Honeywell International Inc.

Uop Lcc

Raj L Bandekar

Joseph Pradeep Felix

Jethro F Steinman

Michael L Baker

Michael D Carney

John J Rosa-Bian

Brian Reynolds

Senthilkumar Dhanagopalan

Matthew R Schrier

Michael James Waynick

Gary Drayton

Suraj Prakash

Girish Krishnanivas

Sunil S Bale

William Russell Massey, Jr

Ashutosh Singh

Matthias Rose

Hsi Shen Chai

John Rosa-Bian

Sunil Bale

Jethro Francis Steinman

Norman R Swanson

Zhi Yang

This disclosure provides an apparatus and method for use in industrial control systems and other systems. A method includes detecting, by a primary node, that a backup node is available and unconfigured. The method includes automatically replicating, by the primary node, the primary node to the backup node, including replicating a personality of the primary node to the backup node.

Automatic firmware upgrade of an embedded node

A method in an industrial process control and remote engineering system comprises receiving, by a remote control system, a control configuration, interfacing, by the remote control system, via a network, with at least one process equipment, and remotely controlling, by the remote control system, the at least one process equipment according to the control configuration. In some embodiments of the method, the remote control system is a twin of a local control system.

Cloud based control for remote engineering

A method of dynamically establishing a communication connection for mobile equipment (ME) to a process controller of an industrial processing facility (IPF) configured to run an industrial process. The process controller has a computing device includes a processor with a memory storing a different ME classes including a first ME class that the ME is in. The computing device is configured to implement dynamic establishment of a communication connection for ME to the process controller, including reading a representation of a first industrial protocol for the ME while docked at the process controller, translating the representation into a first industrial protocol address, and setting the first industrial protocol address as a first configuration instance in its industrial protocol infrastructure block to render the ME an attached ME. After undocking the ME, the process controller communicates with the ME while controlling the industrial process.

Dynamically establishing communication between mobile equipment and a process controller

An industrial process control system comprises a primary controller coupled with a buffer and a primary memory. The primary controller is configured to create at least one redundant data type based on at least one base data type. The at least one redundant data type includes tracked operators that are different from corresponding operators of the at least one base data type. The tracked operators include an assignment function that is a same assignment function performed by the corresponding operators of the at least one base data type, and a transfer function. The primary controller is further configured to perform the assignment function on a piece of data to assign the piece of data to an address in the primary memory, perform the transfer function to transfer the piece of data to a buffer, and transfer contents of the buffer to a backup memory.

Method for synchronizing redundant controllers without hardware support

A method for optimizing memory utilization in a gateway of a process control and automation system is provided. The method includes obtaining, for a selected intelligent electronic device (IED), a configured IED description (CID) file associated with the selected IED. The CID file is filtered to generate a filtered CID file. The filtered CID file is provided to the gateway, which is configured to use the filtered CID file to communicate with the selected IED.

Method and apparatus for optimizing memory utilization in gateway of process control and automation system

A method includes providing an identification of multiple device-specific parameters to a user, where the device-specific parameters are associated with a field device. The method also includes receiving a selection of at least one of the device-specific parameters from the user. The method further includes, upon receipt of the selection of the at least one device-specific parameter, providing an identification of multiple bits associated with the at least one selected device-specific parameter to the user. The method also includes receiving a selection of at least one of the bits from the user. The method further includes saving the at least one selected device-specific parameter and the at least one selected bit as a custom alarm condition. A selected criticality option or a selected priority option can be saved as part of the custom alarm condition. The custom alarm condition can be loaded into a controller of a process control system.

Apparatus and method for advanced alarming in field device protocols

Reestablishing connections when a block/device at one end is re-initialized. The data elements necessary for reestablishing a connection at both ends may be stored in a third device. When a block/device at one end is re-initialized, additional data elements necessary for reestablishing connection may be received from the re-initialized block, and all the data elements may be used to re-establish the connection. In an embodiment implemented in the context of a control system, a supervisory control station stores image of the various intermediate objects used in both end devices (at which ends of a connection terminate), receives parameters which identify changes when an end device is re-initialized, and makes changes to the stored intermediate objects. The changed objects are downloaded to the respective end devices to reestablish the connection.

Reestablishing connections when a block/device at one end is re-initialized

Growing community of inventors

Warminster, PA, United States of America

Raj L Bandekar