High-resolution temperature monitoring of large areas with 24 sensors
Flexora Thalis: Non-invasive. Wireless. Real time.
More measurement points. More detail. More control.
High-resolution temperature monitoring is essential when it comes to reliably understanding and optimizing thermal processes in large surfaces and assets. Especially in large-scale facilities in the energy sector or process industry, a fine-grained measurement of temperature distribution across large areas can help to identify local hotspots, energy losses, and process deviations at an early stage.
Higher data quality through large-area, high-resolution temperature monitoring
Flexora Thalis uses a particularly high sensor density with 24 sensors, enabling temperature profiles to be captured with significantly greater accuracy and spatial resolution across large areas. This provides a more comprehensive understanding of thermal processes within the assets. This real-time monitoring with high resolution can significantly improve the early detection of anomalies, thermal hotspots, and critical process deviations.
Advantages of 24 temperature sensors in one foil
Early detection of anomalies and failures
Process optimization
Non-invasive, wireless, and retrofittable
Real-time data for digital twins, and AI applications
Basis for decision-making in predictive maintenance
Reduction of energy consumption and CO₂ emissions
Flexora Thalis at a glance: 24 sensors for high-resolution temperature monitoring of large areas
Seamlessly integrated – quickly installed, immediately ready for use
The Flexora sensor foil works like a second skin for machines and systems. With a thickness of less than 500 µm, it is extremely flexible and can be easily installed under insulation or in hard-to-reach areas without disrupting ongoing operations.
Installation is non-invasive, using adhesive strips or magnets. There is no need for drilling, welding, or complex cabling, enabling quick retrofitting in just a few minutes and seamless integration into existing systems.
Up to 24 integrated sensors capture temperature data in real time across large areas, ensuring precise, high-resolution temperature monitoring.
Flexible connectivity and intelligent data transmission
The Flexora Thalis data acquisition box ensures secure and continuous data transmission. It accurately reads the recorded temperature data, processes it for digital use, and sends it directly to the device of your choice.
Thanks to its versatile connectivity, the IoT box integrates seamlessly into existing control and automation systems and offers maximum compatibility.
On request, our software developers also support the implementation of custom data transmission protocols, ensuring that Flexora Thalis is optimally adapted to your existing system landscape.
Full control through intelligent data visualization
The dashboard allows you to continuously visualize the recorded data from your systems with location-specific detail. Temperature profiles are displayed as clear graphs and thermal maps and can be analyzed both in real time and historically. This gives you a detailed overview of the current status of your systems at all times, as well as trends over time and deviations in the process data.
The data visualization helps you better understand processes, make informed decisions, and identify optimization potential at an early stage. The system is complemented by flexible export functions, such as CSV format.
Based on the continuously collected data, digital twins can also be created, enabling location-independent monitoring and intelligent automation.
High-resolution temperature monitoring for maximum transparency in heat storage tanks
The high-resolution temperature monitoring of Flexora Thalis provides the level of data depth essential for precise, efficient, and intelligent thermal management.
Our flexible temperature sensors generate a detailed, spatially resolved temperature profile across the entire storage system, giving you continuous insight into the current state of charge and the actual available energy. This allows you to optimally control charging and discharging processes, minimize energy losses, and significantly increase the overall efficiency of the system.
