According to one embodiment, a monitoring control system includes a controller and a monitoring control device. The monitoring control device includes: a first common memory to store therein common data cyclically transmitted/received by cyclic transmission; a first internal memory to store therein data other than the common data; and a search processor that searches control data to control the controller by transmitting tag information associated with the control data to the controller. The controller includes: a second common memory to store therein the common data; a second internal memory to store therein data other than the common data; and a storage processor that stores the control data read from the second internal memory in the second common memory as the common data when the control data corresponding to the tag information received from the monitoring control device is not stored in the second common memory.

A sensor service prediction system and method are provided for a sensor. The system monitors sensor operations of the sensor, and provides a calendar age odometer which increments a calendar age of the sensor by a first time interval as the sensor operates. The system further provides an accelerated age odometer which increments an accelerated age of the sensor by a second time interval according to the increment of the calendar age and a sensor temperature or other measurable environmental condition associated therewith. The system obtains a value of a sensor property at different calendar ages or accelerated ages of the sensor over time, and predicts and outputs when the sensor property of the sensor is anticipated to reach a sensor property threshold based on the values of the sensor property in relations to the accelerated age.

Aspects extend to automated time-synchronized electrical system commissioning. Automated electrical system commissioning in industrial/commercial settings (e.g., a data center) increases the likelihood that the electrical system functions as intended when released into production. Automated data collection devices can be time-synchronized to collect commissioning data related to electrical and other characteristics of electrical/power system equipment. Time-synchronization can be used to correlate collected data related to electrical loads, electrical harmonics, transient conditions, etc. collected from different data collection devices. A commissioning center computer system can send a local timing signal over a network to a plurality of collection devices to update/synchronize clocks at each of the plurality of data collection devices to a specified time. The commissioning center computer system can include a receiver for receiving a global (e.g., GPS, GLONASS, etc.) time signal. The global time signal can be used to generate the local timing signal.

Methods and systems for monitoring a brush holder assembly and/or detecting wear of a brush in a brush holder assembly are disclosed. One method includes sending data from a plurality of remote monitoring locations to a central control unit, where the data may be evaluated in order to monitor states of brushes at a plurality of remote electrical facilities. For example, multiple images of a marker tracking longitudinal movement of the brush may be acquired. A comparison of the images, for example, a comparative imaging technique, such as pixel-by-pixel comparison, may then be performed in order to evaluate a condition of the brush, such as the wear rate, wear state, or life expectancy of the brush.

A system for monitoring and regulating restaurant equipment and monitoring the condition of tap piping including at least one main unit (47) comprising a main processor (6), wherein the main unit (47) is connected to at least one sensor selected from a group consisting of a probe thermometer, ultrasonic flowmeter, mechanical flowmeter, thermometer, pressure sensor, wherein at least one main unit (47) is connected to a processing unit (41) comprising a database (42), wherein the processing unit (41) is implemented for processing data from individual main units (47) and for storing data and accessing stored data, and provided with tools for remote data management and visualization.

Disclosed is a technology for detecting an erroneous operation of a task scheduler of a battery management system. An apparatus for detecting an erroneous operation according to an exemplary embodiment includes: a first scheduler module configured to control a first task to be executed for every first period; a second scheduler module configured to control a second task to be executed for every second period; a task counting unit configured to increase the first counting value for the first scheduler module in accordance with the first period whenever the first task is executed, and increase the second counting value for the second scheduler module in accordance with the second period whenever the second task is executed; and an erroneous operation detecting unit configured to detect erroneous operations of the first scheduler module and the second scheduler module based on the first counting value and the second counting value.

A control system may include a fault detection system, an electromechanical actuator, the electromechanical actuator electronically coupled to the fault detection system, and a failure simulation apparatus mechanically coupled between the electromechanical actuator and a load, the failure simulation apparatus selectively applies an external resistive force to the electromechanical actuator.

A testing device is disclosed for testing a connection interface coupled onto an assembly line between first and second vehicle components. The testing device includes a tool configured to couple the connection interface, at least one test adapter for testing the coupling of the connection interface, and a sensor device for acquiring a force progression which acts during and/or after the coupling in the connection interface. The testing device also includes an evaluation device to evaluate the force progression.

A method, apparatus, and system are for determining signal rules and annotating data. The method, according to an embodiment, includes: determining data obtaining logic based on assembly model information corresponding to the assembly; wherein the data obtaining logic includes a to-be-obtained data object and an obtaining rule; determining at least one physical signal corresponding to the data obtaining logic; and determining, based on the data obtaining logic and the at least one physical signal corresponding to the data obtaining logic, a signal rule corresponding to the obtaining rule. By annotating the running data of an assembly, the context of the data may be indicated, so that the running data of the assembly can be made more consistent, easier to maintain, and/or applied to a new environment. Moreover, since the annotation information of data can adopt a common format, it may be more suitable for information migration and system configuration.

An operation monitoring server includes a storage apparatus configured to store instructions, and a processor configured to operate based on the instructions. The processor is configured to acquire state information on at least one of a monitoring target device or a base location in which the monitoring target device is placed. The processor is configured to select, based on the acquired state information, one of a plurality of service request processing apparatus each having a function of processing a service request received from the monitoring target device.