion, and a level difference positioned between the first light-guiding portion and the second light-guiding portion. In a state of use in front of the user's eye, the second light-guiding portion is positioned at a front side of the user's eye, the first and second light-guiding portions each have uniform thickness, a vertical thickness of the second light-guiding portion being less than a vertical thickness of the first light-guiding portion with the level difference as a boundary, and the level difference extends at an inclination with respect to an exit optical axis of the light guide prism so as not to enter the user's field of view.

Abstract: The present invention relates to a transparent near-eye display device. The near-eye display device includes a main case providing a containing space to include an electronic component assemble; a see-through display unit mechanically connected with the main case and electrically connected with the electronic component assemble; and an attaching unit configured on the main case and attachable to a spectacle-based frame.

Abstract: An electronic device comprising: a memory; a display unit; a communication unit; and at least one processor operatively coupled to the memory, the display unit, and the communication unit, configured to: output a light pattern by using one or more pixels that are part of the display unit; receive, via the communication unit, one or more signals that are transmitted by a wearable device in response to the light pattern; identify a screen display area corresponding to the wearable device based on respective positions of the one or more pixels and the one or more signals.

Abstract: A head mounted display (HMD) system is disclosed for presentation of visual images in which a post render processing unit (PRU) is built into the HMD to offload operations usually performed by the graphics processing unit (GPU) in the computer that is rendering the computer graphical images (CGI). The PRU takes advantage of local access to tracking and other sensors to reduce the latency traditionally associated with augmented and virtual reality operation.

Abstract: A display device is provided with: a display module that is provided with a first display region and a second display region; an optical member that faces the second display region, and that has a transmissive mirror portion; and a positioning member. The display module and the optical member respectively have end faces in contact with the positioning member, and end faces as free ends.

Abstract: The invention describes a focal length extender for a telescopic imaging system with interchangeable viewing eyepieces, including a cylindrical housing, which has a first and a second stop plane which are perpendicular to its cylinder axis in the direction of the light with associated connecting elements to the telescope body and for interchangeable viewing eyepieces and in which the housing has a relay lens arranged between the first stop plane and the second stop plane, wherein the relay lens is divided in two and consists of a first positive, neutral or negative lens element and a further negative lens element, wherein between the first and the further lens element, a beam splitter surface is arranged downstream at an angle to the optical axis of the imaging system and the first and further lens element together with the distance therebetween has an overall negative refractive power.

Abstract: A method for producing an optical apparatus includes providing a pair of glass wafers. One or more diffractive optical elements (DOEs) are formed on one or more of the glass wafers. A spacer is positioned between the glass wafers so as to define a cavity containing the DOEs, and a hermetic seal that bonds the glass wafers together and seals the cavity is formed.

Abstract: A lens driving device includes a housing having a base, an upper cover engaged with the base, and a receiving space formed by the base and the upper cover; a permanent magnet mounting base arranged on the base; a permanent magnet fixed on the permanent magnet mounting base; a lens barrel used for holding a lens group therein and movable along a direction parallel to an optic axis of the lens group; a driving coil surrounding an outer surface of the lens barrel, and opposite to the permanent magnet mounted on the permanent magnet mounting base; an anti-shake coil opposite to the permanent magnet mounted on the permanent magnet mounting base; an elastic part suspending and connecting with the lens barrel; an OIS elastic part fixed to an upper surface of the permanent magnet mounting base for restoring the permanent magnet mounting base to a predetermined position.

Abstract: The eyewear material is an eyewear material containing thermoplastic polyurethane. The eyewear material has a tan ? peak at both less than 0° C. and 0° C. or more and 70° C. or less observed in dynamic viscoelasticity measurement in tensile mode under the measurement conditions of a temperature increase speed of 5° C./min and a measurement frequency of 10 Hz.

Abstract: A fluid-filled eyewear includes a frame body, a fluid-filled lens mounted on the frame body, and an optical poser adjusting device disposed within the frame body. The optical power adjusting device includes a reservoir for storing a fluid and disposed in fluid communication with the fluid-filled lens, and an actuation module. The actuation module includes a tilt sensor configured to sense a tilt angle of the frame body and to output a signal indicative of the tilt angle, an actuator operable to cause the fluid to flow between the reservoir and the fluid-filled lens, and a controller configured to receive the signal from the tilt sensor and to control operation of the actuator according to the tilt angle indicated by the signal.

