Fraunhofer IPMS
Smart demonstrator for system maintenance
Fraunhofer IPMS has developed a demonstrator that combines sensor technology, data acquisition and AI-based data evaluation for condition monitoring and predictive maintenance.
The demonstrator uses sensor technology combined with AI-based data processing to detect potential machine damage at an early stage and avoid downtime. This opens up new possibilities for the preventive maintenance of systems and machines.
Dr. Marcel Jongmanns, head of the project at Fraunhofer IPMS, explains: "Our solution enables precise condition monitoring of machines through the use of sensors and intelligent data analysis. The integration of AI into the sensors allows us to detect damage before it occurs, optimizing maintenance intervals and minimizing downtime."
Multimodal sensors for system monitoring
The ShowCase displays a miniaturized conveyor belt and demonstrates the performance of a new type of toolbox for monitoring industrial plants. Multimodal sensors are used in the demonstrator. The sensor function records accelerations in the spatial directions and the corresponding rotation rates. In addition, magnetic field sensors and acoustic or ultrasonic sensors are used to monitor the system.
The system offers two main functions: The detection of belt tension and the detection of blockages. The AI models are based on extensive data analyses and enable the precise prediction of damage. To increase the accuracy of the models, real-time calibrations can be performed to adapt the system to new environments.
The Fraunhofer IPMS system solution aims to combine the sensors with a dedicated edge computing unit based on the RISCV architecture for data processing directly on site. This enables complex AI operations and real-time analyses. Changing environmental influences can be modeled directly or taken into account in the analysis. This enables the integration of a large number of sensors and significantly increases the accuracy of predictions about the condition of the industrial plant. Existing limitations in computing power for real-time modeling in embedded systems are overcome.










