Abstract: A display module and an assembly method thereof are provided. The display module includes a display region, at least one connection terminal, and a plurality of connective lines. The display region, the connection terminal, and the connective lines are disposed on a same flexible substrate. A plurality of pixels is arranged within the display region. The connection terminal is arranged at an extension portion of a non-display region of the flexible substrate. The connective lines respectively connect the pixels in the display region to the connection terminal at the extension portion. The connection terminal is connected to an external circuit for receiving signals and transmitting the same to the display region.

Abstract: Display apparatuses and mounting devices are disclosed. The display apparatuses may include a display panel for displaying visual information and a mounting device coupled with the display panel and movably coupled with a supporting base. The mounting device may comprise a panel-mount interface coupled with the display panel and a receiving device capable of being configured to be at least partially embedded into the supporting base. The panel-mount interface may be coupled with the receiving device through a coupling device comprising a joining piece and at least one of a plurality of receiving holes or at least one sliding groove. The joining piece may be movable among the plurality of the receiving holes or within the at least one sliding groove.

Abstract: An embodiment of the disclosure provides an electronic apparatus including: a shape memory alloy substrate; and an electronic device disposed on the shape memory alloy substrate, wherein the shape memory alloy substrate has moisture resistance and oxygen resistance which are better than that of plastic substrates, and has impact-resistance and high stability.

Abstract: An image display comprises at least one display device having a first pair of transparent conductive layers, a second pair of transparent conductive layers spaced apart from the first pair transparent conductive layers, a display layer disposed between the first pair of transparent conductive layers, the display layer configured to display an image in response to a first set of voltages applied to the first pair of transparent conductive layers, and a light control layer disposed between the second pair of transparent conductive layers, the light control layer configured to operate in one of a transmissive mode to allow an incident light to pass toward the display layer and a reflective mode to reflect an incident light away from the display layer in response to a second set of voltages applied to the second pair of transparent conductive layers.

Abstract: A display module and an assembly method thereof are provided. The display module includes a display region, at least one connection terminal, and a plurality of connective lines. The display region, the connection terminal, and the connective lines are disposed on a same flexible substrate. A plurality of pixels is arranged within the display region. The connection terminal is arranged at an extension portion of a non-display region of the flexible substrate. The connective lines respectively connect the pixels in the display region to the connection terminal at the extension portion. The connection terminal is connected to an external circuit for receiving signals and transmitting the same to the display region.

Abstract: A flexible display device includes an operating body, a flexible display panel and a flexible air bag. The flexible display panel, connecting to the operating body, is able to be scrolled to a stored status or unscrolled to an operating status. The flexible air bag is disposed on a bottom surface of the flexible display panel, wherein the flexible display panel is inflated or vacuumed when the flexible display panel is in the operating status in order to maintain a flat surface of the flexible display panel.

Abstract: A 3D curved display device, fabrication method thereof and a plastic display panel are provided. The method includes providing a plastic display panel. The plastic display panel includes a first electrode layer formed on a first substrate, a second electrode layer formed on a second substrate, and a plurality of spacers and a display medium layer disposed between the first and the second electrode layers. A pressure source and a mold are provided to sandwich the plastic display panel to perform a molding process to form a 3D curved display device, wherein the first and the second substrates, and the first and the second electrode layers are made of plastic or elastic materials and the display medium layer is plastic, having a thickness greater than a height of the spacer before the molding process.

Abstract: An image display comprises at least one display device having a first pair of transparent conductive layers, a second pair of transparent conductive layers spaced apart from the first pair transparent conductive layers, a display layer disposed between the first pair of transparent conductive layers, the display layer configured to display an image in response to a first set of voltages applied to the first pair of transparent conductive layers, and a light control layer disposed between the second pair of transparent conductive layers, the light control layer configured to operate in one of a transmissive mode to allow an incident light to pass toward the display layer and a reflective mode to reflect an incident light away from the display layer in response to a second set of voltages applied to the second pair of transparent conductive layers.

Abstract: A display unit comprises a display medium which is writable, erasable and displayable of an image and a rotatable writehead with a number of loop conductors parallel with each other. The display medium is capable of maintaining a written image without power. In operating of writing on the display medium, the loop conductors apply an electric field to a particular area of the display medium, changing the optical state of the particular area of the display medium. In operating of writing on the display medium, there is no relative motion between the display medium and the writehead.

