Abstract: An LED spotlight includes a base and lampshade. The base includes a power connecting portion, a heat dissipating portion and circuit board which are connected to the power connecting portion; and an LED unit disposed at the circuit board for emitting first and second light. The center-to-edge distance of the circuit board is defined as a first distance. The LED unit is separated from the center of the circuit board by a second distance. The second distance equals at least 1/10 of the first distance. The lampshade includes an opaque pipe and convex lens. The pipe has one end connected to the heat dissipating portion and the other end connected to the convex lens. The first light penetrates the convex lens to form a first light-emitting area. The second light reflects off the inner wall of the pipe and penetrates the convex lens to form a second light-emitting area.

Abstract: The present invention discloses a data transmission system. The data transmission system includes a processing unit, a first serial peripheral interface circuit, and a first display interface circuit. The processing unit is arranged to determine a length of a file, divide the file into at least one sub-file according to a system resolution, and produce a file transfer command. The first serial peripheral interface circuit is arranged to transmit the file transfer command to a second serial peripheral interface circuit. The first display interface circuit is arranged to transmit the at least one sub-file to a second display interface circuit, sequentially.

Abstract: An intelligent method of building up a telecommunication network is used to set a Network Element (NE) and an Element Management System (EMS) within an in-band/out-of-band network management framework. The method provides the network element with a random address and makes it connect to the element management system according to a default remote address. After successful connection, the element management system automatically sets up, manages, and allocates the network element. If the network element cannot connect to the element management system by itself, it may receive a Link Layer Discovery Protocol packet about successful connection via multicast generated from network elements nearby. The network may likewise acquire correct connection information about successful connection to the element management system. Thus, this invention allows a newly added network element to be quickly and automatically set in the telecommunication network.

Abstract: A housing for an electronic device is provided. The housing includes a substrate made of a light-transmittable ceramic. The substrate has an outer surface and an opposite inner surface defining at least one recess configured with patterns or symbols. An opaque layer is formed on the inner surface to prevent light penetrating through the substrate except through the at least one recess.

Abstract: A hull robot includes a robot body, at least one drive module for maneuvering the robot about the hull, an on-board power source, and a motive subsystem for the drive module powered by the on-board power source. A plurality of permanent magnet elements are associated with the drive module and each are switchable between a non-shunted state when adjacent the hull and a shunted state when not adjacent the hull.

Abstract: A device housing for an electronic device is provided. The device housing includes a main body and a decorative member. The main body and the decorative each has a metallic coating with a different color. The decorative member is positioned within the main body to form a desired symbol, logo, or pattern thereon.

Abstract: A keypad assembly, comprising: a main body made of metal, the main body defining a plurality of slots and the slots enclosing a plurality of pressing buttons thereon, each pressing button defining at least one symbol slot, the main body having a contact surface and a operating surface; and a light-transmissive filling member, the filling member defining a plurality of protruding strips and the protruding strips enclosing a plurality of button areas thereon, each button area having at least one symbol block protruding therefrom, the filling member bonding to the contact surface with the protruding strips and the symbol blocks respectively engaging in the corresponding slots and the symbol slots. A method for making the present keypad assembly is also described.

Abstract: A method for power load management is provided in the present invention, wherein two different standard values are determined to be a basis for regulating power consumption. When power consumption exceeds a first standard value, a monitoring procedure is started to monitor consumption status. If the power consumption exceeds a second standard value, an unloading procedure is processed to reduce the power consumption of electrical devices under operation. In another embodiment, the present invention also provides a system for power load management comprising a control unit coupled to at least one electrical device and a power meter. By means of real-time recording of power consumption in the power meter, the control unit is capable of determining the power consumption status and determining whether it is necessary to unload or reload the at least one electrical device.

Abstract: A method for power load management is provided in the present invention, wherein two different standard values are determined to be a basis for regulating power consumption. When power consumption exceeds a first standard value, a monitoring procedure is started to monitor consumption status. If the power consumption exceeds a second standard value, an unloading procedure is processed to reduce the power consumption of electrical devices under operation. In another embodiment, the present invention also provides a system for power load management comprising a control unit coupled to at least one electrical device and a power meter. By means of real-time recording of power consumption in the power meter, the control unit is capable of determining the power consumption status and determining whether it is necessary to unload or reload the at least one electrical device.

