Abstract: A three-dimensional reflective display device includes a reflective display panel, a lens array disposed on the reflective display panel, and a front light module disposed on the lens array. The reflective display panel includes pixel structures, and each pixel structure includes a left-eye pixel and a right-eye pixel. The lens array includes lenticular lenses extending in a first direction and arranged in a second direction perpendicular to the first direction. The lenticular lenses are respectively corresponding to the pixel structures. The front light module includes two front light components. The two front light components both include a light guide plate and a light source disposed on a light incident surface of the light guide plate, where the light incident surfaces face to each other in the second direction.

Abstract: An E-paper display panel including an E-paper display layer, a first substrate, a pixel array layer, a common electrode layer, and a driving circuit is provided. The first substrate is disposed at a first side of the E-paper display layer. The pixel array substrate is disposed between the first substrate and the E-paper display layer and includes touch electrodes and driving pixels arranged in an array. Each driving pixel includes a first pixel electrode and a second pixel electrode. The touch electrodes, the first pixel electrode, and the second pixel electrode are overlapped with each other. The common electrode layer is disposed at a second side of the E-paper display layer. The first side is opposite to the second side. The driving circuit is in signal communication with the common electrode layer and the pixel array layer. The touch electrodes are individually in signal communication with the driving circuit.

Abstract: A cover window is provided and includes a substrate and a coating layer. The substrate has a thickness of 60 to 120 ?m. The substrate has a Re of 6000 to 12000. The coating layer is coated on the substrate. The cover window has a first direction and a second direction. The first direction is a machine direction of the cover window. The second direction is perpendicular to the first direction. A tensile stress of 50 to 130 MPa is exerted in the first direction. A tensile stress of 140 to 300 MPa is exerted in the second direction. Since the substrate has a Re of 6000 to 12000, a penetrating ray of an incident ray is uniformly distributed on a visible region of the cover window, so as to reduce the phase difference between reflected rays, reduce rainbow patterns, and enhance visibility under a polarizer.

Abstract: A cover window is provided and includes a substrate and a coating layer. The substrate has a thickness of 60 to 120 ?m. The substrate has a Re of 6000 to 12000. The coating layer is coated on the substrate. The cover window has a first direction and a second direction. The first direction is a machine direction of the cover window. The second direction is perpendicular to the first direction. A tensile stress of 50 to 130 MPa is exerted in the first direction. A tensile stress of 140 to 300 MPa is exerted in the second direction. Since the substrate has a Re of 6000 to 12000, a penetrating ray of an incident ray is uniformly distributed on a visible region of the cover window, so as to reduce the phase difference between reflected rays, reduce rainbow patterns, and enhance visibility under a polarizer.

Abstract: A method for forming electrode patterns on a substrate is disclosed. A layer of conductive materials is formed on the substrate, and a portion of the conductive materials is annealed by an exposing manner. The layer of conductive materials after being exposed includes an annealed first portion and an unannealed second portion. One of the annealed first portion or the unannealed second portion is removed from the substrate to form electrode patterns on the substrate.

Abstract: A thin film touch panel structure includes a sensor film, a cover glass having a top surface and a bottom surface, and an optical adhesive layer between the sensor film and the cover glass. The sensor film is adhered to the bottom surface of the cover glass through the optical adhesive layer. The optical adhesive layer or any layer in the sensor film provides a sharp cutoff of UV light with a wavelength below 400 nm.

Abstract: A display element, a display apparatus and a fabricating method of a display element are provided. The display apparatus includes a first substrate, a second substrate and a display medium layer. The display medium layer is disposed between a first electrode layer of the first substrate and a second electrode layer of the second substrate. The display medium layer has a plurality of display elements. Each display element includes a colorized capsule, a fluid and a plurality of particles. The fluid and the particles are disposed in the colorized capsule, and the particles are charged. The fabricating method of a display element is coloring a capsule of a display element with dye to form a colorized capsule.

Abstract: A method for manufacturing a color film substrate including the following steps is provided. A substrate is provided. A first conductive black matrix extending along a first direction is formed on the substrate. A color film layer is formed on the substrate, and the normal projections of the color film layer and of the first conductive black matrix on the substrate are not overlapping. A plurality of insulating spacers is formed on the first conductive black matrix, and the height of the insulating spacers is greater than the thickness of the color film layer. A second conductive black matrix extending along a second direction and covering the insulating spacers is formed on the substrate. A passivation layer is formed for covering the first conductive black matrix, the color film layer, the insulating spacers and the second conductive black matrix. A transparent conductive layer is formed on the passivation layer.

