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Papers/Learning Expectation of Label Distribution for Facial Age ...

Learning Expectation of Label Distribution for Facial Age and Attractiveness Estimation

Bin-Bin Gao, Xin-Xin Liu, Hong-Yu Zhou, Jianxin Wu, Xin Geng

2020-07-03AttributeAge EstimationAttractiveness Estimation
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Abstract

Facial attributes (\eg, age and attractiveness) estimation performance has been greatly improved by using convolutional neural networks. However, existing methods have an inconsistency between the training objectives and the evaluation metric, so they may be suboptimal. In addition, these methods always adopt image classification or face recognition models with a large amount of parameters, which carry expensive computation cost and storage overhead. In this paper, we firstly analyze the essential relationship between two state-of-the-art methods (Ranking-CNN and DLDL) and show that the Ranking method is in fact learning label distribution implicitly. This result thus firstly unifies two existing popular state-of-the-art methods into the DLDL framework. Second, in order to alleviate the inconsistency and reduce resource consumption, we design a lightweight network architecture and propose a unified framework which can jointly learn facial attribute distribution and regress attribute value. The effectiveness of our approach has been demonstrated on both facial age and attractiveness estimation tasks. Our method achieves new state-of-the-art results using the single model with 36$\times$ fewer parameters and 3$\times$ faster inference speed on facial age/attractiveness estimation. Moreover, our method can achieve comparable results as the state-of-the-art even though the number of parameters is further reduced to 0.9M (3.8MB disk storage).

Results

TaskDatasetMetricValueModel
Facial Recognition and ModellingChaLearn 2016MAE3.452DLDL-v2 (ThinAgeNet)
Facial Recognition and ModellingChaLearn 2016e-error0.267DLDL-v2 (ThinAgeNet)
Facial Recognition and ModellingChaLearn 2015MAE3.135DLDL-v2 (ThinAgeNet)
Facial Recognition and ModellingChaLearn 2015e-error0.272DLDL-v2 (ThinAgeNet)
Facial Recognition and ModellingMORPH Album2MAE1.969DLDL-v2 (ThinAgeNet)
Face ReconstructionChaLearn 2016MAE3.452DLDL-v2 (ThinAgeNet)
Face ReconstructionChaLearn 2016e-error0.267DLDL-v2 (ThinAgeNet)
Face ReconstructionChaLearn 2015MAE3.135DLDL-v2 (ThinAgeNet)
Face ReconstructionChaLearn 2015e-error0.272DLDL-v2 (ThinAgeNet)
Face ReconstructionMORPH Album2MAE1.969DLDL-v2 (ThinAgeNet)
3DChaLearn 2016MAE3.452DLDL-v2 (ThinAgeNet)
3DChaLearn 2016e-error0.267DLDL-v2 (ThinAgeNet)
3DChaLearn 2015MAE3.135DLDL-v2 (ThinAgeNet)
3DChaLearn 2015e-error0.272DLDL-v2 (ThinAgeNet)
3DMORPH Album2MAE1.969DLDL-v2 (ThinAgeNet)
3D Face ModellingChaLearn 2016MAE3.452DLDL-v2 (ThinAgeNet)
3D Face ModellingChaLearn 2016e-error0.267DLDL-v2 (ThinAgeNet)
3D Face ModellingChaLearn 2015MAE3.135DLDL-v2 (ThinAgeNet)
3D Face ModellingChaLearn 2015e-error0.272DLDL-v2 (ThinAgeNet)
3D Face ModellingMORPH Album2MAE1.969DLDL-v2 (ThinAgeNet)
3D Face ReconstructionChaLearn 2016MAE3.452DLDL-v2 (ThinAgeNet)
3D Face ReconstructionChaLearn 2016e-error0.267DLDL-v2 (ThinAgeNet)
3D Face ReconstructionChaLearn 2015MAE3.135DLDL-v2 (ThinAgeNet)
3D Face ReconstructionChaLearn 2015e-error0.272DLDL-v2 (ThinAgeNet)
3D Face ReconstructionMORPH Album2MAE1.969DLDL-v2 (ThinAgeNet)
Age EstimationChaLearn 2016MAE3.452DLDL-v2 (ThinAgeNet)
Age EstimationChaLearn 2016e-error0.267DLDL-v2 (ThinAgeNet)
Age EstimationChaLearn 2015MAE3.135DLDL-v2 (ThinAgeNet)
Age EstimationChaLearn 2015e-error0.272DLDL-v2 (ThinAgeNet)
Age EstimationMORPH Album2MAE1.969DLDL-v2 (ThinAgeNet)

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