Abstract: The present application discloses a method for performing a hole-plugging process on a circuit board. The method comprises: forming at least two locating holes on the circuit board; delivering the circuit board to a locating area of a hole-plugging screen printer, and adjusting a moving path of the circuit board in the locating area according to a locating device of the hole-plugging screen printer and the locating holes; and transporting the circuit board to a screen printing area of the hole plugging screen printer automatically according to the moving path, and adjusting a hole-plugging stencil of the hole-plugging screen printer to align an inking point of the hole-plugging stencil with a hole to be plugged on the circuit board, so as to plug ink dropped from the inking point of the hole-plugging stencil into the hole. The present application discloses a system for executing above method.

Abstract: A tube bending apparatus for bending a straight lamp tube includes a horizontal heating chamber, a vertical heating chamber and a tube bending mold. The horizontal heating chamber includes a bending tube heating zone and two pre-heating zones. The bending tube heating zone has a working temperature higher than that of the two pre-heating zones. The vertical heating chamber communicates with the horizontal heating chamber and includes a mold heating zone. The mold heating zone has a working temperature higher than or equal to that of the bending tube heating zone. The tube bending mold is heated in the mold heating zone in a working temperature to bend the straight lamp tube held and heated in the horizontal heating chamber.

Abstract: A device housing for an electronic device is provided. The device housing includes a substrate and assembling members protruding from the substrate. The substrate includes a fiber member, a metal member embedded within the fiber member, and a transparent resin layer formed on the fiber member. The fiber member defines openings. The assembling members extend through the openings and connect with the metal member. A method for making the present device housing is also provided.

Abstract: An exemplary method for making a device housing includes the following steps. Providing a substrate, and then forming a decorative coating on the substrate by paint jet printing. A device housing made by the method includes a substrate and a decorative coating formed on the substrate.

Abstract: A durable housing with a soft surface device (100) includes a substrate (10), an electrophoresis coating (20) formed on a surface of the substrate, an intermediate coating (30) formed on the electrophoresis coating, and a top coating (40) formed on the intermediate coating and configured for protecting the intermediate coating. The electrophoresis coating is made of a first resin paint. The intermediate coating is made of a second resin paint containing an isocyanate polymer and/or reaction products of the isocyanate polymer with hydroxyl groups. The top coating is made of a third resin paint an isocyanate polymer cross-linked to the second resin paint of the intermediate coating.

Abstract: A device housing for an electronic device is provided. The device housing includes a main body and a decorative member. The main body and the decorative each has a metallic coating with a different color. The decorative member is positioned within the main body to form a desired symbol, logo, or pattern thereon.

Abstract: A housing for an electronic device is provided. The housing includes a substrate made of a light-transmittable ceramic. The substrate has an outer surface and an opposite inner surface defining at least one recess configured with patterns or symbols. An opaque layer is formed on the inner surface to prevent light penetrating through the substrate except through the at least one recess.

Abstract: A hull robot includes a robot body, at least one drive module for maneuvering the robot about the hull, an on-board power source, and a motive subsystem for the drive module powered by the on-board power source. A plurality of permanent magnet elements are associated with the drive module and each are switchable between a non-shunted state when adjacent the hull and a shunted state when not adjacent the hull.

Abstract: A housing for electronic device, comprising: a substrate, the substrate having an outer surface; a metallic coating formed on at least the outer surface of the substrate, the metallic coating defining a plurality of grooves thereon and forming a pattern; and a metal pattern layer formed in the grooves. A method for making the present housing is also provided.

Abstract: A housing for electronic device, comprising: a metal substrate, the substrate having a bonding surface, a peripheral edge, and a ridge protruding from the peripheral edge and surrounding the bonding surface; a soft layer soft to the touch, the soft layer having an edge; and an adhesive layer located between the bonding surface of the substrate and the soft layer, thereby bonding the soft layer to the substrate, the ridge of the substrate blocking the edge of the soft layer. A method for making the present housing is also provided.

Abstract: A method for inlaying a gold ornament is disclosed. A substrate is provided which has an outer surface. A groove is defined in the substrate through the outer surface. A gold ornament is manufactured. The gold ornament has substantially the same shape as the groove. The gold ornament is placed in the groove wherein is positioned with metallic solder. Then the substrate is heated, whereby the melting and subsequent cooling of the solder bonds the gold ornament to the substrate. A housing for electronic device inlaid with a gold ornament made by the present method is also provided.