



Ultrasound is the best tool for detecting friction, impacting or turbulence.
As compressed air seeps through a leak, it produces turbulent flow, along with a high frequency hissing noise. This hissing, while audible in a quiet setting, is nearly impossible to hear over the roar of production. Other leak detection methods such as the soap bubble test are messy, difficult and time consuming. On the contrary, ultrasound provides an easier and effective way of detecting air leaks.
How to Find and Fix Leaks using your Ultrasound Device
Air leaks are easily found, tagged and fixed with regularly performed leak surveys.
Air leaks happen at the joints, elbows, and end fittings of the piping. The process is simple, scan the piping and end fittings with an ultrasonic leak detector in a sweeping motion. Turbulence created by a leak is localized to the leak point. When you discover a spike in dB’s, inspect the area until you find where the dB’s peak. That is your leak point. As you identify leaks, tag them for repair when your maintenance schedule allows it.
Maintaining a regular leak survey schedule is crucial to the health of your factory, reducing energy costs and the effectiveness of your compressed air system.
Ultrasound compressed air leak detection offers several benefits for identifying and addressing leaks in compressed air systems.
Here are some of the key advantages:
Efficient Leak Detection
Cost Savings
Enhanced System Performance
Preventive Maintenance
Improved Safety
Environmental Benefits
Easy Integration
Documentation and Reporting
Ultrasound compressed air leak detection provides a range of benefits, including efficient leak detection, cost savings through energy efficiency, improved system performance, preventive maintenance, enhanced safety, environmental benefits, easy integration into maintenance routines, and reliable documentation. By leveraging ultrasound technology, organizations can optimize their compressed air systems, reduce energy waste, and achieve operational and environmental sustainability.