I'm a PhD candidate in the Geospatial Data Analytics Group at The Ohio State University.
I started in January 2021, supervised by Prof. Rongjun Qin. My research focuses on 3D reconstruction (SfM, NeRF, 3DGS, 4DGS) and uncertainty quantification. I am working on projects funded by ONR, IARPA, AFRL, and NSF to solve complex 3D geometry problems.
I am currently open to internship and full-time opportunities starting in 2026.
Keywords: Photogrammetry, Computer Vision, Machine Learning, Generative AI, Vision Foundation Models.
This paper presents a novel, self-calibrating method to estimate the uncertainty in the MVS stage, and an uncertainty quantification framework for Aerial and UAV Photogrammetry.
This work presents a method for reconstructing dynamic urban scenes from UAV full-motion videos using 3D Gaussian Splatting, effectively handling moving objects in large-scale environments.
This paper derives novel geometric constraints in BA of SfM pipeline that assumes minimal knowns about the uncalibrated multi-camera systems at the ground level. Our proposed constraints are effective in correcting topographical errors (i.e., trajectory drifts) of the reconstruction.
This paper provides multi-camera tiling (MCT) strategy to scale the NeRF on large-scale aerial datasets and a thorough geometry assessment of NeRF.
Comprehensively evaluates the 3D potential of PlanetScope images by performing accuracy analysis for both 3D reconstruction and change detection.
Full 3D reconstruction pipeline from SfM, MVS, meshing to texturing.
Estimating and encoding error covariance of 3D points, visualization in desktop GUI and VR.
Dynamic 3D Gaussian Splatting from UAV full motion videos.
I serve as a peer reviewer for:
I am a Federal Aviation Administration (FAA) certificated remote pilot, allowing me to collect UAV data for research and commercial purposes in the US. Survey missions totaling 73.4 hectares and 47.8 km of flight path since 2021.