Abstract: A method to make dyed functional film comprising the steps of providing a soluble polymer material; adding an appropriate solvent to the polymer material to make a soluble polymer solution; providing a soluble dye; adding an appropriate solvent to the dye to make a soluble dye solution; adding the dye solution to the polymer or PVA solution, and introducing the dyed polymer or PVA solution to a solution casting device; removing a thin dyed functional film from the casting device; and letting the dyed functional film dry and solidified.

Abstract: Coupling modulation of an optical resonator employs a variable modal index to provide modulation of optical signal coupling. A coupling-modulated optical resonator includes an optical resonator having a coupled portion and a bus waveguide having a modulation section adjacent to and coextensive with and separated by a gap from the coupled portion. The modulation section is to modulate coupling of an optical signal between the optical resonator and the bus waveguide according to a variable difference between a modal index of the bus waveguide modulation section and a modal index of the optical resonator coupled portion.

Abstract: A method and an apparatus for manufacturing an optical display device by sequentially peeling a plurality of optical film sheets continuously supported on a long web of a carrier film and laminating the plurality of optical film sheets to a plurality of panel components are provided. After completing laminating operation of a preceding optical film sheet to a preceding panel component, a rear end of next optical film sheet, supported on a carrier film which in a state where one of opposite surfaces thereof is folded to inside at a tip-end of a peeling member, is read at a predetermined detecting position as positional information, then a leading end of an optical film sheet is positioned at a predetermined laminating position based on the positional information while peeling the optical film sheet from the carrier film.

Abstract: An object of the present invention is to protect exposed inspection pads with a conductive tape when the application of resin is ceased and to enhance the reliability of the inspection pads. A liquid crystal display device is provided with a transparent electrode formed on a superficial side of a CF board, a grounded electrode, an inspection pad and a switching device between the inspection pad and a signal line or a scanning line respectively formed in a terminal area a TFT board and a conductive tape that electrically connects the transparent electrode of the CF board, the grounded electrode and the inspection pad respectively of the TFT board.

Abstract: An object is to provide an optical sheet that keeps efficiency of light utilization high or prevents something bad from occurring in a screen, while having a light blocking effect. Included are a substrate layer; and an optical function layer that is layered on the substrate layer, and has a plurality of light transmission parts which are arranged in a row so as to be light-transmissive, and light absorption parts that are arranged between adjacent ones of the light transmission parts so as to be light-absorptive. A cross-sectional area of each of the light transmission parts to a total cross-sectional area of one of the light transmission parts and one of the light absorption parts which are adjacent to each other is 78.2% to 88.5%, or optical diffuse reflectance of the optical sheet in a light output surface side is 1.9% to 3.5%.

Abstract: The embodiments of the invention disclose a display substrate, a method for fabricating the same and a liquid crystal display panel. The display panel is used for constructing a transflective liquid crystal display panel comprising a transmissive region and a reflective region. The display substrate comprises an alignment layer which comprises a first alignment structure in the transmissive region and a second alignment structure in the reflective region. The first alignment structure is an oblique alignment structure and the second alignment structure is a vertical alignment structure.

Abstract: Disclosed are a display panel and a method of manufacturing a display panel. The display panel according to an exemplary embodiment of the present invention includes a lower substrate; an upper substrate facing the lower substrate; a sealing member interposed between the lower substrate and the upper substrate and configured to bond the lower substrate and the upper substrate; and a short pattern formed outside the sealing member from the sides of the lower substrate and the upper substrate, in which the short pattern is formed to be spaced apart at a predetermined interval or formed over the entire peripheries of the lower substrate and the upper substrate.

Abstract: A liquid crystal panel comprises a first substrate which is transparent and is provided with a transparent electrode and a wiring part having light-shielding properties, a second substrate which is transparent and is provided with a light-shielding layer having a first opening and is disposed opposite to the first substrate so that the transparent electrode faces the first opening, a liquid crystal part disposed between the first substrate and the second substrate, and a sealing part configured to seal the liquid crystal part between the first substrate and the second substrate. The light-shielding layer has a second opening. The sealing part has light-shielding properties and is configured to close the second opening.

Abstract: A dehydration method for liquid crystal display comprises the steps: Step 1) leading the liquid crystal into a closed container filling with desiccant, desiccant directly contacting to the liquid crystal, the water could be absorbed by desiccant to keep the moisture content below 25 ppm; Step 2) leading the dried liquid crystal into a filter to insulate the large size pellets off; Step 3) deaerating the filtered liquid crystal in the vacuum; Step 4) leading the deaerated liquid crystal into an infusion equipment, and then pouringing them onto a base. The desiccant could fast absorb the water with directly contacting with the liquid crystal. The drying way is replayed by the directly contacting way to absorb the water in the liquid crystal effectually and improve the dehydration effectively. Not only get a steady Gamma value but also reduce the difference between the gray scale transition and the normal level.

