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PLANT MANAGEMENT


OVERCOMING FALSE ALARM CHALLENGES ON FPSOS Micropack’s flame detection technology was born out of the North Sea oil and gas industry, where tough conditions demanded smarter solutions. One of the biggest challenges


on Floating Production Storage and Offloading (FPSO) vessels was false alarms caused by flare reflections, engine exhaust, and process equipment heat. Traditional IR detectors struggled in these conditions, leading to costly shutdowns and disruptions. MAVIS was built to solve this


problem, ensuring accurate detection even in extreme environments. By analysing flame movement and targeted spectral characteristics, MAVIS enables FPSOs and offshore platforms to detect real fires without false alarms. The result is a more stable, cost-effective, and trusted fire detection system.


A SCOTTISH INNOVATION WITH GLOBAL REACH Developed in Scotland, Micropack’s flame detection technology is now used worldwide in offshore platforms, refineries, chemical plants, and high- risk industries. Its ability to detect


real fires while ignoring false alarms has made it the preferred choice in Europe, North America, Asia, and the Middle East. Micropack’s detectors carry


globally recognised performance and hazardous area approvals, including:


FM3260 – Flame detection performance standard.


EN54-10 – Fire detection and alarm systems.


ATEX & IECEx – Hazardous area certifications.


SIL 2 – Safety certification for critical safety applications.


These approvals ensure Micropack’s


flame detectors meet the highest industry standards.


THE MODERN ERA OF MAVIS-POWERED FLAME DETECTION Today’s visual flame detection systems use MAVIS, a vision-based algorithm developed through decades of real- world testing. Unlike traditional sensors that react to heat, MAVIS recognises the visual characteristics of real flames, making detection more accurate across a wide range of industries.


Modern detectors also integrate


live video into the Consilium SMIG System, enhancing fire safety with real-time monitoring. This is the same principle used in self-driving cars to detect obstacles and in smartphones for facial recognition— Micropack’s visual flame detectors apply that same precision to fire detection, ensuring accuracy in complex environments. Operators can verify incidents instantly, reducing response times and lowering costs by preventing unnecessary shutdowns.


CONCLUSION The evolution of visual flame detection, from black and white cameras to HD vision-based flame detectors, has transformed industrial fire safety. Visual flame detection has transformed industrial fire safety by offering reliable detection, fewer false alarms, and seamless integration with fire and gas systems. Backed by globally recognised


certifications, modern visual flame detection ensures fast, accurate, and dependable fire detection in critical environments. As industries evolve, fire detection


technology must continue advancing to meet new challenges, providing industrial operators with reliable and cost-effective solutions.


For more information visit: www.micropacksafety.com


www.engineerlive.com


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