Abstract: A method for making an organic light emitting diode includes providing a preform structure including an anode electrode, a hole transport layer, and an organic light emitting layer stacked on each other in that order. A carbon nanotube composite structure including a polymer and a plurality of first carbon nanotubes dispersed in the polymer is also provided. The plurality of first carbon nanotubes is substantially parallel to each other, and a part of surface of the plurality of first carbon nanotubes is exposed from the polymer. The preform structure, the carbon nanotube composite structure and a cathode electrode are stacked on each other in that order.

Abstract: A method for making an organic light emitting diode includes providing a first carbon nanotube composite structure having a first surface and a second surface opposite to the first surface. The first carbon nanotube composite structure includes a polymer and a plurality of first carbon nanotubes dispersed in the polymer. A preform structure includes a support body, an anode electrode, a hole transport layer, and an organic light emitting layer stacked on each other in that order. The preform structure is located on the first surface, wherein the first surface is in direct contact with the organic light emitting layer. A cathode electrode is formed on the second surface.

Abstract: An organic light emitting diode includes a support body, an anode electrode, a hole transport layer, an organic light emitting layer and an electron transport layer stacked on each other in that order. The electron transport layer has a first surface and a second surface opposite to the first surface. The electron transport layer includes a polymer and a plurality of first carbon nanotubes dispersed in the polymer, and partial surface of the plurality of first carbon nanotubes is exposed from the first surface and spaced apart from the organic light emitting layer.

Abstract: An organic light emitting diode includes a support body, an anode electrode, a hole transport layer, an organic light emitting layer and an electron transport layer stacked on each other in that order. The electron transport layer has a first surface and a second surface opposite to the first surface. The electron transport layer includes a polymer and a plurality of first carbon nanotubes dispersed in the polymer, and partial surface of the plurality of first carbon nanotubes is exposed from the first surface and is in direct contact with the organic light emitting layer.

Abstract: A method for making an organic light emitting diode includes providing a preform structure including an anode electrode, a hole transport layer, and an organic light emitting layer stacked on each other in that order. The organic light emitting layer has a first surface and a second surface opposite to the first surface, and the second surface is in direct contact with the hole transport layer. A carbon nanotube structure is located on the first surface. A monomer solution is disposed on the carbon nanotube structure, and the monomer solution is formed by dispersing a monomer into an organic solvent. The monomer is polymerized to form a polymer, and a cathode electrode is formed on the polymer.

Abstract: A method for making an organic light emitting diode includes providing a carbon nanotube composite structure including a polymer and a plurality of first carbon nanotubes dispersed in the polymer. The polymer has a first surface and a second surface opposite to the first surface, and a partial surface of the plurality of first carbon nanotubes is exposed from the second surface of the polymer. An organic light emitting layer is formed on the second surface. A hole transport layer is formed on a surface of the organic light emitting layer away from the carbon nanotube composite structure. An anode electrode is formed on a surface of the hole transport layer away from the organic light emitting layer. A cathode electrode is formed on the first surface.

Abstract: A method for making a carbon nanotube composite structure is related. A substrate having a first surface is provided. A carbon nanotube structure including a plurality of carbon nanotubes is placed on the first surface, wherein the plurality of carbon nanotubes is in direct contact with the first surface. A monomer solution is coated to the carbon nanotube structure, wherein the monomer solution is formed by dispersing a monomer into an organic solvent. The monomer is polymerized, and then the substrate is removed.

Abstract: A method for making a carbon nanotube composite structure includes providing a polymer substrate having a first surface and a second surface opposite to the first surface. A first carbon nanotube layer including a plurality of carbon nanotubes is placed on the first surface to form a preformed structure, wherein the carbon nanotube layer and the polymer substrate are stacked with each other. The preformed structure is scanned with a laser according to a predetermined pattern. The treated preformed structure includes a first part and a second part. The first part is scanned by the laser, and the second part is not scanned by the laser. The first part includes a plurality of first carbon nanotubes, and the second part includes a plurality of second carbon nanotubes. The plurality of second carbon nanotubes is removed.

Abstract: A portable energy management device, disposed between a power outlet and an appliance load when being used, includes a transmission module, a micro processing unit, a schedule module, and a power control circuit. The transmission module communicates with a remote control device by receiving or sending a wireless signal or a cable signal, through which schedule commands are transmitted. The micro processing unit performs analysis and identification of the appliance load, and information related to the appliance load is sent to the remote control device through the transmission module. The schedule module executed by the micro-processing unit stores and runs the schedule commands. The power control circuit is controlled by schedule commands to determine whether power should be supplied.

Abstract: A portable energy management device, disposed between a power outlet and an appliance load when being used, includes a transmission module, a micro processing unit, a schedule module, and a power control circuit. The transmission module communicates with a remote control device by receiving or sending a wireless signal or a cable signal, through which schedule commands are transmitted. The micro processing unit performs analysis and identification of the appliance load, and information related to the appliance load is sent to the remote control device through the transmission module. The schedule module executed by the micro-processing unit stores and runs the schedule commands. The power control circuit is controlled by schedule commands to determine whether power should be supplied.

Abstract: A combination paper top includes a first paperboard and a second paperboard. One of the first and second paperboards is precut with a separable top top board, a separable top bottom board and a separable top sideboard. Printed layers are laid on surfaces of the first and second paperboards. The printed layers are printed with various colorful figures or words to combine education with recreation. After separated from the first and second paperboards, the top top board, the top bottom board and the top sideboard can be DIY assembled to form a hollow top main body. A support pin is inserted through the centers of the top top board and the top bottom board. A first end of the support pin serves as a spinning section, while a second end of the support pin serves as a tip of the top. The combination paper top also serves as a decoration.

