Portrait
Xue Liao
PhD Student
University of Notre Dame
Notre Dame, IN, USA
About Me

Hi! I'm Xue Liao.

I'm a researcher specializing in Scientific Visualization, 3D Vision, 3D Reconstruction, Computer Graphics, and Generative Models. I am currently pursuing my PhD at the University of Notre Dame under the supervision of Prof. Chaoli Wang. Prior to that, I received my MPhil in Artificial Intelligence from HKUST (GZ), advised by Prof. Zeyu Wang and Prof. Pan Hui.

My current work primarily focuses on visualization, Gaussian Splatting, inverse rendering, relighting, and image generation and editing. I am also interested in video generation, world models, and AI agents.

Education
  • University of Notre Dame
    Ph.D. in Computer Science and Engineering
    Advisor: Prof. Chaoli Wang
    Aug. 2026 - Present
  • The Hong Kong University of Science and Technology (Guangzhou)
    MPhil in Artificial Intelligence
    Advisor: Prof. Zeyu Wang, Prof. Pan Hui
    Sep. 2024 - Jul. 2026
  • Xiamen University
    B.Eng. in Computer Science & B.Econ. in Economics
    Advisor: Prof. Zhonggui Chen
    Sep. 2020 - Jun. 2024
Experience
  • Meituan
    Research Intern
    Aug. 2025 - Jul. 2026
Honors & Awards
  • Academic Innovation Scholarship, Xiamen University
    2024
  • First-Class Academic Scholarship, Xiamen University
    2024
  • Third Prize (Fujian Division), Blue Bridge Cup
    2023
  • Honorable Mention, MCM/ICM
    2022
News
2026
Joined the University of Notre Dame as a PhD student under the supervision of Prof. Chaoli Wang. Excited for this new chapter!
Aug 17
Graduated from HKUST (GZ) with an MPhil in Artificial Intelligence, and wrapped up my research internship at Meituan.
Jul 14
One paper accepted to CVPR 2026. See you in Denver!
Feb 20
2025
Joined Meituan as a Research Intern.
Aug 03
Selected Publications (view all )
UAVLight: A Benchmark for Illumination-Robust 3D Reconstruction in Unmanned Aerial Vehicle (UAV) Scenes

Kang Du*, Xue Liao*, Junpeng Xia, Chaozheng Guo, Yi Gu, Yirui Guan, Sheng Huang, Zeyu Wang# (* equal contribution, # corresponding author)

CVPR 2026

Illumination inconsistency is a fundamental challenge in multi-view 3D reconstruction. Variations in sunlight direction, cloud cover, and shadows break the constant-lighting assumption underlying both classical multi-view stereo (MVS) and structure from motion (SfM) pipelines and recent neural rendering methods, leading to geometry drift, color inconsistency, and shadow imprinting. This issue is especially critical in UAV-based reconstruction, where long flight durations and outdoor environments make lighting changes unavoidable. However, existing datasets either restrict capture to short time windows, thus lacking meaningful illumination diversity, or span months and seasons, where geometric and semantic changes confound the isolated study of lighting robustness. We introduce UAVLight, a controlled-yet-real benchmark for illumination-robust 3D reconstruction. Each scene is captured along repeatable, geo-referenced flight paths at multiple fixed times of day, producing natural lighting variation under consistent geometry, calibration, and viewpoints. With standardized evaluation protocols across lighting conditions, UAVLight provides a reliable foundation for developing and benchmarking reconstruction methods that are consistent, faithful, and relightable in real outdoor environments.

UAVLight: A Benchmark for Illumination-Robust 3D Reconstruction in Unmanned Aerial Vehicle (UAV) Scenes

Kang Du*, Xue Liao*, Junpeng Xia, Chaozheng Guo, Yi Gu, Yirui Guan, Sheng Huang, Zeyu Wang# (* equal contribution, # corresponding author)

CVPR 2026

Illumination inconsistency is a fundamental challenge in multi-view 3D reconstruction. Variations in sunlight direction, cloud cover, and shadows break the constant-lighting assumption underlying both classical multi-view stereo (MVS) and structure from motion (SfM) pipelines and recent neural rendering methods, leading to geometry drift, color inconsistency, and shadow imprinting. This issue is especially critical in UAV-based reconstruction, where long flight durations and outdoor environments make lighting changes unavoidable. However, existing datasets either restrict capture to short time windows, thus lacking meaningful illumination diversity, or span months and seasons, where geometric and semantic changes confound the isolated study of lighting robustness. We introduce UAVLight, a controlled-yet-real benchmark for illumination-robust 3D reconstruction. Each scene is captured along repeatable, geo-referenced flight paths at multiple fixed times of day, producing natural lighting variation under consistent geometry, calibration, and viewpoints. With standardized evaluation protocols across lighting conditions, UAVLight provides a reliable foundation for developing and benchmarking reconstruction methods that are consistent, faithful, and relightable in real outdoor environments.

All publications