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Received：28 June 2021，
Revised：2021-9-16，
Accepted：23 September 2021，
Published：16 January 2022
移动端阅览
生成对抗网络(generative adversarial network，GAN)快速发展，并在图像生成和图像编辑技术等多个方面取得成功应用。然而，若将上述技术用于伪造身份或制作虚假新闻，则会造成严重的安全隐患。多媒体取证领域的研究者面向GAN生成图像已提出了多种被动取证与反取证方法，但现阶段缺乏相关系统性综述。针对上述问题，本文首先阐述本领域的研究背景和研究意义，然后分析自然图像采集与GAN图像生成过程的区别。根据上述理论基础，详细介绍了现有GAN生成图像的被动取证技术，包括：GAN生成图像检测算法，GAN模型溯源算法和其他相关取证问题。此外，针对不同应用场景介绍基于GAN的反取证技术。最后，通过实验分析当前GAN生成图像被动取证技术所面临的挑战。本文根据对现有技术从理论和实验两方面的分析得到以下结论：现阶段，GAN生成图像的被动取证技术已在空间域和频率域形成了不同技术路线，较好地解决了简单场景下的相关取证问题。针对常见取证痕迹，基于GAN的反取证技术已能够进行有效隐藏。然而，该领域研究仍存在诸多局限：1)取证与反取证技术的可解释性不足；2)取证技术鲁棒性和泛化性较弱；3)反取证技术缺乏多特征域协同的抗分析能力等。上述问题和挑战还需要研究人员继续深入探索。
Generative adversarial network (GAN) has developed multimedia techniques like image generation and image editing. However
the issues of abusing GAN to generate fake identities and fake news can cause severe security risks and pose a great threat to the integrity and authenticity of digital images. Researchers in the field of multimedia forensics have proposed a variety of passive forensics and anti-forensics techniques about GAN-generated images
which has achieved the phased research results. In this article
the latest passive forensics and anti-forensics techniques for GAN-generated images are reviewed systematically. First
the research background and research significance about forensics and anti-forensics techniques of GAN-generated images have been illustrated
which can provide novel theories to protect the integrity and authenticity of digital image against the recent deep-learning based image generation/editing techniques and analyze the reliability of current forensic algorithms. The characteristics of several representative unconditional GANs and conditional GANs are illustrated on the aspect of network structure and training strategy for recent GAN-based image generation/editing techniques
where the visual defects caused by early GAN models have been continuously eliminated. Next
the differences between natural image acquisition and GAN image generation are analyzed
including the related signal processing operations. The abnormal traces of GAN images are explained in terms of color components
texture characteristics and global content. Based on the above theoretical foundation
this article introduces current passive forensics techniques of GAN-generated images in detail
including: GAN-generated image detection algorithm
GAN model identification algorithm and other related forensics issues. According to the types of forensic clues
GAN-generated image detection algorithms can be divided into two categories based on spatial information and frequency domain information respectively. The methodologies of feature extraction and classification about forensics traces are introduced
including hand-crafted feature based and convolutional neural network (CNN) based methods. More specifically
this article emphasizes the development process of CNN based detection algorithms
including preprocessing based on prior knowledge of forensics traces
advanced network structure and other training strategies. According to the experimental results
existing methods achieved promising detection performance in simple forensic scenarios. However
when testing samples suffer from post-processing operations or are generated by unseen GAN models
the detection performance will become dramatically worse. Then
GAN model identification algorithms of GAN-generated images are demonstrated
which can be split into two categories based on spatial information and frequency domain information. The characteristics of other related forensics issues are presented as well
i.e.
DeepFake detection
where GAN-based image generation can be regarded as a part of the deep-learning based video forgery pipeline. On the other hand
this article has introduced anti-forensics techniques based on GAN
which includes white-box anti-forensics (attack) methods and black-box anti-forensics (attack) methods according to information required for the attack. Furthermore
existing methods mainly focus on two types of anti-forensics scenarios
including source identification and detection of image editing. Finally
several representative algorithms based on spatial information and frequency domain information are selected for the performance comparison. The open access datasets of GAN-generated images and pristine images are used to construct the training and testing samples. The challenging issues about GAN-based passive forensics are investigated
including robustness against post-processing operations and generalization capability of unknown GAN models. The influence of different preprocessing operations for input images
including resizing and crop
is also investigated. Moreover
the potential confrontation situations in practical applications are also considered
where GAN-generated image detection algorithms are applied to identify anti-forensic pictures based on GAN. Experimental results show that current passive forensics methods are invalid to expose unseen anti-forensic attacks. At present
the passive forensics techniques of GAN-generated images have constructed various technical routes in both the spatial domain and the frequency domain
which are capable to deal with the issues of GAN-generated image detection and GAN model identification in simple scenes. Besides
anti-forensics techniques based on GAN can effectively hide common forensics traces. However
by analyzing the related research works and conducting experiments
we think that the research in this field is still in an initial stage
and there are still many unsolved issues. 1) Insufficient interpretability of forensics and anti-forensics techniques. It is hard to analyze which kind of information (local or global; texture or color) plays a more important role in identifying GAN-generated images while the security of current GAN-based anti-forensics techniques lacks theoretical support; 2) Weak robustness and generalization of forensics techniques. It is valuable to explore other detection frameworks further
such as anomaly detection
which may be more efficient to deal with the continuously updated GAN models and unknown post-processing operations in practical applications; 3) The issue of designing the network structure
loss function and training strategy of anti-forensics techniques to hide newly introduced traces should be explored more carefully due to the lack of anti-forensics capability for multiple feature domains.
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