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京东 11.11 红包
Enabling Automatic Building Envelope Retrofits Using Controls & Machine Learning
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Enabling Automatic Building Envelope Retrofits Using Controls and Machine Learning by Bryan Maldonado Sep 13, 2024 Abstract: Buildings contribute to over 35% of the total CO2 emissions in the United States, with 52% of these structures predating the 1980 energy codes. The absence of appropriate thermal insulation in these older structures leads to 20% higher energy use when compared to code-compliant houses. Consequently, retrofitting outdated structures can significantly improve the energy efficiency of the building sector, contributing to the Department of Energy’s goal of achieving net-zero carbon emissions by 2050. New technologies, such as the deployment of panelized insulation over existing envelopes, can increases thermal performance and airtightness with minimal disruptions and a high potential for automation. This talk will explore the research work at Oak Ridge National Laboratory aimed at accelerating the adoption and automation of overclad panel envelope retrofits. The discussion will cover the automated generation of building digital twins using machine learning, real-time tracking of overclad panels with advanced sensing technologies, and the precise automated installation of panels through controls and robotics. Bio: Dr. Bryan Maldonado... has coauthored more than 35 publications in the area of dynamics systems and control. His research interests include model-based and model-free identification, estimation, and control of complex dynamic systems with an emphasis on optimal control techniques. Dr. Maldonado is a member of IEEE and a lifetime member of ASME; and the recipient of the 2023 UT-Battelle Early Career Research Accomplishment Award, 2023 Great Minds in STEM Most Promising Scientist Award, and the 2022 ASME Duane P. Jordan Early Career Award.
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