A device supporting big data in a process plant includes an interface to a communications network, a cache configured to store data observed by the device, and a multi-processing element processor to cause the data to be cached and transmitted (e.g., streamed) for historization at a unitary, logical centralized data storage area. The data storage area stores multiple types of process control or plant data using a common format. The device time-stamps the cached data, and, in some cases, all data that is generated or created by or received at the device may be cached and/or streamed. The device may be a field device, a controller, an input/output device, a network management device, a user interface device, or a historian device, and the device may be a node of a network supporting big data in the process plant. Multiple devices in the network may support layered or leveled caching of data.

A data acquisition unit for an automation system, with at least one communications interface which is designed for connection to an operating bus and is set up to receive control commands from a field unit and data from operating bus participants with a processing device which is designed for the processing of the received control commands and/or data to give processing results, and with a memory device designed for the storage of processing results.

Various examples of the present invention provide a server for providing information of an electronic device, and the server can comprise: a communication unit for receiving, from at least one first electronic device, at least one piece of information of the first electronic device; and a control unit for determining, from the received information, a current state among a plurality of states preset for the first electronic device, and controlling the first electronic device such that state prediction information of the first electronic device is transmitted to a second electronic device if the determined current state satisfies a preset notification condition on a state diagram in which a relationship among the plurality of states is set. Additionally, other examples could be possible besides the various examples of the present invention.

A system for remotely measuring the characteristics of water passing through a plumbing control device (PCD) includes a sensor configured to measure characteristics of the water to obtain measured data. The sensor is also linked to a microcontroller of the PCD. An antenna board is linked, and configured to transmit power, to both the microcontroller and the sensor. The antenna board is configured to receive power transmitted from a mobile device and, in turn, transmit power to the microcontroller and the sensor. When power is not being transmitted from the antenna board, the microcontroller and the sensor may be powered off.

A system includes an encoder to monitor a machine and generate an encoder output signal indicative of at least one of the motion or position of the machine. A combiner can be configured to receive the encoder output signal from the encoder and to receive machine diagnostic data from at least one other sensor. The combiner can combine the machine diagnostic data with the encoder output signal to provide a combined signal that includes the machine diagnostic data synchronized with the at least one of the motion or position of the machine. An output stage can provide the combined signal to a remote system.

A field device includes a controller and a process communication module. The controller is configured to perform at least one operation related to process control and is also configured to perform at least one self-recovery operation relative to the field device. The process communication module is coupled to the controller and is configured to couple to a process communication segment and communicate in accordance with a process communication protocol. The controller is configured to detect an erroneous condition and selectively apply the at least one self-recovery operation in response to the detected erroneous condition.

A device supporting big data in a process plant includes an interface to a communications network, a cache configured to store data observed by the device, and a multi-processing element processor to cause the data to be cached and transmitted (e.g., streamed) for historization at a unitary, logical centralized data storage area. The data storage area stores multiple types of process control or plant data using a common format. The device time-stamps the cached data, and, in some cases, all data that is generated or created by or received at the device may be cached and/or streamed. The device may be a field device, a controller, an input/output device, a network management device, a user interface device, or a historian device, and the device may be a node of a network supporting big data in the process plant. Multiple devices in the network may support layered or leveled caching of data.

A device supporting big data in a process plant includes an interface to a communications network, a cache configured to store data observed by the device, and a multi-processing element processor to cause the data to be cached and transmitted (e.g., streamed) for historization at a unitary, logical centralized data storage area. The data storage area stores multiple types of process control or plant data using a common format. The device time-stamps the cached data, and, in some cases, all data that is generated or created by or received at the device may be cached and/or streamed. The device may be a field device, a controller, an input/output device, a network management device, a user interface device, or a historian device, and the device may be a node of a network supporting big data in the process plant. Multiple devices in the network may support layered or leveled caching of data.

A field bus module for the operation of actuators and/or sensors with at least one device interface for the connection of a sensor and/or actuator, with at least one field bus interface for connection to a field bus system, and with a processing device for receiving and processing and sending field bus telegrams and also for making available control commands, especially safety-oriented control commands, to the device interface depending on incoming field bus telegrams wherein the processing device is configured to process in different operating modes sensor data that can be made available at the device interface and/or field bus telegrams that can be made available at the field bus interface, wherein an operating mode memory is allocated to the processing device for the optional provision of one of at least two different operating mode data sets at the processing device depending on an incoming field bus telegram.

A method and a user device (10) for adapting a signaling of the field device (100) that can be displayed via a signal display (102) of a field device (100) are proposed. For this purpose, an user device (10) is used to define a color tone of at least one display element (104) of the signal display (102) of the field device (100), an attribute is assigned to the defined color tone of the at least one display element (104) of the signal display (102), wherein the attribute represents a meaning of the determined color tone for indicating a state of the field device (100), and a control signal is transmitted from the user device (10) to the field device (100), wherein the control signal contains information regarding the determined color tone and regarding the attribute associated with the determined color tone.