6results about How to "Smooth communication" patented technology

This utility model discloses a team-based collaborative combat simulation robot, belonging to the field of robotics technology, including a perception system, a decision-making system, a motion system, a weapon system, and a communication system. The perception system acquires information about the robot's surrounding environment and its own state. The decision-making system formulates execution plans based on the environmental and state information, including action and confrontation decisions. The motion system executes actions based on action decisions. The weapon system performs confrontation tasks based on confrontation decisions. The communication system enables information exchange. This utility model achieves this by: accurately capturing information through the perception system to provide a basis for decision-making; efficiently generating plans through the decision-making system; flexibly executing actions through the motion system; accurately completing confrontation tasks through the weapon system; and ensuring information exchange through the communication system. The coordinated operation of these systems enables the robot to perform tasks effectively in complex scenarios, improving overall combat effectiveness and adaptability.

This disclosure provides a data transmission method and a communications device. The data transmission method includes: generating (101) a plurality of RRC segments by using an RRC segmentation function of an RRC layer entity of the sender communications device (30) or an RRC segmentation function of a new protocol layer entity, where each of the plurality of RRC segments carries partial data content of an RRC message generated by the sender communications device (30); and sending (102) the plurality of RRC segments to a receiver communications device (40).

This application relates to a vehicle-side software architecture, a vehicle's electronic and electrical architecture, and a vehicle, falling under the field of vehicle technology. The vehicle-side software architecture includes a cross-domain service layer, an enhanced service layer, an atomic service layer, and a device abstraction layer deployed on the vehicle's area controller and communicating sequentially, as well as an electronic control layer that communicates with the enhanced service layer. The cross-domain service layer is used for communication between the area controller and other vehicle domain controllers. The enhanced service layer performs logical judgments on control request signal groups and transmits target control signals to the cross-domain service layer and the atomic service layer. The atomic service layer, based on the target component control service pointed to by the target control signal, calls the device abstraction layer to control the corresponding vehicle components to perform control functions. The device abstraction layer provides a standard abstraction of hardware interfaces to enable communication between components and the atomic service layer. The electronic control layer provides a standard interface for communication protocol interfaces to enable communication between components and the enhanced service layer. This approach is beneficial for improving the overall vehicle intelligence level and development efficiency.

The application provides a test method and system of a launch site launch area radio frequency relay system of a Mars probe, comprising: a calibration preparation step: preparing the state of a first uplink channel and a first downlink channel on the radio frequency relay system; an uplink insertion loss calibration step; a downlink insertion loss calibration step; a function test preparation step: preparing the state of a second uplink channel and a second downlink channel on the radio frequency relay system; an uplink function test step and a downlink function test step. Compared with the prior art, the application can fully verify the adaptability of the launch site radio frequency relay system to the uplink remote control signal and the downlink telemetry signal of the Mars probe, and ensure the smooth communication of the uplink remote control signal and the downlink telemetry signal between the Mars probe located on the launch tower and the test equipment of the remote test plant on the day of the real launch.

The invention relates to the technical field of communication, and discloses a communication method and a broadband / narrowband terminal, the communication method comprises the following steps: initialization, paging, access request, resource allocation, data transmission, confirmation and retransmission, and disconnection, the access request in S3 comprises an identifier of the terminal and a channel request, the communication method and the broadband / narrowband terminal, and the access request in S3 comprises the identifier of the terminal and the channel request. When a terminal sends a paging request to a base station, the base station allocates a unique identifier to the terminal, the terminal identifies an allocation message sent by the base station and receives the allocated unique identifier, the terminal establishes connection with the base station by using the allocated unique identifier, and the terminal contains the identifier in subsequent communication. According to the communication method and the wide-band and narrow-band terminal, the terminal and the base station can mutually confirm the received data in the data transmission process and carry out retransmission according to needs, and reliable transmission of the data can be ensured in the confirmation and retransmission process.

A user terminal, a video call translation device, a video call translation system including the device, and a control method thereof are disclosed. According to one aspect, the video call translation device may include: a communication unit supporting video call services between multiple user terminals via a communication network; an extraction unit generating image files and audio files using video call-related video files collected from each of the multiple user terminals, and extracting original language information from at least one of the image files and audio files; a translation unit generating translation information from the original language information; and a control unit for controlling the transmission of the interpretation or translation video, wherein the interpretation or translation video is formed by mapping at least one of the extracted original language information and translation information to the video call-related video files.