Animatable Virtual Humans: Learning pose-dependent human representations in UV space for interactive performance synthesis
Wieland Morgenstern, Milena T. Bagdasarian, Anna Hilsmann, Peter, Eisert

TL;DR
This paper introduces a new method for realistic, real-time virtual human animation by learning pose-dependent appearance and geometry in UV space, leveraging SMPL models for efficiency.
Contribution
It presents a novel approach that learns pose-dependent differences from SMPL models to improve realism and efficiency in virtual human rendering.
Findings
Achieves high realism in real-time virtual human animation.
Effectively encodes pose-dependent appearance and geometry in UV space.
Leverages SMPL models to constrain learning and improve efficiency.
Abstract
We propose a novel representation of virtual humans for highly realistic real-time animation and rendering in 3D applications. We learn pose dependent appearance and geometry from highly accurate dynamic mesh sequences obtained from state-of-the-art multiview-video reconstruction. Learning pose-dependent appearance and geometry from mesh sequences poses significant challenges, as it requires the network to learn the intricate shape and articulated motion of a human body. However, statistical body models like SMPL provide valuable a-priori knowledge which we leverage in order to constrain the dimension of the search space enabling more efficient and targeted learning and define pose-dependency. Instead of directly learning absolute pose-dependent geometry, we learn the difference between the observed geometry and the fitted SMPL model. This allows us to encode both pose-dependent…
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Taxonomy
TopicsHuman Pose and Action Recognition · Human Motion and Animation · 3D Shape Modeling and Analysis