Abstract: A touch display panel including a substrate, a touch unit, a display unit, a circuit film and a flexible circuit board is provided. The substrate has a display region and a peripheral region surrounding the display region. The touch unit is disposed on the substrate and located in the display region. The display unit is disposed on the touch unit and located in the display region of the substrate. The circuit film is disposed on the substrate and located in the peripheral region, wherein the circuit film is electrically connected to the touch unit, and the circuit film has a plurality of key patterns. The flexible circuit board is electrically connected to the touch unit and the circuit film.

Abstract: A depth map generating device. A first depth information extractor extracts a first depth information from a main two dimensional (2D) image according to a first algorithm and generates a first depth map corresponding to the main 2D image. A second depth information extractor extracts a second depth information from a sub 2D image according to a second algorithm and generates a second depth map corresponding to the sub 2D image. A mixer mixes the first depth map and the second depth map according to adjustable weighting factors to generate a mixed depth map. The mixed depth map is utilized for converting the main 2D image to a set of three dimensional (3D) images.

Abstract: A display element, a display apparatus and a fabricating method of a display element are provided. The display apparatus includes a first substrate, a second substrate and a display medium layer. The display medium layer is disposed between a first electrode layer of the first substrate and a second electrode layer of the second substrate. The display medium layer has a plurality of display elements. Each display element includes a colorized capsule, a fluid and a plurality of particles. The fluid and the particles are disposed in the colorized capsule, and the particles are charged. The fabricating method of a display element is coloring a capsule of a display element with dye to form a colorized capsule.

Abstract: A ball grid array package includes a chip having a substrate with a bottom surface, a plurality of solder bumps projecting outwardly from the bottom surface of the substrate, and an electromagnetic shield including a housing that defines an inner space which receives the chip and the solder bumps therein, and a bottom opening for access into the inner space. The solder bumps project outwardly of the inner space through the bottom opening in the housing.

Abstract: An eccentric wheel unit includes a driven shaft; a rotary arm having a first end perpendicularly fixed to the driven shaft; an eccentric hammer member defining a mass center which is spaced apart from the driven shaft about a predetermined distance; and a distance adjuster mounted within the eccentric hammer member for varying the predetermined distance. The distance adjuster has a first side connected to a second end of the rotary arm. When the driven shaft rotates, the rotary arm rotates and moves the distance adjuster to cause the mass center to move away from the driven shaft.

Abstract: A housing fabricating mechanism is used for fabricating a first housing and a second housing of a wireless communication devices, and the housing fabricating mechanism comprises a first fabricating surface of the first housing and a second fabricating surface of the second housing. Where the first fabricating surface of the first housing comprises a first hook and an inserted ditch, the second fabricating surface of the second housing comprises a second hook, an inserting end and a stopper for combining with the first housing fabricating surface. The second hook is located in the opposite position of the first hook and has an opening on the second housing for accommodating and wedging the first hook when the first housing and the second housing are fabricated together. The stopper is used for plugging the opening when the first housing and the second housing are fabricated together so as to prevent the first hook from detaching from the second hook after the two are wedged together.

Abstract: A mechanism for connecting a horizontal upper circuit board to a horizontal lower circuit board includes two insulating bodies fixed respectively on two opposite side portions of the lower circuit board, and two flexible retaining hooks fixed respectively on and projecting respectively and upwardly from the insulating bodies. Each of the insulating bodies has an inner side surface that is formed with a row of pin holes, each of which has a resilient conductive pin mounted therein. The upper circuit board is retained between the retaining hooks, and is clamped between abutment faces of the retaining hooks and upper contact portions of the conductive pins.

Abstract: A ball grid array package includes a chip having a substrate with a bottom surface, a plurality of solder bumps projecting outwardly from the bottom surface of the substrate, and an electromagnetic shield including a housing that defines an inner space which receives the chip and the solder bumps therein, and a bottom opening for access into the inner space. The solder bumps project outwardly of the inner space through the bottom opening in the housing.