David A. Glanzer - Georgetown TX Colin R. Corles - Phoenix AZ Steven K. Brodman - Needham MA William M. Hawkins - Bloomington MN Michael D. Hirst - Lakeville MA Tony J. Kozlik - Phoenix AZ Lee A. Neitzel - Austin TX Raymond D. Sawyer - Raynham MA Johan I. Tegnell - Mansfield MA
Assignee:
Fieldbus Foundation - Austin TX
International Classification:
G06F 1516
US Classification:
709200, 709223, 709224, 370249
Abstract:
A distributed control system architecture (HSE) provides an open, interoperable solution optimized for integration of distributed control systems and other control devices in a high performance backbone, provides an open, interoperable solution that provides system time synchronization suitable for distributed control applications operable over a high performance backbone, and provides an open, interoperable solution that provides a fault tolerant high performance backbone as well as fault tolerant devices that are connected to the backbone. The distributed control system architecture comprises a High speed Ethernet Field Device Access (HSE FDA) Agent, which maps services of a distributed control system, e. g. , a fieldbus System, to and from a standard, commercial off-the-shelf (COTS) Ethernet/Internet component. The distributed control system architecture also comprises a High speed Ethernet System Management Kernel (HSE SMK) that operates to keep a local time, and keeps the difference between the local time and a system time provided by a time server within a value specified by the time sync class.
A new and improved control system architecture with a single server interface for application software that eliminates manual intervention by providing online, immediate access to information needed for plant/enterprise optimization, operation, configuration, maintenance and diagnostic application software. The control system architecture provides a method of dynamically creating a server directory to enable automatic access in an integrated control system. The method includes accessing a live list of fieldbus devices, building/updating a browse tree structure, the browse tree structure defining a branch and leaf node organization and naming for and data from the fieldbus devices, copying AP directories and FF objects from active fieldbus devices into a FF directory and mapping the FF Directory into the server directory.
Block-Oriented Control System On High Speed Ethernet
David Glanzer - Georgetown TX, US Colin Corles - Phoenix AZ, US Steven Brodman - Needham MA, US William Hawkins - Bloomington MN, US Michael Hirst - Lakeville MA, US Tony Kozlik - Phoenix AZ, US Lee Neitzel - Austin TX, US Raymond Sawyer - Raynham MA, US Johan Tegnell - Mansfield MA, US
International Classification:
G05B015/00 G06F015/173 G05B011/01
US Classification:
700018000, 700001000, 709223000
Abstract:
A distributed control system architecture (HSE) provides an open, interoperable solution optimized for integration of distributed control systems and other control devices in a high performance backbone, provides an open, interoperable solution that provides system time synchronization suitable for distributed control applications operable over a high performance backbone, and provides an open, interoperable solution that provides a fault tolerant high performance backbone as well as fault tolerant devices that are connected to the backbone. The distributed control system architecture comprises a High speed Ethernet Field Device Access (HSE FDA) Agent, which maps services of a distributed control system, e.g., a fieldbus System, to and from a standard, commercial off-the-shelf (COTS) Ethernet/Internet component. The distributed control system architecture also comprises a High speed Ethernet System Management Kernel (HSE SMK) that operates to keep a local time, and keeps the difference between the local time and a system time provided by a time server within a value specified by the time sync class. The local time is used to time stamp events so that event messages from devices may be correlated across the system. The distributed control system architecture further comprises a High speed Ethernet Local Area Network Redundancy Entity (HSE LRE) that provides redundancy transparent to the applications running on the system. The HSE LRE of each device periodically transmits a diagnostic message representing its view of the network to the other Devices on the system. Each device uses the diagnostic messages to maintain a Network Status Table (NST), which is used for fault detection and selection from a redundant pair of resources.
