Industrial Technology Research Institute

David Nan-Chou Liu

Jammy Chin-Ming Huang

Jin-Yuh Lu

Jyh-Haur Tyan

Jin-Yuh Liu

Snow brush

Seat back with armrest

A two-part field emission structure, and a method for making such a structure, is described. A substrate is provided having a first conductive layer thereon, a first insulating layer over the first conductive layer, a second conductive layer over the first insulating layer, and an opening formed in the first insulating and second conductive layers. A sacrificial layer is formed over the second conductive layer. A bottom portion of the field emitter structure is formed in the opening, by vertical deposition of a conductive material, whereby a third conductive layer, having a collimated channel over the bottom portion, is formed over the sacrificial layer. The formation of the field emitter structure is completed by vertical deposition of a tip material on to the top of the bottom portion of the field emitter structure, whereby a top conductive layer is formed over the third conductive layer. Lastly, the sacrificial layer, the third conductive layer, and the top conductive layer are removed. An optional interface adhesion layer is formed between the bottom portion of the field emitter structure and the tip.

Two-part field emission structure

This invention provides a method of fabrication and structure for spacers between the anode substrate and the cathode substrate of a field emission display. The spacers have a high aspect ratio and which will be invisible to the human eye in the display image. An adhesive dielectric paste of glass frit in a binder is formed in cylindrical holes in a photoresist layer. Glass spacer spheres are placed on each column of dielectric paste. When fired the glass frit coalesces into a solid glass rod and bonds the glass spacer sphere to one end of the solid glass rod and the anode substrate to the other end of the solid glass rod. The firing also burns away the photoresist layer. The dark area in the image due to the spacers is less than 50 micrometers which will be invisible to the human eye.

Invisible spacers for field emission displays

Described are methods for making, and resultant structures of, a field emission display with soft luminescence and a comfortable image for a viewer of the display. The field emission display is formed with a baseplate and an opposing face plate. Field emission microtips are formed in openings in a conductive and insulating layer on the baseplate. An anode is formed on either the faceplate, or on the conductive layer surrounding each opening. Phosphorescent material is formed over the anode, A blocking layer is formed between the phosphor and the faceplate, such that during operation of the display direct light emission from the phosphor is blocked, resulting in indirect phosphorescence and a more comfortable display image. An optional reflective layer may be added over the conductive layer to increase phosphorescence.

Soft luminescence of field emission display

A new method for forming an anode plate for a color flat panel Field Emission Displays (FEDS) having improved gettering, was accomplished. The method involves forming on a transparent insulating plate (glass) an array of pixels of three phosphors comprising the primary colors and having in or/and around the array of pixels gettering material to provide more efficient gettering of volatile material from the FED cavity. The electrons are injected into the pixels when the electron field emitters are electrically accessed via the address and image forming circuits. The injected electrons heat and activate the gettering material in and around the pixels and provide very effective gettering in the FED cavity.

Method of manufacturing a flat panel field emission display having auto

A new method for forming an anode plate for a color flat panel Field Emission Displays (FEDs) having improved gettering, was accomplished. The method involves forming on a transparent insulating plate (glass) an array of pixels of three phosphors comprising the primary colors and having in or/and around the array of pixels gettering material to provide more efficient gettering of volatile material from the FED cavity. The electrons are injected into the pixels when the electron field emitters are electrically accessed via the address and image forming circuits. The injected electrons heat and activate the gettering material in and around the pixels and provide very effective gettering in the FED cavity.

A field emission display with improved viewing characteristics is described. The field emission display is formed with a baseplate and an opposing face plate. Field emission microtips are formed in openings in a conductive and insulating layer on the baseplate. An anode is formed on either the faceplate, or on the conductive layer surrounding each opening. Phosphorescent material is formed over the anode. A blocking layer is formed between the phosphor and the faceplate, such that during operation of the display direct light emission from the phosphor is blocked, resulting in indirect phosphorescence and a more comfortable display image. An optional reflective layer may be added over the conductive layer to increase phosphorescence.

Field emission display with improved viewing Characteristics

A high luminescence display, and methods for making such a display, are described. A faceplate for a display device having a glass face is provided, having phosphor elements on the glass face. There are reflective elements, on the glass face and adjacent to the phosphor elements, with surfaces angled toward the phosphor elements, whereby light emitted from the phosphor elements reflects off the reflective elements and travels through the glass face. The reflective elements may be formed of, for example, aluminum, and be directly adjacent to the phosphor, or offset from it.

Growing community of inventors

Chutung, Taiwan

David Nan-Chou Liu