Abstract: A motor stator includes an insulating frame having a plurality of projecting rods, an induction unit, and a plurality of conductive members. The induction unit includes an induction circuit board, a plurality of induction coils embedded within the induction circuit board, and a plurality of coil windings wound respectively on the projecting rods. The conductive members extend through the insulating frame and the induction circuit board for establishing an electrical connection between each of the induction coils and a corresponding one of the coil windings. The turn numbers of the coil windings are not limited by the area and thickness of the induction circuit board, and can be increased. Alternatively, the coil windings may be positioned to increase the magnetic pole slot number when energized. As such, a driving force of the motor stator can be increased.

Abstract: A motor stator includes a stator unit and at least one auxiliary unit. The stator unit includes a circuit substrate, and a plurality of spaced-apart induction coils embedded within the circuit substrate. The auxiliary unit includes an auxiliary coil attached to and disposed outwardly of the circuit substrate.

Abstract: A motor stator includes a stator unit and at least one auxiliary unit. The stator unit includes a circuit substrate, and a plurality of spaced-apart induction coils embedded within the circuit substrate. The auxiliary unit includes an auxiliary coil attached to and disposed outwardly of the circuit substrate.

Abstract: A motor stator includes an insulating frame having a plurality of projecting rods, an induction unit, and a plurality of conductive members. The induction unit includes an induction circuit board, a plurality of induction coils embedded within the induction circuit board, and a plurality of coil windings wound respectively on the projecting rods. The conductive members extend through the insulating frame and the induction circuit board for establishing an electrical connection between each of the induction coils and a corresponding one of the coil windings. The turn numbers of the coil windings are not limited by the area and thickness of the induction circuit board, and can be increased. Alternatively, the coil windings may be positioned to increase the magnetic pole slot number when energized. As such, a driving force of the motor stator can be increased.

Abstract: A motor stator includes a stator unit and an auxiliary induction unit. The stator unit includes a circuit substrate, and a plurality of induction coils embedded within the circuit substrate. The auxiliary induction unit includes an insulating member, a magnetic conductor, and at least one coil winding assembly. The coil winding assembly includes a conductive rod and an auxiliary coil. The rod has an insert rod section extending through the magnetic conductor, the insulating member, and the circuit substrate, and a wound rod section permitting the auxiliary coil to be wound thereon, such that the auxiliary coil is disposed outwardly of the magnetic conductor. During assembly, the induction coil assembly is mounted to the magnetic conductor, and the insulating member is superposed on the circuit substrate. Subsequently, the rod is inserted through the insulating member and into the circuit substrate.

Abstract: A wireless transceiver device used in an electronic device for preventing wireless signal interference includes a plurality of wireless modules for processing wireless signals of a plurality of wireless communication systems, and a control module for adjusting receiving sensitivities or output powers of the plurality of wireless modules, to prevent signals outputted from a wireless module of the plurality of wireless modules from affecting operations of other wireless modules.

Abstract: The present invention discloses a wireless communication method for transceiving packets in wireless networks. The method comprises the steps of: transmitting a first packet with a first packet format, wherein a header of the first packet with the first packet format comprises information of a first communication duration; and performing a communication procedure during the first communication duration for transmitting at least one second packet with a second format, for receiving at least one third packet with the second format, or for both transmitting the at least one second packet and receiving the at least one third packet.

Abstract: A wireless communication apparatus includes a first interface, a packet memory, a shift register set, and a second interface. The first interface receives a plurality of packets and stores the plurality of packets in the packet memory. The addresses of the plurality of packets stored in the packet memory are recorded in the shift register set. The second interface reads the packets in the packet memory according to the addresses of the packets recorded in the shift register set and then sends to a receiver. After an acknowledge signals from the receiver is received, the addresses of the successfully transmitted packets are cleared from the shift register set.

Abstract: A transmission system for a computer system includes an active transmission interface, a host end and a device end. The host end includes a Bluetooth driving unit for generating a Bluetooth driving command, a first active connection unit for outputting the Bluetooth driving command or receiving a Bluetooth processing result via the active transmission interface, and an intermedium unit for emulating the first active connection unit as a Universal Asynchronous Receiver/Transmitter. The device end includes a Bluetooth module for performing baseband and radio processing, to generate the Bluetooth processing result, and a second active connection unit for outputting the Bluetooth processing result or receiving the Bluetooth driving command via the active transmission interface.

Abstract: A wireless communication apparatus includes a first interface, a packet memory, a shift register set, and a second interface. The first interface receives a plurality of packets and stores the plurality of packets in the packet memory. The addresses of the plurality of packets stored in the packet memory are recorded in the shift register set. The second interface reads the packets in the packet memory according to the addresses of the packets recorded in the shift register set and then sends to a receiver. After an acknowledge signals from the receiver is received, the addresses of the successfully transmitted packets are cleared from the shift register set.

Abstract: An apparatus for deinterleaving OFDM signals comprises a block deinterleaving memory, a computing module, a processed-tone buffer and a subcarrier rotator. The block deinterleaving memory is configured to store unprocessed symbols of the OFDM signals. The computing module is configured to access the block deinterleaving memory in accordance with the order of a first interleaving action for the OFDM signals and to compute thereafter. The processed-tone buffer is configured to store processed symbols of the OFDM signals. The subcarrier rotator is configured to access the processed-tone buffer and to perform a second interleaving action for the OFDM signals.

Abstract: The present invention provides a multi-functional peripheral apparatus to be connected to a host. The apparatus comprises a connection module, a plurality of peripheral modules, and a control module. The connection module provides a transmission interface to receive a peripheral output signal from the host. Each of the peripheral modules performs a specific peripheral function. The peripheral modules further comprise a data storage memory to store at least one peripheral driver. The control module receives the peripheral output signal from the connection module and produces a corresponding peripheral control command to control and to enable the selected peripheral module specified in the peripheral output signal to perform the corresponding specific peripheral function. When the apparatus is connected to the host, the host allows the control module to install the peripheral driver into the host so that the host employs the driver to drive the selected peripheral modules.