An information processing device includes a processor configured to not operate equipment according to biological information indicating an operation item of the equipment in a case where the biological information not expected to be produced from a user under specific circumstances is measured from the user.

A method for controlling an automation process in real time based on a change profile of at least one process variable, comprises determining a first change profile by a real-time-capable recognition method based on a non-linear optimization process taking into consideration at least one boundary condition of the process variable, determining a second change profile by a numerical algorithm based on the first change profile, including adapting a selected profile function to the first change profile by a numerical adaptation process and identifying the adapted profile function as a second change profile, checking whether the second change profile satisfies at least one secondary condition of the process variable, controlling the automation process based on the second change profile if the second change profile satisfies the secondary condition, and controlling the automation process based on a predetermined fallback profile if the second change profile does not satisfy the secondary condition.

An information processing device includes a processor configured to not operate equipment according to biological information indicating an operation item of the equipment in a case where the biological information not expected to be produced from a user under specific circumstances is measured from the user.

Systems and methods are described herein which may be implemented using computer programs comprising instructions that replicate the neural synchronization algorithm of the human brain. These implementations result in reduction, optimization, security and acceleration of data records/frames and processing in a computer system or network. An embodiment of the invention comprises motion decimation, motions reactor, motion replicator and motion aggregator modules for replicating higher intelligence functions, and a management module for configuring resources and monitoring system operation. Systems and methods as described herein may operate on wired or wireless computer networks. Data are translated from original format into thalamic motion and further encoded with motion signal protocol, then reproduced and aggregated using thalamic motion for integration with higher forms of intelligence. By duplicating the human brain's neural synchronization process, overall process and communication efficiency may be dramatically increased.