Abstract: A network connection method is used for allowing a portable electronic device to connect to a node in a mesh network environment. The method includes the steps of: searching a plurality of nodes; determining whether there is a specific node in the plural of nodes; if yes, setting the specific node as a bridging point; if not, setting a node with the strongest signal strength in the plurality of nodes as the bridge point; and broadcasting to the other nodes via the bridge point under the mesh network environment.

Abstract: A message notification method is applied to a message transmitting-receiving device with a memory module, and the message transmitting-receiving device is linked to a first electronic device. The message notification method includes the steps of receiving a memo message from the first electronic device, and storing the memo message in the memory module; sending a broadcast signal; receiving a connection signal transmitted by a second electronic device after the second electronic device receives the broadcast signal; and linking the message transmitting-receiving device and the second electronic device according to the connection signal, and sending the memo message to the second electronic device.

Abstract: A network connection module, a computer program, and a network connection method thereof are disclosed. The method is used for allowing a portable electronic device to connect to a node in a mesh network environment. The method includes the steps of: searching a plurality of nodes; determining whether there is a specific node in the plural of nodes; if yes, setting the specific node as a bridging point; if not, setting a node with the strongest signal strength in the plurality of nodes as the bridge point; and broadcasting to the other nodes via the bridge point under the mesh network environment.

Abstract: A message notification method is disclosed. The message notification method is applied to a message transmitting-receiving device with a memory module, and the message transmitting-receiving device is linked to a first electronic device. The message notification method includes the following steps of: receiving a memo message from the first electronic device, and storing the memo message in the memory module; sending a broadcast signal; receiving a connection signal transmitted by a second electronic device after the second electronic device receives the broadcast signal; and linking the message transmitting-receiving device and the second electronic device according to the connection signal, and sending the memo message to the second electronic device.

Abstract: A method for controlling a plurality of lamps is applied to an electrical apparatus, such that the user can control the plurality of lamps by the electrical apparatus. The method includes the following steps: receiving a plurality of different identification codes, with the identification codes representing each of the lamps respectively; setting at least two different identification codes of the plurality of identification codes to be in the same control group according to a group setting command; and setting the control parameter of each of the plurality of lamps represented by each of the plurality of different identification codes of the same control group to be the same.

Abstract: A dual-purpose lamp includes a power-converting module, a light-emitting module and a control unit. The power-converting module is used for generating a direct current. The light-emitting module is electrically connected with the power-converting module. The light-emitting module includes an illuminative light-emitting body and a scenario light-emitting body, and the illuminative light-emitting body and the scenario light-emitting body are connected with each other in parallel. The control unit is electrically connected with the power-converting module and is used for controlling the power-converting module to adjust the brightness of the illuminative light-emitting body when light is emitted, or to adjust the color, the brightness or the chroma of the scenario light-emitting body when light is emitted.

Abstract: A fuel cell pack is disclosed. The fuel cell pack has N membrane electrode assemblies, N?1 connected conductive planes, an independent first electrode conductive layer, and an independent second electrode conductive layer, wherein N is an integer and 2?N?3000. Each connected conductive plane has a first electrode conductive layer and a second electrode conductive layer, wherein the first electrode conductive layer connects to the second electrode conductive layer. The independent first electrode conductive layer is corresponding to the second electrode conductive layer of the N?1th connected conductive plane; the independent second electrode conductive layer is corresponding to the first electrode conductive layer of the 1st connected conductive plane. Each membrane electrode assembly is situated between each first electrode conductive layer and the second electrode conductive layer to form a fuel cell.

Abstract: Disclosed is a dual-purpose lamp, which comprises a power-converting module, a light-emitting module and a control unit. The power-converting module is used for generating a direct current. The light-emitting module is electrically connected with the power-converting module, the light-emitting module comprises an illuminative light-emitting body and a scenario light-emitting body, and the illuminative light-emitting body and the scenario light-emitting body are connected with each other in parallel. The control unit is electrically connected with the power-converting module and is used for controlling the power-converting module so as to adjust the brightness of the illuminative light-emitting body when light is emitted, or to adjust the color, the brightness or the chroma of the scenario light-emitting body when light is emitted.

Abstract: A method for controlling a plurality of lamps is disclosed. The method is applied to an electrical apparatus, such that the user can control the plurality of lamps by the electrical apparatus. The method includes the following steps: receiving a plurality of different identification codes, wherein the identification codes represent each of the lamps respectively; setting at least two identification codes of the plurality of identification codes to be in the same control group according to a group setting command; and setting the control parameter of each of the lamps represented by each of the identification codes of the same control group to be the same.

Abstract: An environment control device and a video/audio player are disclosed, wherein the environment control device is electrically connected to a video/audio player and controls at least one environment providing device. The environment control device has a processor, a connector, and a wireless communication module. The connector connects to video/audio player and electrically connects to the processor for receiving a situation signal transmitted from the video/audio player. The wireless communication module electrically connects to the processor for outputting an environment control signal to the at least one environment providing device, wherein the environment control signal is determined according to the situation signal.

Abstract: An electronic apparatus charging base is disclosed. The electronic apparatus charging base is provided for charging at least one electronic apparatus and can be electrically connected to an external power source. The electronic apparatus charging base includes a base, a battery, and a control system. The base includes at least one socket used for connecting electrically to the electronic apparatus. The battery is electrically connected to the socket. The control system is electrically connected to the external power source and the battery and is used for monitoring the quantity of electricity in the battery and controlling the external power source to charge the electronic apparatus or the battery, or for controlling the battery to charge the electronic apparatus.