Block-Oriented Control System On High Speed Ethernet
David Glanzer - Georgetown TX, US Colin Corles - Phoenix AZ, US Steven Brodman - Needham MA, US William Hawkins - Bloomington MN, US Michael Hirst - Lakeville MA, US Tony Kozlik - Phoenix AZ, US Lee Neitzel - Austin TX, US Raymond Sawyer - Raynham MA, US Johan Tegnell - Mansfield MA, US
International Classification:
G05B015/00 G05B011/01 G06F015/173
US Classification:
700018000, 700001000, 709223000
Abstract:
A distributed control system architecture (HSE) provides an open, interoperable solution optimized for integration of distributed control systems and other control devices in a high performance backbone, provides an open, interoperable solution that provides system time synchronization suitable for distributed control applications operable over a high performance backbone, and provides an open, interoperable solution that provides a fault tolerant high performance backbone as well as fault tolerant devices that are connected to the backbone. The distributed control system architecture comprises a High speed Ethernet Field Device Access (HSE FDA) Agent, which maps services of a distributed control system, e.g., a fieldbus System, to and from a standard, commercial off-the-shelf (COTS) Ethernet/Internet component. The distributed control system architecture also comprises a High speed Ethernet System Management Kernel (HSE SMK) that operates to keep a local time, and keeps the difference between the local time and a system time provided by a time server within a value specified by the time sync class. The local time is used to time stamp events so that event messages from devices may be correlated across the system. The distributed control system architecture further comprises a High speed Ethernet Local Area Network Redundancy Entity (HSE LRE) that provides redundancy transparent to the applications running on the system. The HSE LRE of each device periodically transmits a diagnostic message representing its view of the network to the other Devices on the system. Each device uses the diagnostic messages to maintain a Network Status Table (NST), which is used for fault detection and selection from a redundant pair of resources.
David Glanzer - Georgetown TX, US Lee Neitzel - Austin TX, US Donald Goff - Austin TX, US
International Classification:
G05B 11/01
US Classification:
700020000
Abstract:
A new and improved control system architecture with a single server interface for application software that eliminates manual intervention by providing online, immediate access to information needed for plant/enterprise optimization, operation, configuration, maintenance and diagnostic application software. The control system architecture provides a method of dynamically creating a server directory to enable automatic access in an integrated control system. The method includes accessing a live list of fieldbus devices, building/updating a browse tree structure, the browse tree structure defining a branch and leaf node organization and naming for and data from the fieldbus devices, copying AP directories and FF objects from active fieldbus devices into a FF directory and mapping the FF Directory into the server directory.
MARK NIXON - Round Rock TX, US Lee Allen Neitzel - Austin TX, US
International Classification:
G06F 3/14
US Classification:
715236
Abstract:
Example methods and apparatus to display process data are disclosed. A disclosed example method includes receiving a request to view process data via a web browser, identifying a server that stores the process data, wherein the server receives the process data from a process control system, retrieving the process data from the server, selecting an Extensible Stylesheet Language Transformation (XSLT) template based on a property of the process data, and generating a display file conforming to a web browsing format based on the XSLT template, the property, and the process data, wherein the display file specifies how the process data is to be displayed via the web browser.
Methods And Apparatus To Display Localized Process Control Objects
Mark Nixon - Round Rock TX, US Lee Allen Neitzel - Austin TX, US Ling Zhou - Austin TX, US
International Classification:
G06F 3/14 G06F 3/00
US Classification:
715236, 715866
Abstract:
Example methods and apparatus to display localized process control objects. A disclosed example method includes receiving a request to view a process control object associated with a process control system, selecting a device description file based on the process control object, the device description file including a tag, selecting a set of locale templates based on a locale associated with the request, selecting a locale template from the set of locale templates based on the process control object, and processing the process control object for display by inserting portions of the selected locale template into the tag in the device description file.
David A. Glanzer - Georgetown TX Terrence L. Blevins - Round Rock TX Ram Ramachandran - Austin TX Kenneth D. Krivoshein - Elgin TX Patricia E. Brett - Ft. Washington PA Jack Elias - Lansdale PA William R. Hodson - Ft. Washington PA Frank Lynch - Ft. Washington PA Ashok K. Gupta - Dayton NJ Lee A. Neitzel - Austin TX Thomas B. Kinney - Foxboro MA Chuji Akiyama - Tokyo, JP Yasuo Kumeda - Tokyo, JP Hiroshi Mori - Tokyo, JP Mitsugu Tanaka - Tokyo, JP
The present invention is a block oriented control system that allows interoperability between devices made by different manufacturers. A block oriented control system is a system which includes a plurality of field devices incorporating a physical layer, communication stack, and user layer, with the field devices being connected by a transmission medium, such as a bus. The physical layer receives signals from the bus and translates the signals into a message for the communications stack, and receives messages from the communications stack and translates the messages into signals for the bus. The communication stack controls the communications between devices operating in the control system. The user layer is a block oriented approach to the systems control functions, and includes function blocks and system management. The function blocks are standardized encapsulations of control functions, such as analog input or proportional/derivative.
Guitarist Neil Hunter's spidery, Peter Buck-esque riffs, just as high in the ever-insistent mix as Lee Neitzel's easy/beatific vocals, takes listeners back ...