Abstract: An industrial automation component, a computer program and a computer-readable medium and method for configuring an industrial automation component, wherein at least one feature of the industrial automation component that is not configurable with an engineering system supporting the component, non-supported feature, is configured by interpreting a description of a configuration of the at least one non-supported feature with an on-board compiler of the component and integrating the interpreted description to a basic configuration having been generated with the engineering system and with respect to at least one further feature, supported feature, of the component.

Abstract: In order to visualize screen content on a data visualization system in the context of monitoring and controlling the functionality of at least one device, which is networked in an installation-related and operational manner to form a device network, in a technical installation, in which each visualization aspect from a set of visualization aspects which is available for the device can be linked to device-specific operating data of device operating data provided by the installation, which device-specific operating data are respectively tied to this visualization aspect.

Abstract: A system and method for supervisory and control support in an industrial automation system, including a supervisory device with a software stack having a host operating system and a plurality of independent application containers Each container includes a modular application platform being associated with a base functionality for the supervisory device and a guest operating system layer integrated with the modular application platform according to a system integration. A one-time integration of system dependencies is executed during development of the container. The independent application containers are portable for direct deployment in an operating system of a type different than that of the host operating system and can run unchanged without requiring any change to component artifacts.

Abstract: In order to visualize screen content on a data visualization system in the context of monitoring and controlling the functionality of at least one device, which is networked in an installation-related and operational manner to form a device network, in a technical installation, in which each visualization aspect from a set of visualization aspects which is available for the device can be linked to device-specific operating data of device operating data provided by the installation, which device-specific operating data are respectively tied to this visualization aspect.

Abstract: An industrial automation component, a computer program and a computer-readable medium and method for configuring an industrial automation component, wherein at least one feature of the industrial automation component that is not configurable with an engineering system supporting the component, non-supported feature, is configured by interpreting a description of a configuration of the at least one non-supported feature with an on-board compiler of the component and integrating the interpreted description to a basic configuration having been generated with the engineering system and with respect to at least one further feature, supported feature, of the component.

Abstract: In an industrial automation environment, a three-tier architecture is used to offload human-machine-interaction (HMI) automation tasks to local mobile devices and then the cloud, to take advantage of distributed computing and processing resources and to add new features to the HMI panel system. A scheduling algorithm based on the characteristics of the HMI tasks distributes these tasks intelligently among the local HMI panel, mobile devices and the cloud, to best utilize the merits of each tier.

Abstract: A human-machine interface (HMI) application (26) uses parallel processing. The HMI engineering system (24) allows explicit specification (44) of different cores of a multi-core processor (16) for different elements and/or actions. The programmer may design the HMI application for concurrent operation. The HMI engineering system (24) or runtime system (28) may test (56) for data dependency amongst the elements or actions and automatically assigns different cores where data is independent. During runtime, different threads for the HMI application (e.g., different elements and/or actions) are scheduled for different cores.

Abstract: In an industrial automation environment, a three-tier architecture is used to offload human-machine-interaction (HMI) automation tasks to local mobile devices and then the cloud, to take advantage of distributed computing and processing resources and to add new features to the HMI panel system. A scheduling algorithm based on the characteristics of the HMI tasks distributes these tasks intelligently among the local HMI panel, mobile devices and the cloud, to best utilize the merits of each tier.

Abstract: A method for operating first or second control devices for controlling a technical installation with control data stored on a data medium in a predetermined format, wherein the control data is stored on the data medium in a first format such that this data can be processed directly for read/write operations by the first control device, during operation of the second control device first control data is converted into a second format such that the converted first control data can be processed directly for read/write operations by the second control device, and where second control data is converted during each access at runtime from the first format into a format that can be processed by the second control device, or the first control data is converted during each access at runtime from the second format into a format that can be processed by the first control device.

Abstract: A method for operating first or second control devices for controlling a technical installation with control data stored on a data medium in a predetermined format, wherein the control data is stored on the data medium in a first format such that this data can be processed directly for read/write operations by the first control device, during operation of the second control device first control data is converted into a second format such that the converted first control data can be processed directly for read/write operations by the second control device, and where second control data is converted during each access at runtime from the first format into a format that can be processed by the second control device, or the first control data is converted during each access at runtime from the second format into a format that can be processed by the first control device.

Abstract: A human-machine interface (HMI) application (26) uses parallel processing. The HMI engineering system (24) allows explicit specification (44) of different cores of a multi-core processor (16) for different elements and/or actions. The programmer may design the HMI application for concurrent operation. The HMI engineering system (24) or runtime system (28) may test (56) for data dependency amongst the elements or actions and automatically assigns different cores where data is independent. During runtime, different threads for the HMI application (e.g., different elements and/or actions) are scheduled for different cores.