Abstract: A method for reducing memory consumption when carrying out edge enhancement in a multiple beam pixel apparatus is provided, wherein Static Random Access Memories and first in first out buffers are employed. When the first to the nth input units read the next bit data, the first rows of the bit data in the first to the nth buffers are removed, and each row of bit data behind the first rows is moved towards left by one bit. The first rows of bit data in the (n+1)th to the (n+4)th buffers are stored in one end of the first to the fourth memories respectively, and a bit data is taken out from the other end of each of the memories, to be sequentially stored in the end of the first to the fourth buffers, and the read next bit data is stored in the fifth to the (n+4)th buffers.

Abstract: A color image edge enhancement method having the following steps: First, perform the halftone processing of a color image to produce a halftone image. Next, compare the dotting pattern of an edge pixel to be enhanced and the pixels in its perimeter in the halftone image with the contents of an edge enhancement table. Thus, search and obtain the dotting table and a corresponding dotting command having the most matching pattern. Then, divide the halftone image into the images of four color planes of cyan, magenta, yellow, and black colors respectively. Subsequently, compare the pattern of the edge pixel and the pixels in its perimeter in the respective color planes with the pattern in the dotting table to determine the color plane having the most matching pattern. Finally, execute the searched doting command to dot and enhance the edge pixel.

Abstract: A print control device with an embedded engine simulation module and the test method thereof are disclosed. With the engine simulation module is inserted in the print control device, the print engine signal is directly sent to the video signal processor of the print control device. The video signal processor follows the print engine signal along with the clock and video signals to print data signals, thereby testing the print control device. Therefore, adjustments of the print engine signal can directly simulate the situations of supporting different print engines.

Abstract: Fibrous composite articles and method of manufacturing the same are disclosed. The preferred fibrous materials have average fiber lengths of less than about 2 millimeters, and are obtained from industrial hemp hurd, kenaf hurd, and/or the culms of various species of vegetable bamboo. The fibers are combined with a binder resin and, optionally, a sizing agent to form a mat that is consolidated under heat and pressure to form the composite articles. The formed articles exhibit strength and durability characteristics at least roughly equivalent, if not superior, to those of conventional wood-based fibrous composite articles.

Abstract: An electron gun including a cathode, a beam forming region, an electron lens region, and a high voltage wire is provided. The beam forming region is disposed behind the cathode to make the electrons produced by the cathode become an electron beam. The beam forming region has a control electrode G1 and a screen electrode G2 sequentially. In addition, the electron lens region is adjacent to the beam forming region. The electron lens region has a focusing electrode G3, a focusing electrode G4, and a focusing electrode G5, wherein the focusing electrode G3 and the focusing electrode G4 overlap. Moreover, the high voltage wire is disposed in the electron lens region to connect the focusing electrode G3 and the focusing electrode G5. A cathode ray tube and a projector applying the electron gun are also provided.

Abstract: A method for reducing memory consumption when carrying out edge enhancement in a multiple beam pixel apparatus is provided, wherein Static Random Access Memories and first in first out buffers are employed. When the first to the nth input units read the next bit data, the first rows of the bit data in the first to the nth buffers are removed, and each row of bit data behind the first rows is moved towards left by one bit. The first rows of bit data in the (n+1)th to the (n+4)th buffers are stored in one end of the first to the fourth memories respectively, and a bit data is taken out from the other end of each of the memories, to be sequentially stored in the end of the first to the fourth buffers, and the read next bit data is stored in the fifth to the (n+4)th buffers.

Abstract: A color image edge enhancement method having the following steps: First, perform the halftone processing of a color image to produce a halftone image. Next, compare the dotting pattern of an edge pixel to be enhanced and the pixels in its perimeter in the halftone image with the contents of an edge enhancement table. Thus, search and obtain the dotting table and a corresponding dotting command having the most matching pattern. Then, divide the halftone image into the images of four color planes of cyan, magenta, yellow, and black colors respectively. Subsequently, compare the pattern of the edge pixel and the pixels in its perimeter in the respective color planes with the pattern in the dotting table to determine the color plane having the most matching pattern. Finally, execute the searched doting command to dot and enhance the edge pixel.

Abstract: A color image edge enhancement method having the following steps: Firstly, divide a color image into four color planes with the Cyan, Magenta, Yellow, and Black color (CMYK) respectively. Next, implement the halftone processing of the four respective color planes, thus generate four halftone images of the four CYMK colors. Then, compare the dotting patterns of the edge pixels to be enhanced and the pixels in its perimeter in the halftone images of the respective color planes with the patterns in an edge enhancement table, to search and obtain a dotting table and its corresponding dotting command having the most matching pattern. Finally, compare the dotting table and the corresponding dotting command having the most matching patterns with the contents of a dotting command corresponding table, to search and obtain the actual dotting command, and then execute the actual dotting commands thus obtained in dotting the edge pixel.

Abstract: A print control device with an embedded engine simulation module and the test method thereof are disclosed. With the engine simulation module is inserted in the print control device, the print engine signal is directly sent to the video signal processor of the print control device. The video signal processor follows the print engine signal along with the clock and video signals to print data signals, thereby testing the print control device. Therefore, adjustments of the print engine signal can directly simulate the situations of supporting different print engines.