Modern fluid systems demand accurate, reliable monitoring to detect inefficiencies, prevent failures, and optimise performance. Engineers often face challenges with measurement accuracy at low flow rates, maintenance from mechanical wear, and complex calibration processes. This paper explains how non-invasive sensing approaches can overcome these issues, enabling stable, low-power measurement of flow, pressure, and temperature. By […] The post Pressure and Ultrasonic Flow Sensing for Smarter Fluid Systems appeared first on EE Times .
The increasing complexity and performance demands of modern industrial and compute systems necessitate more precise and reliable fluid management, exacerbated by global resource constraints.
Improved sensing technologies for fluid systems directly contribute to operational efficiency, resource conservation, and the prevention of critical infrastructure failures, impacting sectors from manufacturing to data centers.
The adoption of non-invasive ultrasonic and pressure sensing allows for greater accuracy, reduced maintenance, and enhanced automation in fluid systems, moving towards smarter and more resilient infrastructure.
- · Industrial automation sector
- · Semiconductor manufacturing
- · Data centers
- · Water management utilities
- · Manufacturers of traditional mechanical flow sensors
- · Industries reliant on manual calibration processes
Widespread adoption of non-invasive fluid sensing in critical infrastructure for real-time monitoring and optimisation.
Reduced operational costs and carbon footprint for industries due to improved efficiency in fluid resource management.
Enhanced resilience of compute and manufacturing supply chains against disruptions caused by fluid system failures or resource scarcity.
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