Command Palette
Search for a command to run...
HMOR: Hierarchical Multi-Person Ordinal Relations for Monocular Multi-Person 3D Pose Estimation
Li Jiefeng ; Wang Can ; Liu Wentao ; Qian Chen ; Lu Cewu

Abstract
Remarkable progress has been made in 3D human pose estimation from amonocular RGB camera. However, only a few studies explored 3D multi-personcases. In this paper, we attempt to address the lack of a global perspective ofthe top-down approaches by introducing a novel form of supervision -Hierarchical Multi-person Ordinal Relations (HMOR). The HMOR encodesinteraction information as the ordinal relations of depths and angleshierarchically, which captures the body-part and joint level semantic andmaintains global consistency at the same time. In our approach, an integratedtop-down model is designed to leverage these ordinal relations in the learningprocess. The integrated model estimates human bounding boxes, human depths, androot-relative 3D poses simultaneously, with a coarse-to-fine architecture toimprove the accuracy of depth estimation. The proposed method significantlyoutperforms state-of-the-art methods on publicly available multi-person 3D posedatasets. In addition to superior performance, our method costs lowercomputation complexity and fewer model parameters.
Benchmarks
| Benchmark | Methodology | Metrics |
|---|---|---|
| 3d-human-pose-estimation-on-human36m | HMOR | Average MPJPE (mm): 48.6 PA-MPJPE: 30.5 |
| 3d-multi-person-pose-estimation-absolute-on | HMOR | 3DPCK: 43.8 |
| 3d-multi-person-pose-estimation-on-cmu | HMOR | Average MPJPE (mm): 51.6 |
| 3d-multi-person-pose-estimation-root-relative | HMOR | 3DPCK: 82.0 |
Build AI with AI
From idea to launch — accelerate your AI development with free AI co-coding, out-of-the-box environment and best price of GPUs.