91 results about "Screen techniques" patented technology

Thermoelectric devices having enhanced thermal characteristics are fabricated using multilayer ceramic (MLC) technology methods. Aluminum nitride faceplates with embedded electrical connections provide the electrical series configuration for alternating dissimilar semiconducting materials. Embedded electrical connections are formed by vias and lines in the faceplate. Methods are employed for forming tunnels through lamination and etching. A portion of the dissimilar materials are then melted within the tunnels to form a bond. Thermal conductivity of the faceplate is enhanced by adding electrically isolated vias to one surface, filled with high thermal conductivity metal paste. A low thermal conductivity material is also introduced between the two high thermal conductivity material faceplates. Alternating semiconducting materials are introduced within the varying thermal conductivity layers by punching vias within greensheets of predetermined thermal conductivity and filling with n-type and p-type paste. Alternating semiconducting materials may also be patterned in linear or radial fanout patterns through screening techniques and lamination of wire structures. A liquid channel within the faceplate is used to enhance thermal energy transfer. Thermoelectric devices are physically incorporated within the IC package using MLC technology.

Thermoelectric devices having enhanced thermal characteristics are fabricated using multilayer ceramic (MLC) technology methods. Aluminum nitride faceplates with embedded electrical connections provide the electrical series configuration for alternating dissimilar semiconducting materials. Embedded electrical connections are formed by vias and lines in the faceplate. Methods for forming tunnels through lamination and etching are employed. A portion of the dissimilar materials are then melted within the tunnels to form a bond. Thermal conductivity of the faceplate is enhanced by adding electrically isolated vias to one surface, filled with high thermal conductivity metal paste. A low thermal conductivity material is also introduced between the two high thermal conductivity material faceplates.Alternating semiconducting materials are introduced within the varying thermal conductivity layers by punching vias within greensheets of predetermined thermal conductivity and filling with n-type and p-type paste. Alternating semiconducting materials may also be patterned in linear or radial fanout patterns through screening techniques and lamination of wire structures. A liquid channel within the faceplate is used to enhance thermal energy transfer.Thermoelectric devices are physically incorporated within the IC package using MLC technology.

Techniques are disclosed for the efficient navigation of and interaction with a remoted desktop that is larger than the local viewing area. In an embodiment, a client displays both a portion of the remoted desktop in its native size, as well as a “mini-map”—a scaled-down view of the entire remoted desktop that may be used for navigation of the natively displayed portion of the remoted desktop. In an embodiment, the natively displayed portion of the remoted desktop is indicated in the mini-map. In an embodiment, use of a computer mouse and / or multi-touch gestures is used as input to navigate the natively displayed portion of the remoted desktop.

A simulation system (20) facilitates training for trainees (26) subject to multi-directional threats. A method for providing a scenario (211) for use in the simulation system (20) utilizes a scenario provision process (202) executable on a computing system (26). The process (202) calls for choosing a background image (234) for the scenario (211), and selecting a video clip(s) (386) of one or more actors (266) from a database (203) of video clips (386). The video clip(s) (386) are filmed using a green or blue screen technique, and include a mask portion (394) of the actor (266) and a transparent portion (396). The video clip(s) (386) are combined with the background image (234) to create the scenario (211), with the mask portion (394) forming a foreground image over the background image (234). The scenario (211) is displayed on a display of the simulation system (20).

The invention relates to a wood floor and a manufacturing method thereof. The wood floor with decorating patterns comprises a base material layer, a decorating pattern layer and a protective layer, wherein the decorating pattern layer is arranged on the base material layer and printed by a silk-screen technique and a transfer printing technique or a computer color printing technique, and the protective layer is arranged on the decorating pattern layer. The manufacturing method of the wood floor with the decorating patterns comprises the following steps: (a) coating base paint on the right sides of base materials and also drying the base paint; (b) sanding the base paint of the step (a) and coating a second base paint layer; (c) printing patterns on the surface of the second base paint layer of the step (b) by utilizing the silk-screen technique and the transfer printing technique or the computer color printing technique; (d) covering the protective layer on the pattern surface; and (e) cutting blanks to form floor dimensions. The invention prints the patterns on the base materials through the silk-screen technique and the transfer printing technique or the computer color printing technique so that the adhesive force of the patterns is strong, thereby enhancing the stability of the wood floor; and in addition, the invention enhances the availability of regenerated woods, thereby reducing the production cost.

The invention provides a mobile terminal. Flexible screen techniques are used, and the invention provides a mobile terminal with two display areas capable of sliding relatively. When the two display areas are in a common display state or in mutual back-to-back arrangement, the two display areas can display different display contents independently; or one of the display areas is in a storage state,and when one of the display areas slides to the surface where the other display area is located, the display areas are combined into an extended screen, and a unified and complete content is displayed in the screen, so that the effect of extending the display screen is achieved, and excellent terminal practical experience is brought to a user.

The invention relates to a liquid crystal screen technology, aims to solve the problem that white balance consistence of a whole liquid crystal screen cannot be ensured by an existing color temperature debugging method of the liquid crystal screen, and provides a GAMMA debugging method capable of improving the color temperature non-uniformity of the liquid crystal screen. According to the technical scheme, the GAMMA debugging method comprises the following steps: firstly, observing the color cast condition of the liquid crystal screen; selecting N partitions of image signals according to the cast condition, and transmitting the image signals to the liquid crystal screen; and performing GAMMA debugging by N partitions respectively. The GAMMA debugging method has the beneficial effects of convenience for a user and suitability for intelligent refrigerators.

The invention relates to a saccharomycetes used for making wine, with the preservation number of CGMCC NO.15931, which relates to the screening technique of the saccharomycetes and the application ofthe saccharomycetes in blueberry red wine fermentation. The blueberry red wine made by fermentation of the saccharomycetes has high quality, clearness and transparency orange red color and classic redwine flavor. The production of blueberry fruit creates a good development opportunity for the red wine industry, fermented wine contains a large amount of nutritional ingredients such as amino acids,vitamins and minerals and the like, and a certain physiological activator, which mainly plays a role of relaxing muscles, stimulating blood circulation and boosting metabolism, and is suitable for drinking.