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MONITORING & METERING


Ultra-low range emissions monitoring


Clamp system enables real time energy consumption in buildings


A new CT Clamp for LoRaWAN has been designed by PRESSAC Communications for real-time monitoring of electricity use in commercial, industrial and public-sector environments. The device measures electrical current and energy consumption and uses LoRaWAN wireless technology to provide long-range communication with low power consumption. The product can integrate with existing building management and energy monitoring platforms and is suitable for installations ranging from single sites to larger multi-building estates. Designed to give organisations greater


visibility of electricity consumption, it can help reduce energy waste, lower operating costs and support sustainability programmes. The CT Clamp for LoRaWAN is also intended for quick installation with minimal disruption to operations. “Organisations are under increasing


With the launch of the ACF5000 LCS (Low CEMS Specialist), ABB is offering a Continuous Emission Monitoring System designed for low-range industrial emissions measurement. The system supports compliance with


pressure to improve energy efficiency, reduce costs, and demonstrate progress towards sustainability targets,” says William Wilkinson, product manager at Pressac. “Our new CT Clamps provide a simple and scalable way to access real-time energy data, enabling solution providers and building operators to make informed decisions that improve operational performance and environmental outcomes.” ▄ www.pressac.com


AI applied to grid asset monitoring


FLIR SYSTEMS has partnered with Prasanna Technologies to develop an AI-driven asset intelligence approach that combines thermal imaging hardware with analytics software for utility infrastructure monitoring. The system integrates


FLIR’s iXX-Series thermal cameras with Styra, an artificial intelligence platform developed by Prasanna Technologies. Together they convert thermal imaging data into automated analysis outputs to support inspection and maintenance workflows in utility networks. Traditional thermal inspection methods rely on manual interpretation, which can be time- consuming and subject to variation. The integrated platform applies


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tightening requirements under the EU Industrial Emissions Directive (IED 2.0), which sets lower emission limit values and more stringent monitoring standards. The ACF5000 LCS is certified for low-range measurements and is capable of detecting emissions at single-digit parts-per-million levels, with QAL1 certification from TÜV. It is designed for use in applications such as waste incineration and other energy-intensive industrial processes where accurate monitoring of low-level emissions is increasingly required. The


system combines Fourier Transform Infrared (FTIR) spectroscopy for gas analysis with Flame Ionisation Detection (FID) for volatile organic compounds, and zirconia-based oxygen sensing in a hot/ wet extractive configuration. The system can monitor multiple gas


components simultaneously, with measurement parameters selected via software-based configuration. It also includes automated validation functions intended to maintain measurement integrity and reduce the risk of regulatory non-compliance. The system is integrated with ABB digital


platforms for data acquisition and fleet monitoring, enabling centralised emissions tracking and diagnostic support across multiple sites. ▄ www.abb.com


Assessment for industrial air systems


automated anomaly detection and severity scoring to thermal data, allowing maintenance teams to prioritise issues based on assessed risk. The system also includes a map-based interface designed to consolidate asset information across infrastructure such as substations and transmission lines. It generates standardised


inspection reports to reduce manual documentation and support compliance requirements. The platform is designed


to reduce false positives and improve consistency in asset monitoring, while enabling collaboration between field and remote teams through centralised data access and mobile functionality. ▄ www.flir.com/en-gb


Rising energy costs and sustainability targets are prompting manufacturers to review compressed air systems, which are among the more energy-intensive elements of industrial production. In response, compressor manufacturer COMPAIR, part of Ingersoll Rand, has launched its Energy Check service. The CompAir Energy Check is a


cross-platform assessment tool that can be applied to compressor systems regardless of technology or brand. It provides a data-led analysis of the full compressed air network, including generation, treatment, distribution and end-use consumption. The company states that compressed


air can account for a significant proportion of lifecycle operating costs, with assessments typically identifying potential efficiency gains of 20% - 30%. Common findings include excess system pressure, air leaks, pressure drops, control inefficiencies and maintenance- related issues. The service also evaluates operational adjustments such as reduced system pressure, which can lower energy demand, as well as opportunities for heat recovery from compressor systems. The output is a set of recommendations aimed at improving efficiency, reducing costs and supporting emissions reduction. ▄ www.compair.com


EIBI | JULY � AUGUST 2026


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