Conference Publication Details
Mandatory Fields
Gallagher, Colm V.; O’Donovan, Peter; Leahy, Kevin; Bruton, Ken; O’Sullivan, Dominic T. J.
2018 International Conference on Smart Energy Systems and Technologies (SEST)
From M&V to M&T: An artificial intelligence-based framework for real-time performance verification of demand-side energy savings
2018
September
Published
1
Scopus: 2 ()
Optional Fields
Demand side management Energy conservation Learning (artificial intelligence) Production facilities Artificial intelligence-based framework Real-time performance verification Energy savings Long-term monitoring Technology agnostic framework Machine learning-based energy modelling methodology Automated advanced analytics European Union Energy Efficiency Directive M&V M&T Demand-side energy savings Measurement and verification Monitoring and targeting Industrial facilities Energy 12334.0 kWh Mathematical model Uncertainty Machine learning Computational modeling Buildings Data models Energy measurement Performance verification Energy efficiency M&V 2.0 Energy modelling
1
6
Sevilla, Spain
10-SEP-18
12-SEP-18
The European Union's Energy Efficiency Directive is placing an increased focus on the measurement and verification (M&V) of demand side energy savings. The objective of M&V is to quantify energy savings with minimum uncertainty. M&V is currently undergoing a transition to practices, known as M&V 2.0, that employ automated advanced analytics to verify performance. This offers the opportunity to effectively manage the transition from short-term M&V to long-term monitoring and targeting (M&T) in industrial facilities. The original contribution of this paper consists of a novel, robust and technology agnostic framework that not only satisfies the requirements of M&V 2.0, but also bridges the gap between M&V and M&T by ensuring persistence of savings. The approach features a unique machine learning-based energy modelling methodology, model deployment and an exception reporting system that ensures early identification of performance degradation. A case study demonstrates the effectiveness of the approach. Savings from a real-world project are found to be 177,962 +/- 12,334 kWh with a 90% confidence interval. The uncertainty associated with the savings is 8.6% of the allowable uncertainty, thus highlighting the viability of the framework as a reliable and effective tool.
https://ieeexplore.ieee.org/document/8495711
10.1109/SEST.2018.8495711
Grant Details
Science Foundation Ireland
Grant no. 12/RC/2302