Abstract: The present invention relates to a plasma display panel, including a front glass substrate, a rear glass substrate, a rod, a base plate, and a screw. The rear glass substrate includes a first plane and a second plane, wherein the first plane is connected with the front glass substrate. The rod is adherent to the rear glass substrate by means of an adhesive. The base plate is tightly connected with the rear glass substrate, wherein an integrated protrusion is formed on the base plate at a location corresponding to the rod. An accommodation space is formed between the protrusion and the rear glass substrate to accommodate the rod, and the screw is provided to lock the rod onto the base plate.

Abstract: An electrode bonding structure is disclosed for reducing the thermal expansion of a circuit board during the bonding process of the circuit board and a substrate of a flat display. The electrode bonding structure includes a substrate, a circuit board, and an anisotropic conductive film ACF. A substrate dielectric layer and an indenting pad are formed on the surface of the substrate, and the inner surface of the indenting pad is lower than the surface of the substrate dielectric layer by an indenting depth H3. The circuit board is placed parallel to the substrate, and a circuit dielectric layer and a bump pad are formed on the surface of the circuit board. The bump pad is higher than the surface of the circuit dielectric layer by a height H1. The ACF is placed between the substrate and the circuit board, and the thickness of the ACF is a thickness H2.

Abstract: A plasma display device is disclosed. The plasma display device includes a plasma display panel having a display area and a non-display area, driving circuits, comparator control circuits, and heating elements mounted on the non-display area of the plasma display panel. The non-display area surrounds the display area. A part of the driving circuit and a corresponding heating element may be a Wheatstone bridge circuit. Each comparator control circuit is coupled to the Wheatstone bridge circuit so as to control the heating element. When a portion of the display area is lit, a heating element located on the adjacent non-display area is then activated through the current balance of the Wheatstone bridge circuit and under the control of the driving circuit and the comparator control circuit. Thus, the temperature difference between the display area and the non-display area is reduced.

Abstract: An electrode bonding structure is disclosed for reducing the thermal expansion of a circuit board during the bonding process of the circuit board and a substrate of a flat display. The electrode bonding structure includes a substrate, a circuit board, and an anisotropic conductive film ACF. A substrate dielectric layer and an indenting pad are formed on the surface of the substrate, and the inner surface of the indenting pad is lower than the surface of the substrate dielectric layer by an indenting depth H3. The circuit board is placed parallel to the substrate, and a circuit dielectric layer and a bump pad are formed on the surface of the circuit board. The bump pad is higher than the surface of the circuit dielectric layer by a height H1. The ACF is placed between the substrate and the circuit board, and the thickness of the ACF is a thickness H2.

Abstract: An improved high energy utilization efficiency backlighting device for liquid crystal displays is disclosed. It comprises: (a) a UV lamp with a UV transmitting quartz envelop for emitting and transmitting UV light; (b) a light guide disposed in front of the UV lamp which allows visible light to travel therethrough, the light guide having a front surface, a rear surface, and a proximal edge surface; (c) a lamp holder with a UV-reflecting interior surface, which, in cooperation with the proximal edge surface of the light guide, encloses the UV lamp; and (d) a fluorescent layer placed between the quartz envelop of the UV lamp and the proximal edge surface of the light guide capable of converting UV light into visible light. In a preferred embodiment, the UV-reflecting interior surface of the lamp holder is formed by coating with a layer of high-purity aluminum. The fluorescent layer is structured such that essentially none of the visible light converted from the UV light will travel therethrough.

Abstract: A method for stabilizing magnetic metal particles includes the steps of: (a) subjecting the magnetic metal particles to a reduction reaction; (b) isolating the reduced magnetic metal particles from air and dipping them in an organic solvent; (c) allowing the organic solvent to vaporize slowly in air, thereby forming oxidized layers on the magnetic metal particles; and (d) mixing the magnetic metal particles in step (c) with a titanate coupling agent solution to form absorbed layers of a titanate coupling agent on the surfaces of the magnetic metal particles.