Abstract: A touch panel for a touch sensitive liquid crystal display is disclosed. The touch panel is a multiplier expandable with a combination of two or more independent basic conductive patterns. The combination of basic conductive patterns devised for a touch panel made the display profile diversified as building blocks. Different display profile can be made including but not limited to landscape, portrait, L, T, U, C, Z, N, and cross. The combination of basic conductive patterns devised for a touch panel also simplifies the structure of a touch sensitive expandable display system and therefore shorten the timing for developing new large touch sensitive display products.

Abstract: A touch panel includes a substrate, a first and a second patterned conductive layers respectively disposed on an upper surface of the substrate and a lower surface opposite to the upper surface. The substrate has a first sensing area and a first circuit bonding area located on the upper surface. The first patterned conductive layer includes a plurality of first sensing series and a plurality of first dummy patterns respectively located in the first sensing area and the first circuit bonding area. Each of the first sensing series is electrically insulated from each other and has a first terminal extending into the first circuit bonding area. The first dummy patterns surround each first terminal and are electrically insulated from each first terminal. A plurality of first dummy patterns intervenes between any two adjacent first terminals in the first circuit bonding area.

Abstract: A flexible print circuit bonding structure of an electronic device is provided. The electronic device has a viewing area, a tracing area and a bonding area, wherein the tracing area is disposed between the viewing area and the bonding area. The flexible print circuit bonding structure includes a substrate. A transparent conductive layer is disposed on the substrate and extends from the tracing area to the bonding area. A metal trace layer is disposed on the transparent conductive layer at the tracing area, but does not extend to the bonding area. An anisotropic conductive film is disposed on the transparent conductive layer at the bonding area and directly contacts the transparent conductive layer. Then, a flexible print circuit is bonded to the anisotropic conductive film.

Abstract: There is provided a touch panel including a substrate, at least one laser blocking layer and at least one transparent conductive layer. The at least one laser blocking layer is formed on at least one of a first surface and a second surface of the substrate. The at least one transparent conductive layer is formed on at least one of the first surface and the second surface of the substrate, and a plurality of etching trenches having irregular edges are formed on the transparent conductive layer using UV laser.

Abstract: A touch device and a fabrication method thereof are provided. The touch device includes a cover lens, a light shielding pattern disposed on the cover lens, a UV cut layer disposed on the light shielding pattern and the cover lens, and a plurality of transparent conductive patterns disposed on the UV cut layer, wherein the transparent conductive patterns are formed by using a laser beam to etch a transparent conductive layer.

Abstract: A touch operating display device is disclosed, including: a back light device; a first polarizing film disposed on the back light device; an operating device disposed on the first polarizing film; a liquid crystal layer disposed on the operating device; a first transparent conductive layer disposed on the liquid crystal layer; an interval layer disposed on the first transparent conductive layer; a second transparent conductive layer disposed on the interval layer; and a second polarizing film disposed on the second transparent conductive layer.

Abstract: A touch panel includes a substrate, a first and a second patterned conductive layers respectively disposed on an upper surface of the substrate and a lower surface opposite to the upper surface. The substrate has a first sensing area and a first circuit bonding area located on the upper surface. The first patterned conductive layer includes a plurality of first sensing series and a plurality of first dummy patterns respectively located in the first sensing area and the first circuit bonding area. Each of the first sensing series is electrically insulated from each other and has a first terminal extending into the first circuit bonding area. The first dummy patterns surround each first terminal and are electrically insulated from each first terminal. A plurality of first dummy patterns intervenes between any two adjacent first terminals in the first circuit bonding area.

Abstract: A touch panel including a substrate, a first patterned conductive layer, a second patterned conductive layer and a circuit board is provided. The substrate has a first surface, a second surface, a first bonding area and a second bonding area. The first patterned conductive layer disposed on the first surface includes first sensing series electrically insulated from each other. The second patterned conductive layer disposed on the second surface includes second sensing series electrically insulated from each other. The circuit board includes a rigid portion, a first flexible bonding portion and a second flexible bonding portion. The first flexible bonding portion and the second flexible bonding portion are electrically connected to the rigid portion. The first flexible bonding portion is electrically connected to the first sensing series in the first bonding area. The second flexible bonding portion is electrically connected to the second sensing series in the second bonding area.

Abstract: A field emission device (FED) includes a top substrate having an anode electrode and a phosphor layer, a lower substrate, at least one cathode electrode having an opening-pattern with at least one opening, an insulating layer located on the cathode electrode, a gate layer located on the insulating layer, and an electron emitter located in the opening of the cathode electrode. The electron emitter is adjacent to the cathode electrode and is electrically connected therewith. The cathode electrode having the opening-pattern is located on a bottom panel. Through the structure illustrated above, uniformity of emitting electron density can be improved and brightness and contrast of color for the FED can be enhanced.

Abstract: The present invention provides an electron amplification plate placed between a first substrate and a second substrate of a field emission display device. The electron amplification plate comprises at least two insulating layers for electrical insulation; and at least one conductive electrode layer having plural apertures, wherein the conductive electrode layer is sandwiched between the insulating layers. The surface of the inner wall of the apertures is coated with an electron-amplifying material for multiplying the quantity of electrons as the surface is impacted. The inner wall of each aperture comprises an upper concave wall and a lower concave wall, and the lower concave wall is used for collecting electrons, and the upper concave wall is used for focusing electrons. Thereby, the electron beam emitted from the emitters can be effectively amplified, and color purity of the field emission display device is high.

