Publication | Closed Access
FaceVerse: a Fine-grained and Detail-controllable 3D Face Morphable Model from a Hybrid Dataset
81
Citations
41
References
2022
Year
EngineeringMachine LearningBiometricsHybrid DatasetFace ModelsFace DetectionFacial Recognition SystemImage AnalysisFacial ReconstructionComputational GeometryPresent FaceverseSynthetic Image GenerationGeometric ModelingMachine VisionFace Morphable ModelHuman Image SynthesisMedical Image ComputingDeep LearningDetail-controllable 3DComputer VisionGenerative Adversarial NetworkMorphable ModelsNatural SciencesFacial AnimationNeural Face ModelShape Modeling
The authors introduce FaceVerse, a fine‑grained 3D neural face model built from a hybrid East Asian dataset and a single‑image fitting framework. FaceVerse employs a coarse‑to‑fine architecture that first learns a base parametric model from RGB‑D images, then enriches facial geometry and texture with a conditional StyleGAN trained on high‑fidelity scans, and both modules are independently adjustable via differentiable rendering. Experiments demonstrate that FaceVerse surpasses existing state‑of‑the‑art 3D face models.
We present FaceVerse, a fine-grained 3D Neural Face Model, which is built from hybrid East Asian face datasets containing 60K fused RGB-D images and 2K high-fidelity 3D head scan models. A novel coarse-to-fine structure is proposed to take better advantage of our hybrid dataset. In the coarse module, we generate a base parametric model from large-scale RGB-D images, which is able to predict accurate rough 3D face models in different genders, ages, etc. Then in the fine module, a conditional StyleGAN architecture trained with high-fidelity scan models is introduced to enrich elaborate facial geometric and texture details. Note that different from previous methods, our base and detailed modules are both changeable, which enables an innovative application of adjusting both the basic attributes and the facial details of 3D face models. Furthermore, we propose a single-image fitting framework based on differentiable rendering. Rich experiments show that our method outperforms the state-of-the-art methods.
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