Reproducibility of Machine Learning-Based Fault Detection and Diagnosis for HVAC Systems in Buildings: An Empirical Study
Adil Mukhtar, Michael Hadwiger, Franz Wotawa, Gerald Schweiger

TL;DR
This empirical study reveals that most ML-based fault detection research for HVAC systems lacks sufficient transparency, making reproducibility difficult, and highlights the need for standardized guidelines and policies to improve research reliability.
Contribution
The paper provides an empirical analysis of reproducibility issues in ML applications for building energy systems, an area previously underexplored in this context.
Findings
Nearly all articles lack sufficient disclosure for reproducibility.
72% of articles do not specify dataset accessibility.
Only two papers share reproducible code links, with one broken.
Abstract
Reproducibility is a cornerstone of scientific research, enabling independent verification and validation of empirical findings. The topic gained prominence in fields such as psychology and medicine, where concerns about non - replicable results sparked ongoing discussions about research practices. In recent years, the fast-growing field of Machine Learning (ML) has become part of this discourse, as it faces similar concerns about transparency and reliability. Some reproducibility issues in ML research are shared with other fields, such as limited access to data and missing methodological details. In addition, ML introduces specific challenges, including inherent nondeterminism and computational constraints. While reproducibility issues are increasingly recognized by the ML community and its major conferences, less is known about how these challenges manifest in applied disciplines.…
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Taxonomy
TopicsBuilding Energy and Comfort Optimization · BIM and Construction Integration · Forecasting Techniques and Applications
