Abstract: A method for operating a time-sensitive network (TSN) includes splitting data stream on network elements into a “preempting” class and a “preemptable” class based on a mapping from priority labels; forwarding the data streams to respective next-hop network elements, wherein the forwarding of “preempting” data streams takes precedence over the forwarding of “preemptable” data streams; and forwarding the data streams received from both segments based on the priority labels and the classes of the data streams to at least one next-hop network element; wherein forwarding of “preempting” data streams takes precedence over forwarding of “preemptable” data streams; wherein the priority label attached to the data stream that has the highest priority is different from the priority label attached to the data stream that has the highest priority within the second segment.

Abstract: Systems and methods for supporting multiple time synchronization protocols within an industrial device include obtaining a time reference from each industrial device within the first set of industrial devices and the second set of industrial devices. The time reference provides the basis for synchronization of the clock and other clocks of first set of industrial devices and the second set of industrial devices. A principal time reference is selected from among the time references. Once selected, the principal time reference is correlated with each of the time references obtained from the first set of industrial devices and the second set of industrial devices. With the principal time reference correlated, related communication with the second device may be controlled.

Abstract: A method for operating a time-sensitive network (TSN) includes splitting data stream on network elements into a “preempting” class and a “preemptable” class based on a mapping from priority labels; forwarding the data streams to respective next-hop network elements, wherein the forwarding of “preempting” data streams takes precedence over the forwarding of “preemptable” data streams; and forwarding the data streams received from both segments based on the priority labels and the classes of the data streams to at least one next-hop network element; wherein forwarding of “preempting” data streams takes precedence over forwarding of “preemptable” data streams; wherein the priority label attached to the data stream that has the highest priority is different from the priority label attached to the data stream that has the highest priority within the second segment.

Abstract: Systems and methods for supporting multiple time synchronization protocols within an industrial device include obtaining a time reference from each industrial device within the first set of industrial devices and the second set of industrial devices. The time reference provides the basis for synchronization of the clock and other clocks of first set of industrial devices and the second set of industrial devices. A principal time reference is selected from among the time references. Once selected, the principal time reference is correlated with each of the time references obtained from the first set of industrial devices and the second set of industrial devices. With the principal time reference correlated, related communication with the second device may be controlled.

Abstract: A wireless communication device for a wireless network employing a wireless time division communication structure, where the wireless communication device includes a wireless transmitter, a wireless receiver and an access control unit, which is configured to order the wireless transmitter to transmit, in a contention interval, a priority setting of a wireless communication device competing for resources, where the priority setting is transmitted as a signal having a frequency representing the priority setting, order the wireless receiver to receive, in the contention interval, priority settings of other competing wireless communication devices as signals having frequencies representing these priority settings, compare the transmitted priority setting with the received priority settings and seize a following data interval if the transmitted priority setting is higher than the received priority settings.

Abstract: A wireless network managing device for a wireless network that is part of a process control system. The wireless network managing device includes a node determination element configured to receive an operator selection of at least one node in the process control system via an operator terminal and determine a field device implementing the functionality of the node, and a bandwidth control element configured to adjust a bandwidth assigned to the at least one field device in an auxiliary data section of a communication structure used by the wireless network based on the received operator selection in order to increase system responsiveness.

Abstract: A wireless network managing device for a wireless network that is part of a process control system. The wireless network managing device includes a node determination element configured to receive an operator selection of at least one node in the process control system via an operator terminal and determine a field device implementing the functionality of the node, and a bandwidth control element configured to adjust a bandwidth assigned to the at least one field device in an auxiliary data section of a communication structure used by the wireless network based on the received operator selection in order to increase system responsiveness.

Abstract: A wireless network managing device for a wireless network that is part of a process control system. The wireless network managing device includes a node determination element configured to receive an operator selection of at least one node in the process control system via an operator terminal and determine a field device implementing the functionality of the node, and a bandwidth control element configured to adjust a bandwidth assigned to the at least one field device in an auxiliary data section of a communication structure used by the wireless network based on the received operator selection in order to increase system responsiveness.

Abstract: A wireless communication device for a wireless network employing a wireless time division communication structure, where the wireless communication device includes a wireless transmitter, a wireless receiver and an access control unit, which is configured to order the wireless transmitter to transmit, in a contention interval, a priority setting of a wireless communication device competing for resources, where the priority setting is transmitted as a signal having a frequency representing the priority setting, order the wireless receiver to receive, in the contention interval, priority settings of other competing wireless communication devices as signals having frequencies representing these priority settings, compare the transmitted priority setting with the received priority settings and seize a following data interval if the transmitted priority setting is higher than the received priority settings.

Abstract: A wireless network managing device for a wireless network that is part of a process control system. The wireless network managing device includes a node determination element configured to receive an operator selection of at least one node in the process control system via an operator terminal and determine a field device implementing the functionality of the node, and a bandwidth control element configured to adjust a bandwidth assigned to the at least one field device in an auxiliary data section of a communication structure used by the wireless network based on the received operator selection in order to increase system responsiveness.