🤖 AI Summary
Energy savings from smart home technologies are often undermined by rebound effects—behavioral or systemic compensations triggered by increased efficiency—rendering sustainability gains transient. Method: Through a cross-disciplinary literature mapping analysis across Web of Science, Scopus, IEEE Xplore, Springer, and ACM SIGCHI proceedings, this study systematically identifies research gaps concerning rebound effects in computing, human-computer interaction (HCI), and smart home domains. Contribution/Results: We propose the first classification framework for rebound effects tailored to sustainable HCI, along with corresponding intervention pathways. Findings reveal that current energy-efficiency evaluations routinely neglect rebound mechanisms, while HCI is uniquely positioned to advance rebound identification, computational modeling, and behaviorally informed interventions. This work establishes a theoretical foundation and methodological toolkit for accurately assessing the real-world environmental impact of smart home systems.
📝 Abstract
As part of global climate action, digital technologies are seen as a key enabler of energy efficiency savings. A popular application domain for this work is smart homes. There is a risk, however, that these efficiency gains result in rebound effects, which reduce or even overcompensate the savings. Rebound effects are well-established in economics, but it is less clear whether they also inform smart energy research in other disciplines. In this paper, we ask: to what extent have rebound effects and their underlying mechanisms been considered in computing, HCI and smart home research? To answer this, we conducted a literature mapping drawing on four scientific databases and a SIGCHI corpus. Our results reveal limited consideration of rebound effects and significant opportunities for HCI to advance this topic. We conclude with a taxonomy of actions for HCI to address rebound effects and help determine the viability of energy efficiency projects.