Rockwell Automation Technologies Incorporated

John Patrick Caspers

Gregory A Majcher

Steven P Blech

Steven T Haensgen

Wayne H Wielebski

Yutao Wang

Jeffrey Alan Kilburn

Darryl E Whitley

Gregg M Sichner

David S Wehrle

Jeffrey Scott Martin

Carl R Schumaker

William Howell Martin

Dayin Xu

Zhen Wei

Patrick D Telljohann

Gregory J Svetina

Benfeng Tang

Jes Asmussen

David Dale Brandt

Tao Song

Kevin A Retlich

Linglai Li

David W Siegler

David Bradly Berman

Chirag L Malkan

Alvaro Sanchez

Patrick K Duffy

Will J Preischel

Yanbin Zhang

Eric Allen Norrod

Jeffrey Scott Martin, Sr

Bingchao Tang

Xiaofeng Shi

Liz V Bahl Prosak

Vaithianathan Jothi

Jeffrey S Martin

Yutao T Wang

Embodiments of this present disclosure may include a system that includes a first network device. The first network device may perform an operation according to a device configuration file. The system may also include a second network device that directly communicatively couples to the first network device through a peer-to-peer (P-P) communication network. The second network device may include a backup file of the device configuration file. The second network device may transmit the backup file of the device configuration file to the first network device in response to detecting that the first network device is lacking the device configuration file.

Peer-level control of industrial automation system components

A method of motor control device emulation includes receiving, via a network-enabled motor control device, a communication request corresponding to an emulated motor control device. The method further includes modifying the communication request to match an expected communication request. Additionally, the method includes providing a modified communication request to an associated hardware module within the network-enabled motor control device. Further, the expected communication request is based on the network-enabled motor control device.

Systems and methods for emulating a network device

For device configuration and monitoring, a processor receives configuration settings from an electronic device via the electronic device interface. The processor converts the configuration settings to hardware settings for a target device. The processor communicates the hardware settings to the target device via a target device interface.

Adapter for device configuration and monitoring

Systems, methods and apparatus for controlling a control network system coupled to an intelligent power tap are disclosed. The method includes sensing at least one of a current signal and a voltage signal, determining that the current signal or the voltage signal is not within a preset range for a predefined period of time, sending a first warning message to the control network system, determining whether to shut off the network power or the switched power, and determining whether to broadcast a second warning message.

Intelligent power tap with zone control and safety zone control

For function block framework generation, a method generates a function block framework for a hardware device. The function block framework includes function block framework source code and a function block framework description. The hardware device includes a logic engine and automation hardware. The function block framework presents a standard interface to a function block core executed by the logic engine. The method instantiates the function block framework and the function block core as an executable image for the hardware device. The method further configures the logic engine to execute the executable image using the function block framework description. The method executes the executable image with the logic engine.

Function block framework generation

Systems, methods and apparatus for bidirectional network geography delivery are disclosed. The methods include receiving a reference subnet network geography from a main network device, storing the received reference subnet network geography, retrieving an actual subnet network geography of a subnet network, comparing the reference subnet network geography to the actual subnet network geography and determining if they are compatible, and commissioning the subnet network based on the received reference subnet network geography when the received reference subnet network geography is compatible with the actual subnet network geography of the subnet network. The methods also include retrieving an actual subnet network geography of a subnet and sending it a main network device, causing it to become a new reference subnet network geography and sending the new reference subnet network geography to a main network device.

Systems and methods for bidirectional network geography delivery

A system to verify the identity of modules within a stack light is disclosed. A sensor is mounted to a circuit board inserted within a housing of the module, and a target is mounted to or integrally formed in the housing. The sensor detects and generates a signal corresponding to the detected target. Different targets or locations for the target are provided for each housing. The module, a base for the stack light, or a remote controller in communication with the stack light identifies the housing in which the circuit board is mounted based on the feedback signal generated by detecting the target. At power-up, a routine may initiate a verification routine by which each module in the stack light determines the type of housing in which the circuit board for that module is located.

System and method of identifying a module in a stack light

Systems, methods and apparatus for adding a non-inherent component to a device key of a networked device are disclosed. The methods include receiving a device key of the networked device, where the device key comprises one or more device identifying attributes of the networked device in the nodal geographic network, identifying location information of the networked device in the nodal geographic network, and where the location information represents a geographic relationship between the networked device and other network nodes of the nodal geographic network, assigning a position attribute to the networked device according to the identified location information of the networked device in the nodal geographic network, and adding the position attribute to the device key as the non-inherent component for the networked device, and storing the device key independently from the networked device or in the networked device, or both.

Systems and methods for adding a non-inherent component to a device key of a networked device

Systems, methods and apparatus for multiple network addressing modes are disclosed. The method includes selecting one of an automap full mode, an automap-by-type full mode, an automap light mode, an automap-by-type light mode and a manual node commissioning mode for determining and assigning the node addresses for the network devices, determining and assigning the node addresses for the network devices based on the automap full mode, determining and assigning the node addresses for the network devices based on the automap-by-type full mode, determining and assigning the node addresses for newly added network devices to an existing network based on the automap light mode, determining and assigning the node addresses for the newly added network devices to the existing network based on the automap-by-type light mode, and determining and assigning the node addresses for the network devices based on the manual node commissioning mode.

Systems, methods and apparatus for supporting multiple network addressing modes

Systems and methods for providing diagnostic information by an intelligent power tap is disclosed. The intelligent power tap includes a circuit board. The intelligent power tap includes a microcontroller disposed on the circuit board, where the microcontroller is configured to report the geographical location of the intelligent power tap. The intelligent power tap includes a physical layer network interface connected to the microcontroller and the physical network. The intelligent power tap includes a switch controlled by the microcontroller, where the switch is capable of shutting off a network power to be injected into the network system.

Systems and methods for providing diagnostic information by an intelligent power tap is disclosed. The power tap includes a circuit board and a microcontroller disposed on the circuit board. The microcontroller is configured to provide a status report of the intelligent power tap. The power tap further includes a physical layer network interface connected to the microcontroller and the physical network. The intelligent power tap is configured to inject at least one of a network power and a switched power into the network system.

Intelligent power tap for providing power and communicating in industrial automation applications

Systems and methods are provided for a power tap with adjustable configuration. The power tap includes a circuit board that acts on the adjustable configuration to define the function of the power tap in the system. The power tap may include a microcontroller or a set of discrete logic disposed on a circuit board connected to an adjustable configuration mechanism, which defines the intelligent power tap's function in the network system.

Power tap with adjustable configuration

The disclosed embodiments relate generally to a modular connector for a multi-conductor ribbon cable provided for power and data transmission to a network of devices. The modular connector is coupled to the conductors in the ribbon cable by insulation displacement members. The connector contains both fixed and movable conductor punches used to configure a network interface.

Connector with sliding tap

The disclosed embodiments relate generally to a modular connector for a multi-conductor ribbon cable provided for power and data transmission to a network of devices. The modular connector is coupled to the conductors in the ribbon cable by insulation displacement members. When the connector is attached to the ribbon cable and disconnected from a device a continuous circuit path is provided and when connected to a device configurable circuit paths are provided.

Growing community of inventors

Racine, WI, United States of America

John Patrick Caspers