Deep Joint Face Hallucination and Recognition
Junyu Wu, Shengyong Ding, Wei Xu, Hongyang Chao

TL;DR
This paper proposes a joint deep learning framework for face hallucination and recognition, improving recognition accuracy on low-resolution images by training a combined model that optimizes both image quality and discriminative features.
Contribution
The paper introduces an end-to-end deep convolutional network that jointly learns face hallucination and recognition, outperforming traditional methods on benchmark datasets.
Findings
Achieves 97.95% accuracy on 4x down-sampled LFW dataset.
Attains 90.65% accuracy on YTF dataset.
Joint training improves recognition performance over separate models.
Abstract
Deep models have achieved impressive performance for face hallucination tasks. However, we observe that directly feeding the hallucinated facial images into recog- nition models can even degrade the recognition performance despite the much better visualization quality. In this paper, we address this problem by jointly learning a deep model for two tasks, i.e. face hallucination and recognition. In particular, we design an end-to-end deep convolution network with hallucination sub-network cascaded by recognition sub-network. The recognition sub- network are responsible for producing discriminative feature representations using the hallucinated images as inputs generated by hallucination sub-network. During training, we feed LR facial images into the network and optimize the parameters by minimizing two loss items, i.e. 1) face hallucination loss measured by the pixel wise difference…
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Taxonomy
TopicsFacial Nerve Paralysis Treatment and Research · Advanced Image Processing Techniques · Face recognition and analysis
MethodsConvolution
