Abstract: A data retransmission method includes configuring the quantity of code block groups in a transport block and configuring a plurality of physical resource groups; configuring the quantity of physical resources included in each of the physical resource groups according to the different quantities of code block groups; selecting the physical resources included in the physical resource group that corresponds to the initial transmission to send the transport block; determining the quantity of code block groups that were erroneously sent in the transport block according to the response; selecting one of the physical resources in one of the physical resource groups that corresponds to the retransmission to send at least one code block group that was erroneously sent according to the quantity of code block groups that were erroneously sent; and completing the retransmission only after all of the code block groups in the transport block have been successfully sent.

Abstract: A remote controller comprises a wireless communication interface and a processing unit. The wireless communication interface is communicatively connected with another remote controller. The processing unit is electrically connected with the wireless communication interface. The processing unit generates a first identification code and a second identification code and transmits the first identification code and the second identification code to the another remote controller through the wireless communication interface. The another remote controller transmits the first identification code and the second identification code to a controlled device to establish an indirect pairing relationship between the remote controller and the controlled device and a direct pairing relationship between the another remote controller and the controlled device. A pairing method of remote controllers is also disclosed.

Abstract: A remote controller comprises a wireless communication interface and a processing unit. The wireless communication interface is communicatively connected with another remote controller. The processing unit is electrically connected with the wireless communication interface. The processing unit generates a first identification code and a second identification code and transmits the first identification code and the second identification code to the another remote controller through the wireless communication interface. The another remote controller transmits the first identification code and the second identification code to a controlled device to establish an indirect pairing relationship between the remote controller and the controlled device and a direct pairing relationship between the another remote controller and the controlled device. A pairing method of remote controllers is also disclosed.

Abstract: A control system for automatically turning on/off device including at least an electronic device and a mobile communication device is disclosed. The mobile communication device includes a wireless communication unit and a control unit. The wireless communication unit is configured to be wirelessly connected with the electronic device and transmit the packet signals mutually between each other. The control unit determines whether a connection state between the electronic device and the mobile communication device is normal according to the packet signals. The electronic device is controlled to be turned on when the connection state is normal and turned off when the connection state is abnormal. The connection state may vary in accordance with the variation of the distance between the electronic device and the mobile communication device. Therefore the electronic device may be turned on/off conveniently and more electrical power may be saved.

Abstract: A system for controlling device switching on/off including an electronic device and a mobile communication device is illustrated. The mobile communication device includes a haptic display unit and a processing unit. The haptic display unit displays a setting page having a clock pattern and a set of timer indexes. The set of timer indexes includes a switch-on index and a switch-off index locating on the fringe of the clock pattern and indicating to a start time and a stop time respectively. The switch-on and switch-off indexes slide around the fringe of the clock pattern to determine the start and stop time according to touch gestures of a user. The start time and stop time change based on the location of the indexes. The processing unit configures the electronic device to be switched on and off based on the start and stop time, accordingly.

Abstract: The remote controlled emergency power supply device for a transit vehicle, and more particularly to a remote controlled system that can be operated from a long distance, includes a remote control unit, receiving control unit, supply unit and power consumption unit. The remote control unit's sending end and the rest of the unit can be placed outside the vehicle, and the remote control unit may be initiated by the connection of the mobile phone, satellite or other wireless communication system to start the receiving control unit. The receiving control unit may control the supply unit to power the power consumption unit to achieve the purpose of letting user control the unit from long distance away, and the power consumption does not affect the original power of the vehicle.