The present invention relates generally to a system and method of networking and interconnecting a large number of various types of sensors to a remote location in an efficient manner. Specifically, the invention utilizes a flexible, configurable, scalable and power-efficient sensor interface relay architecture to gather sensor data from various locations and then relay it to a remote location via the internet.

The present invention relates generally to a system and method of networking and interconnecting a large number of various types of sensors to a remote location in an efficient manner. Specifically, the invention utilizes a flexible, configurable, scalable and power-efficient sensor interface relay architecture to gather sensor data from various locations and then relay it to a remote location via the internet.

A monitoring system for data collection in an industrial environment includes a data acquisition circuit that determines detection values received from input sensors, a multiplexor (MUX) having a number of inputs corresponding to a subset of the detection values, and a MUX control circuit that provides logical control of the MUX based on the subset of the detection values, including control of a correspondence of MUX inputs to detection values, and adaptive scheduling of select lines. The system includes a data analysis circuit that receives an output from the MUX and determines a component health status, and an analysis response circuit that responds to the component health status.

A data processing system includes a sensor apparatus configured to continuously detect data, determine a state of the data that is detected, transmit the data in accordance with a determination result, and continue to detect the data regardless of the determination result, and a receiving apparatus configured to receive the data transmitted from the sensor apparatus.

There is provided a connection unit for connecting an external device to a measurement device. Connection units 600 and 700 each include a flat plate shaped connection unit main part 610, a connector terminal 651 for measurement device provided at the connection unit main part 610 and connected to a signal inputting/outputting connection port 110 or 210 corresponding to each of measurement devices 100 to 400, and a connector terminal 660 for external device provided at the connection unit main part 610 and connected to a signal inputting/outputting connection port 511 of each of external devices 510 to 540. The connection unit main part 610 is further provided with a manually operable switch.

There is provided a connection unit for connecting an external device to a measurement device. Connection units 600 and 700 each include a flat plate shaped connection unit main part 610, a connector terminal 651 for measurement device provided at the connection unit main part 610 and connected to a signal inputting/outputting connection port 110 or 210 corresponding to each of measurement devices 100 to 400, and a connector terminal 660 for external device provided at the connection unit main part 610 and connected to a signal inputting/outputting connection port 511 of each of external devices 510 to 540. The connection unit main part 610 is further provided with a manually operable switch.

The present invention relates generally to a system and method of networking and interconnecting a large number of various types of sensors to a remote location in an efficient manner. Specifically, the invention utilizes a flexible, configurable, scalable and power-efficient sensor interface relay architecture to gather sensor data from various locations and then relay it to a remote location via the internet.

The present invention relates generally to a system and method of networking and interconnecting a large number of various types of sensors to a remote location in an efficient manner. Specifically, the invention utilizes a flexible, configurable, scalable and power-efficient sensor interface relay architecture to gather sensor data from various locations and then relay it to a remote location via the internet.

Measurement configuring method and device for dual connectivity, measuring method and device for dual connectivity, scheduling method and device for dual connectivity, storage medium, base station and terminal are provided. The measurement configuring method includes: after an RRC connection is set up with a UE, a master base station sending master network measurement configuration to the UE; determining first secondary network measurement configuration for a secondary base station; sending to the secondary base station a dual connectivity configuration request which comprises the first secondary network measurement configuration; and receiving second secondary network measurement configuration and a secondary network measurement gap configured by the secondary base station, wherein the secondary network measurement gap is determined based on the first secondary network measurement configuration and the second secondary network measurement configuration. NR measurement may be executed with a shorter time period of service interruption without changing an LTE baseband circuit of UE.

This data-flow control device has: a device-side metadata acquisition means that acquires device-side metadata about a plurality of devices; an application-side metadata acquisition means that acquires application-side metadata about an application that uses data provided by a device; a storage means that stores each type of metadata; and a temporary matching means that, when the device-side metadata or the application-side metadata is newly registered, determines and reports whether a temporary pair is present, said temporary pair comprising the newly registered device-side metadata or application-side metadata and counterpart device-side metadata or the application-side metadata that meets a matching condition and was registered prior to the newly registered device-side metadata or application-side metadata.