Abstract: A carrier module assembly having a module removably attached to a carrier frame and a carrier riser. The carrier module assembly can be inserted into a slot of a control cabinet without having to re-wire or re-configure the control cabinet. The carrier module assembly has a length which enables the carrier module assembly to be located within the slot of the control cabinet. The module is removable from the carrier frame such that the module can be attached to a backplate of a rack.

Abstract: Systems and methods for configuring industrial devices through a secured wireless side channel may include a compute device. The compute device may have primary communication circuitry configured to communicate through a network and side channel communication circuitry configured to communicate through a wireless side channel that is different from the network. The compute device may additionally include circuitry configured to obtain, via the wireless side channel, configuration data indicative of a configuration for one or more operations of an industrial device of an industrial process plant. Additionally the circuitry may be configured to configure, in response to obtaining the configuration data, the one or more operations of the industrial device.

Abstract: The present invention discloses a controller configured to communicate over a network in a process plant, wherein the network comprises one or more native TSN devices. The controller comprises one or more process applications for controlling one or more processes in the process plant, wherein the one or more process applications includes plurality of tags corresponding to one or more process variables of the one or more processes in the process plant, a software TSN agent for receiving and transmitting packets associated with the one or more process applications on the controller, wherein the software TSN agent is configured to segregate packets associated with the one or more process applications for processing the packets in at least one of a TSN communication mode and a non-TSN communication mode; and a first network interface dedicated for TSN communication and a second network interface dedicated for non-TSN communication.

Abstract: According to one aspect of this disclosure, a distributed control system may include a diagnostic engine, a plurality of computing resources generating diagnostic parameters for transmission to the diagnostic engine, a first communication link operatively coupling the plurality of computing resources to one another, a second communication link operatively coupling the plurality of computing resources to the diagnostic engine, and a remote connection operatively coupling the diagnostic engine to a remote computing resource. The diagnostic parameters may indicate one or more conditions for at least one of the plurality of computing resources. The diagnostic engine locally observes the diagnostic parameters of the plurality of computing resources via the first communication link, and the remote computing resource initiates operation of the diagnostic engine via the remote connection and evaluates the diagnostic parameters remotely.

Abstract: The present invention discloses a controller configured to communicate over a network in a process plant, wherein the network comprises one or more native TSN devices. The controller comprises one or more process applications for controlling one or more processes in the process plant, wherein the one or more process applications includes plurality of tags corresponding to one or more process variables of the one or more processes in the process plant, a software TSN agent for receiving and transmitting packets associated with the one or more process applications on the controller, wherein the software TSN agent is configured to segregate packets associated with the one or more process applications for processing the packets in at least one of a TSN communication mode and a non-TSN communication mode; and a first network interface dedicated for TSN communication and a second network interface dedicated for non-TSN communication.

Abstract: A selector is provided for configuring field devices in a control system. A set of pins is connected to the field device. The field device configuration can be changed by interconnecting different pins in the pin set. Multiple pin selectors are provided with different arrangements of connectors for interconnecting the pins. Thus, the field device may be easily configured by connecting a particular pin selector onto the pins that matches the desired configuration.

Abstract: A selector is provided for configuring field devices in a control system. A set of pins is connected to the field device. The field device configuration can be changed by interconnecting different pins in the pin set. Multiple pin selectors are provided with different arrangements of connectors for interconnecting the pins. Thus, the field device may be easily configured by connecting a particular pin selector onto the pins that matches the desired configuration.

Abstract: A control system for mounting to a vertically-extending rail. The control system includes a plurality of bases, each having a channel formed therein that is adapted for mounting to the rail. A plurality of modules are provided for removable mounting to the bases, respectively. Each module has circuitry for processing control signals and a housing enclosing the circuitry. At least a bottom end of each housing has openings therein to permit air to flow into the housing and over the circuitry. A plurality of air flow deflectors are provided for mounting to the bases, respectively. When the modules and the air flow deflectors are mounted to the bases, the air flow deflectors form pockets with the bottom ends of the modules. The pockets have enlarged openings disposed parallel to sides of the modules.

Abstract: A control system includes a module assembly with a base. The base can be configured for engagement with at least one module having electronic circuitry disposed therein or other electronic device. The base includes at least one latching assembly with a lever operable to move a shuttle coupled to the lever to releasably engage the base with an elongated mounting rail.

Abstract: A control system for controlling a process. The control system includes primary and secondary module buses over which information may be transmitted between a controller and a plurality of I/O modules. Each of the controller and I/O modules has a power sense circuit for detecting current on the high side of a driver and a ground sense circuit for detecting current on the low side of the driver. The driver is determined to have failed if either the current on the high side of the driver measured by the power sense circuit is outside a predetermined high range or the current on the low side of the driver measured by the ground sense circuit is outside a predetermined low range.

Abstract: A control system includes a module assembly with a base. The base can be configured for engagement with at least one module having electronic circuitry disposed therein or other electronic device. The base includes at least one latching assembly with a lever operable to move a shuttle coupled to the lever to releasably engage the base with an elongated mounting rail.

Abstract: A control system for mounting to a rail. The control system includes a control assembly and one or more I/O assemblies. The control assembly and each I/O assembly includes a module removably mounted to a base. The base has a body with a channel formed therein that is adapted to receive the rail. A latching assembly is mounted to the body and includes a lever movable between a latched position and an unlatched position, wherein the movement of the lever between the unlatched and latched positions moves latching members into and out of the channel, whereby when the rail is disposed in the channel and the lever is moved to the latched position, the latching members move into the channel, thereby trapping the rail in the channel and securing the base to the rail. When the module is mounted to the base, the module covers the lever of the latching assembly so as to be inaccessible.

Abstract: A control system for mounting to a vertically-extending rail. The control system includes a plurality of bases, each having a channel formed therein that is adapted for mounting to the rail. A plurality of modules are provided for removable mounting to the bases, respectively. Each module has circuitry for processing control signals and a housing enclosing the circuitry. At least a bottom end of each housing has openings therein to permit air to flow into the housing and over the circuitry. A plurality of air flow deflectors are provided for mounting to the bases, respectively. When the modules and the air flow deflectors are mounted to the bases, the air flow deflectors form pockets with the bottom ends of the modules. The pockets have enlarged openings disposed parallel to sides of the modules.

Abstract: A control system for mounting to a rail. The control system includes a control assembly and one or more I/O assemblies. The control assembly and each I/O assembly includes a module removably mounted to a base. The base has a body with a channel formed therein that is adapted to receive the rail. A latching assembly is mounted to the body and includes a lever movable between a latched position and an unlatched position, wherein the movement of the lever between the unlatched and latched positions moves latching members into and out of the channel, whereby when the rail is disposed in the channel and the lever is moved to the latched position, the latching members move into the channel, thereby trapping the rail in the channel and securing the base to the rail. When the module is mounted to the base, the module covers the lever of the latching assembly so as to be inaccessible.