Abstract: A liquid crystal display panel and a fan-out area thereof are provided. The fan-out area is arranged in a peripheral circuit area of the liquid crystal display panel and includes a middle wire and multiple fan-out wires arranged at two sides thereof. The middle wire and the fan-out wires each are disposed with at least one first wire pattern. Along each of directions toward the middle wire, widths of the first wire patterns of different wires are successively increased and/or lengths of the first wire patterns are successively decreased. The first wire patterns of a same wire have same width and length. Accordingly, the present invention can reduce the resistance differences among the wires in the fan-out area, color washout and non-uniform brightness caused by the resistance differences can be relieved or avoided, and is beneficial to the narrow border design of the liquid crystal display panel.

Abstract: A high-contrast electro-optic liquid crystal camera iris (10) provides angle independent transmission for uniform gray shades. The liquid crystal iris comprises a combination of first and second liquid crystal devices (12, 14) arranged in optical series and positioned between optical polarizers (46, 48). The director field (18) of the second liquid crystal device is a mirror image of the director field (16) of the first liquid crystal device, and the first and second liquid crystal devices are placed together so that the azimuthal directions (42) of the surface-contacting directors (18c, 22c) are in parallel alignment at the adjoining or confronting surfaces of the substrates (242, 321) of the first and second liquid crystal devices. The liquid crystal iris provides, therefore, less angular variation of intermediate transmittances compared with that provided by prior art liquid crystal irises.

Abstract: The embodiments of the present invention disclose an array substrate, a liquid crystal display panel and a display device. Low temperature compensation circuits one-to-one corresponding to the data lines are added to the peripheral area of the array substrate; each low temperature compensation circuit comprises a first branch and a second branch connected in parallel; wherein the first branch comprises a divider resistance; the second branch comprises a diode and a capacitance connected in series; in the second branch the position of the diode and the position of the capacitance can be interchanged.

Abstract: The present invention provides an array substrate and a liquid crystal display panel using the array substrate. The array substrate includes: a glass substrate (20), a gate terminal (22) formed on the glass substrate (20), a gate insulation layer (23) formed on the gate terminal (22), source/drain terminals (24) formed on the gate insulation layer (23), an oxide semiconductor layer (25) formed on the source/drain terminals (24) and the gate insulation layer (23), a protective layer (26) formed on the oxide semiconductor layer (25), the source/drain terminals (24), and the gate insulation layer (23), a color filter (27) formed on the protective layer (26), a planarization layer (28) formed on the color filter (27) and the protective layer (26), and a pixel electrode (29) formed on the planarization layer (28).

Abstract: The present invention provides an array substrate and a liquid crystal display panel using the array substrate. The array substrate includes: a glass substrate (20), a gate terminal (22) formed on the glass substrate (20), a gate insulation layer (23) formed on the gate terminal (22), an oxide semiconductor layer (24) formed on the gate insulation layer (23), source/drain terminals (25) formed on the oxide semiconductor layer (24) and the gate insulation layer (23), a protective layer (26) formed on the oxide semiconductor layer (24), the source/drain terminals (25), and the gate insulation layer (23), a color filter (27) formed on the protective layer (26), a planarization layer (28) formed on the color filter (27) and the protective layer (26), and a pixel electrode (29) formed on the planarization layer (28).

Abstract: The invention refers to a technical problem of display device, and discloses a display device. The display device includes a backlight source, a rubber frame provided on the backlight source, a LGP and an optical film layer provided in the rubber frame, and shading bars lapping over the rubber frame and the optical film layer respectively, and further includes a display panel, which contains a display panel border lapping over the rubber frame. In the above technical solution, the rubber frame is used for a supporter to support the display panel. Specifically, the display panel border exposed from the display panel laps over the rubber frame, so that the rubber frame is able to support the border as a supporter when the display panel is pressed.

Abstract: A first inner cover includes a plate portion that includes a first surface that is opposed to the back surface of a liquid crystal unit; and a second surface that is the surface at the opposite side of the first surface. The plate portion includes a boss that extends from the second surface in the thickness direction of the plate portion. Furthermore, the plate portion includes a recessed portion that has a predetermined area of the first surface recessed, including an area at the opposite side of the boss.

