A PLC according to an embodiment of the present invention is disclosed. The PLC according to an embodiment of the present invention comprises: a master unit; and a plurality of interface units which access the master unit via a system bus. The master unit includes: a control unit for controlling input/output and processing commands; and a plurality of first RJ45 terminals for input/output of data, wherein a maximum of eight signals are arranged via each pin of each of the first RJ45 terminals. Each of the interface units includes a connection means for connecting a signal between a second RJ45 terminal for connecting a signal line from each of the first RJ45 terminals and an external device, wherein the interface units are configured to be expandable by the number of the first RJ45 terminals.

An automation system includes a first control facility with a first fieldbus connection, a second control facility with a second fieldbus connection, a fieldbus, a peripheral board with at least one I/O peripheral module, wherein the peripheral board has an interface module with a third fieldbus connection, where the interface module has at least one I/O module which stores interconnection information featuring an assignment of input/outputs of the I/O peripheral module(s) to the control facilities, where the interface module additionally has a virtual I/O module, in which an output region is assigned to the first control facility, and furthermore an input region is assigned to the second controller, and where the virtual I/O module is configured such that the output data is copied from the output region of the first control facility into the input region as input data for the second control facility.

A screen image generation device for generating a screen image indicating a state of a facility in a production plant is provided which ensures a real-time property of a management screen image needed in actual production plants and reduce required levels of making a network faster in speed and wider in bandwidth. A server functioning as the device performs first acquisition of regularly acquiring first data transmitted from a sensor and concerning the facility at intervals of a first time, second acquisition of regularly acquiring second data transmitted from a controller and concerning the facility at intervals of a second time shorter than the first time, third acquisition of acquiring, in real time, an alert irregularly transmitted from the controller and concerning the facility, and generation of generating the management screen image indicating the state of the facility in accordance with the first data, the second data, and the alert.

This control system is provided with a controller, a controller which is a loopback communication device, a first communication route, and a second communication route. The controller generates and transmits control frames to slave devices. The controller performs loopback communication of the control frames. In the first communication route, multiple slave devices are connected between the controller and the controller using communication cables. In the second communication route, the first controller and the second controller are connected over a communication cable.

A controller includes: a communication port and a connection port that allow communication with another controller; and a hardware processor coupled to the ports. The hardware processor is configured to: transmit a first state signal indicating a state of the controller of an own device to the other controller from each port; receive a second state signal indicating a state of the other controller from the other controller via each of the ports; and switch, when the own device is in a standby state, the own device from the standby state to an operating state, when a breakdown of the other controller indicated by the received second state signal and an unreceived state in which the second state signal is not received for a predetermined time or more from both the communication and connection ports are monitored and at least one of the breakdown and the unreceived state is detected.

A control system for factory automation includes a first unit and a second unit each including a timer, a data line over which data containing a timer value indicated by the timer is exchanged between the first unit and the second unit, a signal line that electrically connects the first unit and the second unit, and an adjustment module connected to the signal line and the data line. The adjustment module acquires, when receiving a trigger signal over the signal line, the timer value over the data line and matches the timer of the second unit with the timer of the first unit based on the timer value acquired.

A system includes a programmable logic control (PLC) module, an input/output (IO) network bus coupled to the PLC module and provided at facets of a mainframe. A first process chamber attached to a first facet of the facets. A chamber interface IO sub-module is attached to the first facet and coupled to the IO network bus and to a process chamber IO controller of the first process chamber. The chamber interface IO sub-module is to: convert interlock relay signals, received via dry contact exchange with the process chamber IO controller, to digital signals; combine the digital signals into network packets adapted for communication using a protocol of the IO network bus; and transmit the network packets to the PLC module over the IO network bus.

An expansion module for an industrial controller is configured to perform independent local processing of its input signals and to independently generate control outputs in parallel with the primary control program executed by the industrial controller. This can reduce or eliminate response latency for time-critical processes that would otherwise be present if all monitoring and control were performed by the industrial controller alone. This approach can be beneficial for configurations in which the industrial devices that are monitored and controlled via the expansion module require fast response times, as in the case of industrial safety applications.

A control system includes plural control devices connected to a network, each of the control devices including a program storage, an operation module, and an arbitration module. The program storage stores a control program including a command to calculate and update a control instruction that is a value related to control of a control target. The operation module operates the control program of the program storage of the control device. The arbitration module disposes plural control programs including a command to calculate and update an identical control instruction in another one of the plural control devices, and arbitrates an operation time between the plural control programs such that updatings of the identical control instruction do not conflict with each other in the plural control programs.

Current approaches to integrating industrial ecosystems, for instance integrating automation functions across different vendors, lack efficiencies and capabilities. For example, system integrators are often required to develop special software that functions as a proxy or adaptor between different systems. In such cases, the proxy or adaptor is often specific to a particular set of equipment or vendors, and which can limit reusability, among other technical drawbacks. Embodiments described herein overcome one or more of the described-herein shortcomings or technical problems by providing methods, systems, and apparatuses for automatically generating connecters that enable interoperability between different ecosystems in automated industrial systems, and that define semantics that are specific to a given ecosystem. Further, such connectors can be re-used by the given ecosystem.