Environmental justice that can be measured, mapped, and acted on.
I study how urban green space, thermal exposure, and street-level conditions vary across communities, using remote sensing, LiDAR, and imagery to surface uneven urban experience.
I am Xuanyu Zhou, an undergraduate in Urban and Rural Planning at Zhejiang University and an exchange student at UC Berkeley CED. My work brings together urban equity, mobility, resilience, remote sensing, and machine learning, with a growing interest in how LLMs and Urban AI can support planning practice.
Planning researcher with one foot in spatial data and the other in design, always looking for clearer ways to ask urban questions.
How LLMs, simulation, and spatial intelligence can help planners reason across mobility, exposure, and urban inequality without losing the human scale.
2024–26
Recent work across ACSP, EDRA, TRB, and collaborative lab research.
3
Core themes: environmental justice, urban mobility, and resilience.
Hybrid
A practice that mixes planning theory, spatial data, and experimental AI workflows.
I am most interested in urban analytics that stay technically rigorous while remaining legible to planning, policy, and everyday city life.
I study how urban green space, thermal exposure, and street-level conditions vary across communities, using remote sensing, LiDAR, and imagery to surface uneven urban experience.
From Urban Air Mobility to shared mobility, I build computational frameworks that test how next-generation transport systems might work in real metropolitan conditions.
I use geospatial machine learning to connect built environment characteristics with post-pandemic recovery, community vitality, and public health outcomes.
These projects sit at the intersection of planning, computation, and public impact, and together they sketch the shape of my current research agenda.
Optimizing UAM demand, fleet operations, and ground access through a large-scale simulation framework for the San Francisco Bay Area.
Open project
Examining how green space distribution, morphology, and use shape vitality and equity in shrinking cities, with Pittsburgh as a case study.
Open project
Investigating how built form influences post-pandemic recovery, shared mobility co-benefits, and emotional geographies in rapidly changing cities.
Open projectA few milestones from the last two years, from accepted work to field-building collaborations.
Wrapped an intensive research collaboration and shared our UAM work as a public preprint.
The UAM study will be presented in Washington, D.C., extending the summer camp work into a broader transportation audience.
Began working with Dr. Xuan Jiang on simulation-heavy mobility research and large-scale systems thinking.
Shared research at the ACSP Annual Conference in Seattle and kept building the paper toward journal review.
My trajectory has been less about a single topic than about learning how to connect methods, places, and collaborators into a coherent research practice.
I began by studying post-pandemic urban resilience with Geographically Weighted Random Forest, linking recovery rates to the built environment in Nagoya.
Working with Mingze Chen, I led a time-lagged study of Pittsburgh that connected machine learning, green space equity, and shrinking city revitalization.
At the 3M Lab, I contributed to work comparing LiDAR-based SVF with imagery-based approaches for fine-grained microclimate analysis.
The summer research camp sharpened my interest in computational transportation research and reinforced my goal of joining a rigorous Ph.D. program.
If you are building a research project, lab collaboration, or doctoral opportunity that lives somewhere between planning and computation, I would love to hear about it.
A planning perspective grounded in spatial data, careful quantitative methods, and a genuine interest in making technical work legible to broader audiences.