Abstract: A liquid crystal display structure includes a liquid crystal display panel, a backlight assembly arranged on one side of the liquid crystal display panel, and a polarizer arranged on a side of the liquid crystal display panel opposite from the backlight assembly. The liquid crystal display structure includes a display area and a non-display area surrounding the display area. The polarizer includes a first section and a second section, the first section being located in a central portion of the polarizer and corresponding in position to the display area, and the second section surrounding the first section and corresponding to the non-display area. The second section of the polarizer defines at least one through hole between every two adjacent corners of the second section.

Abstract: Exemplary embodiments disclosed herein provide a LCD assembly including an LED backlight, a liquid crystal display (LCD) placed in front of the LED backlight, a glass plate positioned between LED backlight and the LCD; and an optical film positioned between the glass plate and the LCD. In some embodiments, the glass plate is bonded to the rear side of the LCD, generally around the perimeter of the LCD. Preferred embodiments place a diffusing film within a cavity that is defined between the glass plate and the LCD. Some embodiments also bond the backlight cavity walls to the glass plate, on a side opposing the LCD.

Abstract: A display assembly includes front and rear bezel members each defining a frame around a display opening. The front bezel member is capable of secure attachment to the rear bezel member at an interface that defines at least one gap. A display panel is retained against the rear face of the rear bezel member. At least one additional panel member is retained in the gap between the front and rear bezel members, such as a touch panel or EMI panel. The display panel, EMI panel, and touch panel are each individually removable from the display assembly.

Abstract: A display device includes: a display panel, a laminated member, a light blocking layer, and an alignment pattern. The display panel includes a display area. The laminated member is positioned on at least one surface of the display panel. The light blocking layer is positioned outside the display area and is disposed on one of the display panel or the laminated member. The alignment pattern is disposed on the other of the display panel and the laminated member correspondingly to an edge of the light blocking layer, and is configured to measure a misalignment between the display panel and the laminated member.

Abstract: A display device includes a first substrate on which a thin film transistor is formed and which is divided into a display area and a non-display area outside thereof, a second substrate arranged to face an upper surface of the first substrate. a light-shielding film provided in an area between the first substrate and the second substrate, and a circuit provided on an upper surface of the second substrate and in an area facing the display area. The second substrate includes a terminal part of the circuit, which is provided on the upper surface of the second substrate and in an area facing the non-display area. The terminal part is connected with a circuit driving substrate, which drives the circuit through an anisotropic conductive film covering the terminal part. The light-shielding film is provided to avoid at least part of an area facing the terminal part.

Abstract: The present invention provides a large power circuit and a manufacture method thereof. The large power circuit comprises a color filter substrate and an array substrate which are opposed, and a floating ITO pattern is positioned in an outer region of the color filter substrate, and contact holes are positioned in an outer region of the array substrate where is close to an inner region of the array substrate, and the contact holes are electrically connected to wirings in the inner region of the array substrate, and positions of the contact holes match with the floating ITO pattern, and conductors are located between the contact holes and the floating ITO pattern for conducting electric currents. The present invention also provides a corresponding manufacture method of the large power circuit. The requirements for CVD apparatus can be reduced according to the large power circuit and the manufacture method thereof of the present invention.

Abstract: Provided is a liquid crystal display (LCD) apparatus including: a first substrate including a first region realizing an image and a second region which transmits external light; a second substrate facing the first substrate; a liquid crystal layer disposed between the first substrate and the second substrate; a first polarizer arranged on a surface of the first substrate; and a second polarizer arranged between the second substrate and the liquid crystal layer and comprising a first polarization region positioned in the first region and a second polarization region positioned in the second region and having a polarization axis different from a polarization axis of the first polarization region.

Abstract: An array substrate and a fabricating method thereof and a display apparatus are provided. The array substrate comprises a base substrate, a pixel electrode layer formed on the base substrate, and a first wire grid polarizing film disposed on a surface of the pixel electrode layer, wherein the first wire grid polarizing film includes a plurality of first metal lines (L1) which are mutually parallel and are periodically arranged; the surface of the pixel electrode layer is a surface of the pixel electrode layer facing the base substrate or a surface of the pixel electrode layer opposite to the base substrate. The array substrate and the fabricating method thereof and the display apparatus can facilitate an ultrathin design.