Abstract: A field emission display (FED) device, which includes a top substrate, a bottom substrate, and an intermediate plate set located between the top substrate and the bottom substrate. The top substrate has a phosphor layer and an anode. The bottom substrate has a cathode, and an electron emitter. The intermediate plate set has a metal plate with multiple holes, an insulating layer with multiple holes, and a gate layer. In the FED device, the insulating layer is located between the gate layer and the metal plate for electrical insulation, and the gate layer has a gap from the bottom substrate. Thus, the processing steps prepared for the bottom substrate can be reduced to thereby prevent the electron emitters from damage. The number of electrons bombarding on the phosphor layer is effectively increased to thereby increase the brightness and color contrast on pixels.

Abstract: A field emission device (FED) includes a top substrate having an anode electrode and a phosphor layer, a lower substrate, at least one cathode electrode having an opening-pattern with at least one opening, an insulating layer located on the cathode electrode, a gate layer located on the insulating layer, and an electron emitter located in the opening of the cathode electrode. The electron emitter is adjacent to the cathode electrode and is electrically connected therewith. The cathode electrode having the opening-pattern is located on a bottom panel. Through the structure illustrated above, uniformity of emitting electron density can be improved and brightness and contrast of color for the FED can be enhanced.

Abstract: A field emission device (FED) includes a top substrate having a fluorescent layer and an anode electrode, a bottom substrate, at least one cathode electrode having a platform and at least one protrusion, an insulating layer having an opening-pattern or groove-pattern, at least one gate layer located on the insulating layer, and an electron emitter located on the protrusion of the cathode electrode, where the electron emitter can act as side emission of electrons. Each of the platform and the protrusion have a height different from each other, and that the protrusion is located in the opening of the insulating layer. Through the structure illustrated above, uniformity of emitting electron density can be improved and brightness and contrast of color for the FED can be enhanced.

Abstract: A field emission display device includes three parts: a cathode emitter unit, an electron amplification unit, and a faceplate unit. The primary emission of electrons emitted from the cathode emitter unit bombards an electrode layer that includes an electron amplification material in order to generate secondary emissions of electrons. The secondary emissions of electrons bombard a light-emitting layer of the faceplate unit to generate fluorescence. Then, the fluorescence is transmitted through a transparent faceplate for viewing.

Abstract: The present invention provides a spacer placed between a top substrate and a bottom substrate for a field emission display device. The spacer comprises at least two insulating layers for electrical insulation; and at least one metal layer sandwiched between the insulating layers, wherein the metal layer has plural apertures for electrons passing therethrough and disturbing pathway of electrons as the electrons impact the apertures.

Abstract: The present invention provides an electron amplification plate placed between a first substrate and a second substrate of a field emission display device. The electron amplification plate comprises at least two insulating layers for electrical insulation; and at least one conductive electrode layer having plural apertures, wherein the conductive electrode layer is sandwiched between the insulating layers. The surface of the inner wall of the apertures is coated with an electron-amplifying material for multiplying the quantity of electrons as the surface is impacted. The inner wall of each aperture comprises an upper concave wall and a lower concave wall, and the lower concave wall is used for collecting electrons, and the upper concave wall is used for focusing electrons. Thereby, the electron beam emitted from the emitters can be effectively amplified, and color purity of the field emission display device is high.

Abstract: A field emitting luminous device is disclosed. The device includes a cathode electron emitting unit, an electron amplifying unit, a panel unit, and an electric power supply unit. The primary electrons emitted from the cathode electron emitting unit hit the electron amplifying material on the electrode surface of the electron amplifying unit, generating amplified secondary electrons. The secondary electrons bombard the light-emitting layer of the panel unit, producing fluorescence. The fluorescence penetrates the upper transparent panel and is thus observed by eyes.

Abstract: A field emission display device includes three parts: a cathode emitter unit, an electron amplification unit, and a faceplate unit. The primary emission of electrons emitted from the cathode emitter unit bombards an electrode layer that includes an electron amplification material in order to generate secondary emissions of electrons. The secondary emissions of electrons bombard a light-emitting layer of the faceplate unit to generate fluorescence. Then, the fluorescence is transmitted through a transparent faceplate for viewing.

Abstract: A field emitting luminous device is disclosed. The device includes a cathode electron emitting unit, an electron amplifying unit, a panel unit, and an electric power supply unit. The primary electrons emitted from the cathode electron emitting unit hit the electron amplifying material on the electrode surface of the electron amplifying unit, generating amplified secondary electrons. The secondary electrons bombard the light-emitting layer of the panel unit, producing fluorescence. The fluorescence penetrates the upper transparent panel and is thus observed by eyes.

Abstract: A two-step two-piece high-pressure casting process for the fabrication of a scroll member containing a generally circular end plate, a scroll hub on one side of the end plate and an involute wrap on the other side thereof. The involute wrap is pre-fabricated from a wear-resistant alloy or aluminum alloy based composite having low liquidus temperature which is placed inside the involute groove of a scroll mold. The scroll mold contains a mobile scroll mold and a stationary scroll mold. The mobile scroll mold contains a first cavity having the shape of the scroll hub; whereas the stationary scroll mold contains a second cavity having the shape of the circular end plate and an involute groove disposed below the second cavity.