A functional module includes at least one technical object for performing a technical process, a control unit which control the technical object based on previously determined rules and interconnections that are being permanently stored in the control unit, a communication unit which interchanges data with external communication partners, wherein the functional module has a configurable logic unit which uses the communication unit to receive additional, variably predefinable rules and interconnections from an external communication partner and to take the additional, variably predefinable rules and interconnections as a basis for supplementing the rules and interconnections previously determined in the control unit with respect to an interaction of the functional module with at least one further functional module.

A system includes, but not limited to, at least one processor, a retriever configured to retrieve a first field device parameter belonging to burst mode settings from at least one field device connected to a field network, and a transmitter. The transmitter is configured to transmit a second field device parameter belonging to burst mode settings to the at least one field device, based on at least a configuration file. The second field device parameter being associated with the first field device parameter. The first field device parameter includes, not limited to, a first determiner that determines whether to enable or disable a first automated transmission of a first process related variable of the field device, the first process related variable is one of a process variable and a diagnostic result in a burst mode. The retriever, the comparator and the transmitter are implemented by the at least one processor.

A method for configuring a real or virtual electronic control unit, wherein a control unit software is executed on the control unit, and the control unit software comprises a basic software layer, the basic software layer is configured by a module configuration file by setting values of parameters, the scope of the configurable parameters being defined in a first module definition file which contains the identifiers of the configurable parameters. The first module definition file is replaced by a second module definition file, and a conversion of the first module configuration file into a second module configuration file takes place.

Systems and methods for detecting and using equipment location in a building management system are provided. Location information is measured by one or more measurement devices at a physical location of building equipment. The measured location information is used to automatically determine the physical location of the building equipment in or around a building. The location of the building equipment is integrated with an architectural model of a building served by the building equipment and a graphical visualization of the integrated model is generated. The location of the building equipment can be used to automatically associate the building equipment with other building equipment or with a building zone, to automatically generate control parameters and control algorithms, and/or to generate an augmented reality display of the building equipment in the building.

Disclosed herein, in various embodiments, are systems and methods for creating, implementing, communicating, and/or analyzing control logic governing operation of a system under control, where the control logic is defined in attributed data, which specifies control operators along with their input and output variables for the various control nodes. In example embodiments, a virtual control engine executes the control logic based on interpretations provided by an attributed-data dictionary.

Disclosed herein, in various embodiments, are systems and methods for creating, implementing, communicating, and/or analyzing control logic governing operation of a system under control, where the control logic is defined in attributed data, which specifies control operators along with their input and output variables for the various control nodes. In example embodiments, attributed data for an execution instance of control logic is interpreted to generate therefrom a symbolic representation of the control logic and associate, in the symbolic representation, output variable values with the control operators.