A method for remote monitoring includes (1) generating first sensor data from a first sensor at a first network node of a communications network and (2) sending the first sensor data from the first sensor to a second network node that is remote from the first network node, via the communications network. The first network node is powered from an electrical power grid that is separate from the communications network. The first sensor data may be raw sensor data and/or lossless sensor data.

A method for protection from cyber attacks in a communication network of a vehicle comprising: the steps of building sets of dominant voltage measurements for each message identifier associated to a message that is passing; extracting statistical features; supplying the statistical features for each message identifier that are available at each instant at input to a neural network of a pattern-recognition type; carrying out an operation of classification, or pattern recognition, supplying a prediction of a membership class corresponding to a given node on the basis of the statistical features supplied at input; evaluating whether the prediction supplied by the neural network corresponds to a given node that allows as admissible message identifier the message identifier at input and, if it does not, signalling an anomaly for the message identifier; and evaluating whether a number of anomalies signalled for said message identifier exceeds a given threshold.

An intrusion detection method for a CAN, performed by a processor, may comprise: collecting CAN IDs from the CAN in an order of occurrence; generating a sequence of a predetermined number L of CAN IDs from the collected CAN IDs, L being an integer greater than or equal to 1; and inputting the sequence into a bi-directional GPT2 network and calculating a value of a loss function corresponding to the sequence, wherein when a number of allowed CAN IDs is K, the allowed CAN IDs in the sequence are sorted in an order of magnitude and converted into values 0 to K−1, CAN IDs that are not allowed in the sequence are converted to K, the sequence is input to the bidirectional GPT2 network, and K is an integer equal to or greater than 1.

A method and a device for counteracting an intrusion into an in-vehicle network are disclosed. The present disclosure in some aspects provides a device and a control method for counteracting an intrusion into an in-vehicle network of a vehicle, including a communication unit configured to communicate with an external network and the in-vehicle network, a memory storing instructions, and at least one processor, wherein the instructions stored in the memory cause, when executed, the at least one processor to perform monitoring an intrusion attempt from the external network into the in-vehicle network, blocking communication between the communication unit and the external network upon detecting the intrusion into the in-vehicle network, establishing a communication link with a terminal of a driver of the vehicle through the communication unit, and performing communication with the external network through the communication unit and the terminal of the driver.

An electronic device includes a communication device electronically communicating with a content presentation companion device operating as a primary display for the electronic device and at least one augmented reality companion device. One or more sensors detect multiple persons within an environment while the content presentation companion device operates as the primary display. One or more processors redirect an event notification intended for presentation on the primary display to the augmented reality companion device while both the content presentation companion device operates as the primary display for the electronic device and the multiple persons are within the environment of the electronic device. When communicating with two augmented reality companion devices, the one or more processors can direct subtitles associated with a content offering, sometimes in different languages, to at least a first augmented reality companion device and a second augmented reality companion device.

An apparatus of controlling a vehicle may include a sensor that obtains state information of the vehicle, a plurality of controllers that operate in at least one communication domain, and a processor that detects a first controller that wakes up first among the plurality of controllers, wherein the processor is configured to determine whether to cut off power of the first controller according to whether the first controller is in a normal wake-up state based on the state information of the vehicle and whether the first controller is in a normal sleep state based on a sleep entry time of a communication domain.

One embodiment includes a control device for field devices connected to the control device via a communications network, e.g. a field bus. The control device comprises a wireless service interface (e.g. Wi-Fi interface). The control device is designed to receive a service signal generated by a field device and to activate the wireless service interface in response. Another embodiment includes a method for transmitting data to a control device for controlling field devices connected to the control device via a communications network. A wireless service interface of the control device is activated via a service signal generated by a field device and sent to the control device. After the activation of the wireless service interface, data is transferred from a tool (e.g. engineering tool, commissioning tool) via the wireless service interface.

A wireless communication method for use in a wireless network function comprises receiving, from a first session management function (SMF) a registration request of a packet data unit (PDU) session corresponding to a second SMF, and transmitting, to the second SMF, a notification which indicates the PDU session is controlled by another SMF.

A communication system, in which a plurality of nodes communicate with each other according to a communication protocol, which wakes up some of the plurality of nodes when a communication frame containing specific start information occurs on or is transmitted to the communication bus, includes a master node determines, for each of slave nodes, a start condition, which is a condition for transition of a subject node from a sleep state to a normal state. The master node transmits, to the communication bus, the determined start condition tailored for each of the slave nodes for a reception thereof by each of the slave nodes.

A communication system, in which a plurality of nodes communicate with each other according to a communication protocol, which wakes up some of the plurality of nodes when a communication frame containing specific start information occurs on or is transmitted to the communication bus, includes a master node determines, for each of slave nodes, a start condition, which is a condition for transition of a subject node from a sleep state to a normal state. The master node transmits, to the communication bus, the determined start condition tailored for each of the slave nodes for a reception thereof by each of the slave nodes.