Abstract: A liquid crystal display panel includes a first substrate, a second substrate, a liquid crystal layer sandwiched between the first substrate and the second substrate, a color filter having a plurality of first color barriers, second color barriers, and third color barriers. A lower alignment layer is disposed on the first substrate having a plurality of first lower alignment units, second lower alignment units, and third lower alignment units corresponding to the plurality of first color barriers, second color barriers, and third color barriers, respectively. An upper alignment layer is disposed on the second substrate having a plurality of first upper alignment units, second upper alignment units, and third upper alignment units corresponding to the plurality of first color barriers, second color barriers, and third color barriers, respectively. A lower regionalized polarizer is disposed on the first substrate, and an upper regionalized polarizer is disposed on the second substrate.

Abstract: The present disclosure provides a liquid crystal display panel. The liquid crystal display panel includes an upper substrate configured with a color filter having a plurality of first color barriers, second color barriers, and third color barriers, a lower substrate configured with a thin film transistor array facing toward the upper substrate, a liquid crystal layer sandwiched between the upper substrate and the lower substrate, an upper polarizer disposed on the upper substrate having a second absorption axis, a lower polarizer disposed on the lower substrate having a first absorption axis that is orthogonal to the second absorption axis, and a regionalized polarizer having a plurality of first polarizing units, second polarizing units, and third polarizing units with polarization directions forming a first angle, a second angle, and a third angle with the polarization direction of the upper polarizer respectively.

Abstract: A display panel includes a first substrate, a second substrate corresponding to the first substrate, a plurality of color films formed on one side of the first substrate and dividing the first substrate into a plurality of color film regions and a plurality of light shielding regions, a first polarizer formed on the first substrate, and a second polarizer formed on the second substrate. The first polarizer includes a plurality of first regions corresponding to the color film regions and a plurality of second regions corresponding to the light shielding regions. The direction of the polarization axis of the second regions is different from the polarization direction of the first regions. The second polarizer is configured to be combined with the first polarizer to cause light passing through the second polarizer to be transmitted through the first regions and to be blocked by the second regions.

Abstract: The present disclosure provides a liquid crystal display panel. The liquid crystal display panel includes an upper substrate, a lower substrate, a liquid crystal layer sandwiched between the upper and lower substrates, an upper regionalized polarizer disposed on the upper substrate including a plurality of first upper polarizing units and second upper polarizing units, and a lower regionalized polarizer disposed on the lower substrate including a plurality of first lower polarizing units and second lower polarizing units. The first lower polarizing units correspond to the first upper polarizing units. The second lower polarizing units correspond to the second upper polarizing units. The first upper polarizing units and the second upper polarizing units have mutually orthogonal polarization directions. The first lower polarizing units and the first upper polarizing units have mutually orthogonal polarization directions.

Abstract: A liquid crystal display panel includes a first substrate and a second substrate arranged opposite to the first substrate, a liquid crystal layer disposed between the first substrate and the second substrate, a first alignment layer, a second alignment layer, a first organic film layer, and a second organic film layer. The display panel includes a plurality of regions arranged in an array, and n regions form a region group, n being an integer and n?3. The first alignment layer has a first alignment direction and is disposed on the first substrate, and the first alignment direction in each of the n regions is different. The second alignment layer has a second alignment direction and is disposed on the second substrate, the second alignment direction in each of the n regions is different, and the second alignment direction is same as the first alignment direction in a same region.

Abstract: A display panel includes a first transparent substrate and a second transparent substrate arranged opposite to the first transparent substrate, and multiple sub-regions arranged in an array, including a first sub-region and an adjacent second sub-region. The display panel also includes a first organic film layer configured on the first transparent substrate and a second organic film layer configured on the second transparent substrate. The first organic film layer and the second organic film layer comprise a polymer doped with a dichroic organic dye. The display panel also includes a first alignment layer configured on the surface of the first transparent substrate facing the second transparent substrate, and a second alignment layer configured on the surface of the second transparent substrate facing the first transparent substrate; and a liquid crystal layer sandwiched between the first transparent substrate and the second transparent substrate.

Abstract: A display panel and fabrication method is provided. The display panel includes a first transparent substrate, a second transparent substrate, a plurality of sub-regions arranged in a matrix, a first organic film layer formed and a first alignment layer formed on the first transparent substrate, a second organic film layer and a second alignment layer formed on the second transparent substrate, and a liquid crystal layer sandwiched between the first transparent substrate and the second transparent substrate. Further, the plurality of sub-regions arranged in the matrix include at least one first sub-region and at least one second sub-region. The first organic film layer has a first polarization axis in the first sub-region, the second organic film layer has a second polarization axis in the first sub-region, the first polarization axis has an angle ? with the second polarization axis, wherein 89°???91°.