Efficient, low-carbon urban climate emulation via Automated Machine Learning (AutoML).
J. Yu, Z. Zheng, S. Lindley, L. Zhao, et al.
Traditional Urban Climate Models (UCMs) are computationally expensive, making large-scale, long-term studies difficult. Existing machine learning emulators, while faster, often require tedious manual tuning.
This study proposes an Automated Machine Learning (AutoML) framework for urban climate emulation. Tested across cities with diverse climates (Beijing, Melbourne, Zurich), the framework demonstrates the ability to automatically generate high-performance emulators while drastically reducing computational resource usage. This provides a "plug-and-play" tool for urban planners and researchers.
We adopt a lightweight AutoML strategy focused on finding the optimal model configuration under a minimal computational budget.
Exceptional fit for simulating both land surface temperature and atmospheric temperature.
Rapidly assess the microclimatic impact of various urban design scenarios (e.g., increasing green spaces, changing building materials).