A controller capable of preventing human mistakes by customizing checking contents upon operations of users to automatically perform customized checking appropriately is provided. A controller that controls an industrial machine includes: a receiving unit that receives a condition of a callback process associated with control of the industrial machine and an action corresponding to the condition; and a designated condition registering unit that registers the condition and the action received by the receiving unit as a callback process.

In some embodiments, a system model construction platform may receive, from a system node data store, system node data associated with an industrial asset. The system model construction platform may automatically construct a data-driven, dynamic system model for the industrial asset based on the received system node data. A synthetic attack platform may then inject at least one synthetic attack into the data-driven, dynamic system model to create, for each of a plurality of monitoring nodes, a series of synthetic attack monitoring node values over time that represent simulated attacked operation of the industrial asset. The synthetic attack platform may store, in a synthetic attack space data source, the series of synthetic attack monitoring node values over time that represent simulated attacked operation of the industrial asset. This information may then be used, for example, along with normal operational data to construct a threat detection model for the industrial asset.

A controller capable of preventing human mistakes by customizing checking contents upon operations of users to automatically perform customized checking appropriately is provided. A controller that controls an industrial machine includes: a receiving unit that receives a condition of a callback process associated with control of the industrial machine and an action corresponding to the condition; and a designated condition registering unit that registers the condition and the action received by the receiving unit as a callback process.

A computer implemented method of dynamically updating an interactive diagnostic schematic overlay comprises displaying a first drawing comprising a plurality of static graphical objects, each static graphical object corresponding to a design element of a complex system and identifying a diagnostic schematic overlay comprising a plurality of dynamic graphical objects, wherein each dynamic graphical object is aligned with a static graphical object of the plurality of static graphical objects. In an embodiment, the diagnostic schematic overlay further includes a plurality of fields, wherein each field may be populated with one or more dynamic graphical objects, and the method further includes determining a design element operating state and/or a design element operating parameter for at least some of the static graphical objects at a first instance in time and displaying, together with the first drawing, determined operating states and determined operating parameters as an updated diagnostic schematic overlay.

In some embodiments, a system model construction platform may receive, from a system node data store, system node data associated with an industrial asset. The system model construction platform may automatically construct a data-driven, dynamic system model for the industrial asset based on the received system node data. A synthetic attack platform may then inject at least one synthetic attack into the data-driven, dynamic system model to create, for each of a plurality of monitoring nodes, a series of synthetic attack monitoring node values over time that represent simulated attacked operation of the industrial asset. The synthetic attack platform may store, in a synthetic attack space data source, the series of synthetic attack monitoring node values over time that represent simulated attacked operation of the industrial asset. This information may then be used, for example, along with normal operational data to construct a threat detection model for the industrial asset.

A computer implemented method of dynamically updating an interactive diagnostic schematic overlay comprises displaying a first drawing comprising a plurality of static graphical objects, each static graphical object corresponding to a design element of a complex system and identifying a diagnostic schematic overlay comprising a plurality of dynamic graphical objects, wherein each dynamic graphical object is aligned with a static graphical object of the plurality of static graphical objects. In an embodiment, the diagnostic schematic overlay further includes a plurality of fields, wherein each field may be populated with one or more dynamic graphical objects, and the method further includes determining a design element operating state and/or a design element operating parameter for at least some of the static graphical objects at a first instance in time and displaying, together with the first drawing, determined operating states and determined operating parameters as an updated diagnostic schematic overlay.