Abstract: A method for providing a name service within an industrial automation system, wherein communication devices of the industrial automation system each check via a name service component whether a device name with a topological or hierarchical name component, which essentially completely designates a spatial or hierarchical arrangement of the respective communication device, is allocated to the respective communication device, where in cases of a positive check result, the communication devices each designate their associated device name as complete device name, and where in cases of a negative check result, the communication devices each independently generate their complete device name from topological or hierarchical name components distributed via messages with router advertisements and a name component unambiguous within their respective subnetwork.

Abstract: A method for providing a name service within an industrial automation system, wherein communication devices of the industrial automation system each check via a name service component whether a device name with a topological or hierarchical name component, which essentially completely designates a spatial or hierarchical arrangement of the respective communication device, is allocated to the respective communication device, where in cases of a positive check result, the communication devices each designate their associated device name as complete device name, and where in cases of a negative check result, the communication devices each independently generate their complete device name from topological or hierarchical name components distributed via messages with router advertisements and a name component unambiguous within their respective subnetwork.

Abstract: A method of operating an automation system cyclically communicating with a central unit in accordance with a send clock and a predetermined reduction ratio using a first cycle time, wherein the central unit uses a send clock SCC for its communication, and communicates with the automation device taking into account the send clock and a reduction ratio of the automation device, and wherein the send clock for the automation device is divided by the send clock of the central unit, the largest power-of-2 value smaller than the division result is selected and multiplied with the reduction ratio of the automation device resulting in a reduction ratio of the central unit for communicating with the automation device, and the reduction ratio of the automation device is used to step down the send clock of the central unit for cyclically communicating with the automation device using a second cycle time.

Abstract: There is described a method and a system allowing the use of at least one resource of a first automation system in at least one second automation system, whereby the resource is made available by the first automation system and an identification characteristic is used for the unique identification of the resource in the at least second automation system. A user is enabled to navigate in a simple manner between the application locations of originator and user of a resource. This is achieved by the fact that the use of the resource of the first automation system in the at least second automation system is mapped as a bilateral reference in each case between the automation systems and is stored in each case in a storage area in the automation systems, whereby the bilateral reference also contains application locations of the resource in the respective automation system.

Abstract: A method and a configuration component for assigning a respective station name to a plurality of components of an industrial automation arrangement, wherein projected components are each allocated a station name and a number of projected properties in a project. During a startup phase or an operating time of the automation arrangement, the configuration component ascertains the components in the data network are ascertained, retrieves information about respective actual properties of the ascertained components, determines a respective similarity value for each ascertained component in relation to the projected components using the degree of match between the actual properties and projected properties, and assigns to each ascertained components the projected station name of that projected component having the best similarity value to allow partial or complete automation of the process of assigning station names, even if some of the properties of the projected and ascertained components differ from one another.

Abstract: A computer-implemented method for automatically generating dynamic frame packing groups for an automation system having a plurality of field devices. The field devices are assignable to different controllers, and the automation system is provided for communication between the field devices and the controllers using dynamic frame packing, where the method comprises receiving a description of the configurations of the field devices and the controllers, automatically generating the dynamic frame packing groups by analyzing the configurations, and assigning the field devices to packing groups.

Abstract: A method for data transmission in an automation system from a second field device via a first field device to a receiver, wherein, at the first field device, a first data subframe is created, a second data frame is received from the second field device, and a first data frame including the first and the second data subframe is sent correctly-timed by Dynamic Frame Packing to the receiver. In the event the second data subframe is unable to be appended directly to the first data subframe at the latest after the correctly-timed sending of the first data subframe, the sending of the first data frame is shifted by a time value, where the time value is calculated so that immediately after the sending of the first data subframe, the second data subframe is able to be appended directly to the first data subframe.

Abstract: A method of operating an automation system cyclically communicating with a central unit in accordance with a send clock and a predetermined reduction ratio using a first cycle time, wherein the central unit uses a send clock SCC for its communication, and communicates with the automation device taking into account the send clock and a reduction ratio of the automation device, and wherein the send clock for the automation device is divided by the send clock of the central unit, the largest power-of-2 value smaller than the division result is selected and multiplied with the reduction ratio of the automation device resulting in a reduction ratio of the central unit for communicating with the automation device, and the reduction ratio of the automation device is used to step down the send clock of the central unit for cyclically communicating with the automation device using a second cycle time.

