To synchronize, in a system in which a plurality of devices perform measurement, measurement timings with each other with a simple configuration. A sensing system includes a plurality of sensor devices. The sensor devices each include a trigger sensor and a target sensor. In the sensor device, the trigger sensor measures a signal value of a trigger signal. Also, in the sensor device, the target sensor starts to measure a physical quantity when the signal value measured by the trigger sensor satisfies a predetermined condition.

A synchronization device is for a vehicle equipped with a plurality of sensors including an image sensor. The synchronization device acquires, as data related to a motion state of the vehicle, first time-series data based on detection data detected by the image sensor and second time-series data based on detection data detected by a sensor other than the image sensor. The synchronization device calculates shift time required for matching the first time-series data with the second time-series data.

In a vehicle measuring device unit, a data processing device includes a plurality of input parts each connected to a different one of the plurality of detectors, an output part connected to a control device provided in a vehicle, and an integrated data generation part that generates integrated data using detection data input from the plurality of detectors via the plurality of input parts and outputs the generated integrated data via the output part. The number of wires connecting the control device with the integrated data generation part is smaller than the number of wires connecting the integrated data generation part with the plurality of detectors.

The present disclosure relates to a reception apparatus and method, a transmission apparatus and method, and a program, capable of obtaining desired communication quality. Under the control of a central control unit, a tactile signal generation unit generates a tactile signal of a necessary number. Under the control of the central control unit, a header generation unit generates header information including the presence or absence of the tactile signal (that is, information indicating whether or not the tactile signal is to be used for each of vibration units as information associated with the vibration unit that uses the tactile signal), the delay amount, and the magnitude. A signal coupling unit adds header information to each of the tactile signals from the tactile signal generation unit, and performs time-division multiplexing on each of the tactile signals to which the header information has been added. The present disclosure can be applied to a tactile presentation system that vibrates a wearable reception apparatus including the vibration unit, for example.

The present disclosure relates to a reception apparatus and method, a transmission apparatus and method, and a program, capable of obtaining desired communication quality. Under the control of a central control unit, a tactile signal generation unit generates a tactile signal of a necessary number. Under the control of the central control unit, a header generation unit generates header information including the presence or absence of the tactile signal (that is, information indicating whether or not the tactile signal is to be used for each of vibration units as information associated with the vibration unit that uses the tactile signal), the delay amount, and the magnitude. A signal coupling unit adds header information to each of the tactile signals from the tactile signal generation unit, and performs time-division multiplexing on each of the tactile signals to which the header information has been added. The present disclosure can be applied to a tactile presentation system that vibrates a wearable reception apparatus including the vibration unit, for example.

An equipment connected to a system of the AMM type that includes at least one data concentrator to which smart electricity meters, referred to as meters, are attached, via a first powerline network, each data concentrator being connected to a management system via a second network and serving as relays between said meters and the management system. The equipment is connected to a data concentrator via a third network and comprises at least one communication interface with a fourth network, said fourth network enabling at least one device connected to said fourth network to communicate with the equipment. The equipment can thus relay commands intended for a device of the actuator type connected to the fourth network and transfer alarms to the management system according to data supplied to said equipment by devices of the sensor type connected to said fourth network.

A monitoring system includes: sensor nodes installed on a structure and configured to measure physical quantities of the structure; and a gateway apparatus connected to the sensor nodes. The gateway apparatus includes: a synchronization packet transmission unit transmitting a synchronization packet specifying synchronization time and measurement start time, to the sensor nodes by broadcast communication; and a correction unit correcting each of measured values of the sensor nodes. The sensor node includes: a synchronization unit synchronizing time in the sensor node with the synchronization time indicated in the synchronization packet; a difference calculation unit calculating a time synchronization difference which is a difference between the time in the sensor node before the synchronization and the synchronization time; a measurement unit starting measurement of the physical quantities at the measurement start time; and a correction information transmission unit transmitting the time synchronization difference and a measured value to the correction unit.

According to an aspect of the invention, a data transmitting apparatus includes a transmitting unit that transmits a first packet through a unidirectional communication based on an instruction to transmit the first packet, and that transmits a second packet through a unidirectional communication based on an instruction to transmit the second packet.

A device includes a transceiver, a receiver, and a processor. The transceiver is configured to receive feedback data from an unmanned aerial vehicle (UAV) and transmit control data to the UAV via a first communication link. The receiver is configured to receive the control data from a controlling terminal via a second communication link. The second communication link does not interfere with the first communication link. The processor is configured to determine whether the feedback data and the control data are being simultaneously transmitted via the first communication link.

A communication interface is provided between a towing vehicle and a trailer, which are connected by a plurality of connectors compliant with standards selected from ISO12098, ISO7638, ISO1185, ISO3731, ISO11446. Digital signals are transmissible between the towing vehicle and the towed vehicle via an ISO11992-3 CAN bus. Pins on the towing vehicles are connected to pins on the towed vehicle by twisted pairs of wires adapted to carry a digital differential signal to provide higher speed data transmission between the vehicles.