Research

Research

My Ph.D. work was on human pose estimation: single-stage neural architectures that locate the body's joints in images and video. It led to UniPose, OmniPose and Full-BAPose.

Google Scholar
500+
citations across 20+ peer-reviewed publications, and one patent in applied AI
Selected publications
UniPose architecture figure
CVPR 2020 · lead author

UniPose: Unified Human Pose Estimation in Single Images and Videos

A single-stage architecture for pose estimation in images and video, without the separate detection step earlier methods relied on.

UniPose+ framework figure
IEEE TPAMI 2021 · lead author

UniPose+: A Unified Framework for 2D and 3D Human Pose Estimation in Images and Videos

The journal extension of UniPose, covering 2D and 3D pose estimation in one framework.

OmniPose framework figure
BMVC 2021 · lead author

OmniPose: A Multi-Scale Framework for Multi-Person Pose Estimation

Extends the approach to scenes with several people.

Full-BAPose results figure
MDPI Sensors 2023 · lead author

Full-BAPose: Bottom-Up Framework for Full Body Pose Estimation

A bottom-up framework for full-body pose estimation, beyond a sparse set of keypoints.

Full publication record on Google Scholar
Themes

Research areas

Multi-scale vision and WASP

Waterfall Atrous Spatial Pooling (WASP) is a module that lets a network use fine detail and wider context in a single pass. I helped introduce it and used it across several papers.

Single-stage pose estimation

Most strong pose estimators of the time detected people first and estimated joints second. My work predicts the joints directly.

From 2D to full body

UniPose handled 2D keypoints, UniPose+ added 3D, and Full-BAPose extended the approach to the full body.

Current interests

Since the Ph.D. my focus has moved to applied work: multi-agent systems, retrieval and evaluation.