Disclosed is a data processing method of a first electronic device, the data processing method including checking configuration information including information about capabilities of a second electronic device based on identification of the second electronic device connected with the first electronic device, acquiring input data through at least one device related to the first electronic device, determining whether to transmit the input data to the second electronic device based on at least one of relevance of the input data to the second electronic device and the configuration information, transmitting the input data to the second electronic device based on determination of transmission of the input data, receiving output data generated based on the input data from the second electronic device, and outputting the acquired output data through an output device related to the first electronic device.

A battery management apparatus according to an embodiment disclosed herein includes a microcontroller unit (MCU) for identifying whether a Modbus-communication connector is connected, identifying whether a controller area network (CAN)-communication connector is connected, and configuring a communication protocol based on identification results of the first identifying unit and the second identifying unit.

A transmitter includes driver slices coupled to its output. Each driver slice includes a first differential predriver that is selectively enabled and disabled by a first switch based on a control code configuration. A second differential predriver provides a first differential buffered data signal to a first group of driver slices when the second differential predriver is enabled. A second switch enables the second differential predriver when the control code is configured to enable the first differential predriver in at least one driver slice in the first group of driver slices. A third differential predriver provides a second differential buffered data signal to a second group of driver slices when the third differential predriver is enabled. A third switch enables the third differential predriver when the control code is configured to enable the first differential predriver in at least one driver slice in the second group of driver slices.

A method for a listening network node is described herein. In accordance with one embodiment, the method includes receiving data from a serial bus interface, wherein the data includes (at least) a first header of a first data frame. The method further includes detecting completion of the reception of the first header and detecting whether the data received subsequent to the first header includes a recessive bit and storing information that indicates whether or not a recessive bit has been detected. Furthermore, the method includes detecting a stop bit in the data received subsequent to the first header and, when the detection of the stop bit fails, detecting a break delimiter that indicates the end of a break field of a second header, signaling a frame error if the stored information indicates that a recessive bit has been received, and signaling a missing response if the stored information indicates that a recessive bit has not been received.

A transmitter includes driver slices coupled to its output. Each driver slice includes a first differential predriver that is selectively enabled and disabled by a first switch based on a control code configuration. A second differential predriver provides a first differential buffered data signal to a first group of driver slices when the second differential predriver is enabled. A second switch enables the second differential predriver when the control code is configured to enable the first differential predriver in at least one driver slice in the first group of driver slices. A third differential predriver provides a second differential buffered data signal to a second group of driver slices when the third differential predriver is enabled. A third switch enables the third differential predriver when the control code is configured to enable the first differential predriver in at least one driver slice in the second group of driver slices.

A system comprises a serial bus, a first module coupled to the serial bus, the first module being disposed on a first semiconductor die, including a first switch, and being configured to write to a first user identifier (USID), and a second module coupled to the serial bus, the second module being disposed on a second semiconductor die, including a second switch, and being configured to write to a second USID.

A communication method for a communication network of a vehicle includes a master data processing unit and a slave data processing unit connected to the master data processing unit via a synchronous serial communication interface. The slave data processing unit is connected to the master data processing unit via a slave select line for indicating that data is being sent from the master data processing unit to the slave data processing unit. The data sent from the master data processing unit to the slave data processing unit and/or from the slave data processing unit to the master data processing unit is framed by a start bit as a first bit and a stop bit as a last bit of the sent data.

A method for processing data associated with a serial bus system. The method includes: providing an indication characterizing at least one aspect of a control plane for a security protocol for the serial bus system, transmitting the indication on the bus system.

A digital communication system includes a processing device, a remote device, a signal path including one or more components and providing a communicative connection between the processing device and the remote device, and at least one temperature sensor arranged to sense a temperature and send a sensed temperature value to the processing device. The processing device is arranged to generate a clock signal and send the clock signal through the signal path to the remote device. The remote device is arranged to generate a digital data signal with a timing based on the received clock signal and send the digital data signal through the signal path to the processing device. The processing device is further arranged to derive a delay value from the sensed temperature value, obtain a variable clock signal having a variable delay relative to the clock signal, and use the variable clock signal to sample the received digital data signal.

Various aspects of the present disclosure generally relate to memory device high-speed interface training. In some aspects, a memory device may perform an initial training operation for a high-speed interface of the memory device. The memory device may detect, after a completion of the initial training operation for the high-speed interface, whether an aging counter associated with the high-speed interface has expired. The memory device may initiate one or more re-training operations for the high-speed interface based at least in part on whether the aging counter has expired. In some other aspects, the memory device may detect that the memory device is in an idle state. The memory device may perform a micro-training operation for a high-speed interface of the memory device in accordance with the memory device being in the idle state. Numerous other aspects are described.