Abstract: A method for exchanging peripheral data and submodule, wherein a transfer means is embedded into an operating system of the submodule for the exchange of the peripheral data with a main module to accelerate a process of copying input/output data from a decentralized peripheral system to a superordinate level.

Abstract: A method for configuring fieldbus stations, wherein station names and addresses for the fieldbus stations are executed by reading in a parameter over a first network port of a coupling element, which acts as a topology anchor so as to assign a unique addressing in a subnetwork, i.e., a unique name and a unique IP address, in a PROFINET-IO, such as a fieldbus based on Ethernet.

Abstract: A computer-implemented method for automatically generating dynamic frame packing groups for an automation system having a plurality of field devices. The field devices are assignable to different controllers, and the automation system is provided for communication between the field devices and the controllers using dynamic frame packing, where the method comprises receiving a description of the configurations of the field devices and the controllers, automatically generating the dynamic frame packing groups by analyzing the configurations, and assigning the field devices to packing groups.

Abstract: A method for data transmission in an automation system from a second field device via a first field device to a receiver, wherein, at the first field device, a first data subframe is created, a second data frame is received from the second field device, and a first data frame including the first and the second data subframe is sent correctly-timed by Dynamic Frame Packing to the receiver. In the event the second data subframe is unable to be appended directly to the first data subframe at the latest after the correctly-timed sending of the first data subframe, the sending of the first data frame is shifted by a time value, where the time value is calculated so that immediately after the sending of the first data subframe, the second data subframe is able to be appended directly to the first data subframe.

Abstract: A method for configuring fieldbus stations, wherein station names and addresses for the fieldbus stations are executed by reading in a parameter over a first network port of a coupling element, which acts as a topology anchor so as to assign a unique addressing in a subnetwork, i.e., a unique name and a unique IP address, in a PROFINET-IO, such as a fieldbus based on Ethernet.

Abstract: A method for exchanging peripheral data and submodule, wherein a transfer means is embedded into an operating system of the submodule for the exchange of the peripheral data with a main module to accelerate a process of copying input/output data from a decentralized peripheral system to a superordinate level.

Abstract: The invention relates to a method for transferring data between a mobile component and a controller of an automation system with a link for linking the component to the controller. The component is assigned a memory area in the memory of the controller, in which data to be transferred to the component is stored and copied into memory areas assigned to all links, so that all links provided for communication with the component have the current data available to them, and into which current data is copied by the component out of the memory area of the link in the radio cell of which the component is currently located. For a user application running on the controller of the automation system a handover of the component between different radio cells is transparent, since the application merely accesses the always up-to-date component data in the memory area assigned to the component.

Abstract: A method of operating an automation system with a plurality of automation devices connected for communication with a central unit is provided. Each automation device handles communication in accordance with a send clock. The central unit stores for each automation device accessible for communication information about the send clock for this device in a database. Further, the central unit handles communication with the automation devices according to their individual send clock.

Abstract: A communications subscriber (P) which is suitable as an interface between a network (N) and a field bus (BU) and has software objects (A?, B?) for representing appliances (A, B) which can be connected via the field bus, which software objects can be addressed, like the appliances (A, B) themselves, via the network (N), so that appliances having only field bus access can also be transparently incorporated into “high performance” networks.

Abstract: A field bus coupler, a system with a field bus coupler, a transmission method for acyclic data via a field bus coupler and a computer program product are provided. The field bus coupler is configured to transmit acyclic data. The field bus coupler possesses a first and a second network side, each network side possessing an interface for connecting a field bus. On the first network side an output module is provided for receiving an output data record of a first field bus. The data record is mirrored from the first to the second network side and buffered in a memory. The mirrored data record is thus provided via an input module on the second network side to a second field bus as an input data record.

Abstract: There is described a method and system for using at least one variable of a first automation system in a second automation system, with the variable being made available by the first automation system. An object is to allow a user to program access to a local and remote variable in an identical manner, without having to program special access functions, set up connections and apply a local variable to take up the variable value or to create additional assignment tables and similarly apply the local variable. This object is achieved with a method and system of the type mentioned above, in that an identification feature is used for the unique identification of the variable in the at least second automation system, said identification feature being hierarchically structured and having a system-specific path name and a name for the variable.

Abstract: An automation system includes at least one automation object, with a directory for storing object names of the at least one automation object. An object name is assigned a directory entry which includes first information data as a reference to the automation object; second information data as a description of technological functionality; and third information data as a description of interfaces of the automation object. This results in immediate and permanent access to currently created (partial) solutions, so that parallel and/or distributed working on automation objects is possible.