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Understanding Audiovisual Deepfake Detection: A Comprehensive Survey of Techniques, Challenges, and Datasets


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Audiovisual deepfakes pose a growing threat, and this paper provides a comprehensive survey of detection techniques, emphasizing the importance of multimodal approaches for improved accuracy and robustness.
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Understanding Audiovisual Deepfake Detection: A Comprehensive Survey of Techniques, Challenges, and Datasets

This research paper presents a comprehensive survey of audiovisual deepfake detection techniques, highlighting the increasing importance of multimodal approaches in combating the growing threat of sophisticated AI-generated forgeries.

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Hashmi, A., Shahzad, S. A., Lin, C.-W., Tsao, Y., & Wang, H.-M. (2024). Understanding Audiovisual Deepfake Detection: Techniques, Challenges, Human Factors and Perceptual Insights. IEEE. (Submitted for publication)
This paper aims to provide a comprehensive overview of audiovisual deepfake generation techniques, applications, consequences, and a detailed analysis of state-of-the-art detection methods that leverage both audio and visual modalities to enhance accuracy.

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by Ammarah Hash... ที่ arxiv.org 11-13-2024

https://arxiv.org/pdf/2411.07650.pdf
Understanding Audiovisual Deepfake Detection: Techniques, Challenges, Human Factors and Perceptual Insights

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How can blockchain technology be leveraged to ensure the provenance and authenticity of audiovisual content in the face of increasingly sophisticated deepfakes?

Blockchain technology holds significant potential for bolstering the provenance and authenticity of audiovisual content, acting as a powerful countermeasure against the growing threat of deepfakes. Here's how: Content Timestamping and Hashing: Upon creation, audiovisual content can be cryptographically hashed, generating a unique digital fingerprint. This hash, along with a timestamp, can be recorded on a blockchain. Any subsequent alteration to the content would irrevocably change its hash, immediately flagging a discrepancy. Decentralized Ledger of Ownership and Edits: Blockchain can serve as a transparent and immutable ledger, tracking the entire lifecycle of audiovisual content. From creation and edits to distribution, every stage can be recorded, providing a verifiable history of ownership and modifications. This transparency makes it significantly harder to pass off deepfakes as original content. Content Watermarking and Fingerprinting: Invisible watermarks or fingerprints can be embedded within the content itself. These unique identifiers, linked to blockchain entries, can be used to verify authenticity. Even if the content is manipulated, the embedded watermark can be extracted to trace it back to its origin. Decentralized Content Storage and Distribution: Blockchain can facilitate secure and distributed content storage, reducing reliance on centralized servers vulnerable to manipulation. This decentralized approach enhances content integrity and makes it difficult for malicious actors to tamper with original files. Smart Contracts for Content Verification: Smart contracts, self-executing agreements on the blockchain, can automate the verification process. When content is accessed, the smart contract can automatically cross-reference its hash with the blockchain record, providing immediate verification of authenticity. Challenges and Considerations: Scalability: Blockchains can face scalability limitations when handling large volumes of data, especially high-resolution videos. Efficient solutions for storing and verifying large files are crucial. Standardization: Industry-wide adoption of blockchain-based provenance solutions requires standardized protocols and formats for content registration and verification. Integration Costs: Implementing blockchain infrastructure can involve initial costs. However, the long-term benefits in combating deepfakes and enhancing trust often outweigh these expenses. By addressing these challenges and fostering collaboration, blockchain technology can play a pivotal role in safeguarding the integrity of audiovisual content in the age of deepfakes.

Could the very techniques used to create deepfakes be harnessed to develop even more advanced detection methods, leading to an "arms race" between generation and detection?

The relationship between deepfake generation and detection technologies is indeed characterized by a continuous "arms race." Here's a closer look: How Deepfake Techniques Aid Detection: Training Data Augmentation: Deepfake generation techniques can create vast datasets of synthetic deepfakes, providing valuable training data for detection models. This exposure to a wide range of deepfake styles and techniques helps detectors become more robust and adaptable. Understanding Artifact Generation: By analyzing how deepfakes are created, researchers gain insights into the subtle artifacts and inconsistencies these techniques introduce. This understanding guides the development of detection methods that specifically target these telltale signs. Adversarial Training: A technique called "adversarial training" pits deepfake generators against detectors in a continuous loop. The generator tries to create deepfakes that fool the detector, while the detector learns from its mistakes to improve its accuracy. This adversarial process pushes both technologies to become more sophisticated. The Arms Race Dynamic: Deepfake Generators Improve: As detection methods become more adept at spotting existing deepfake techniques, generators evolve to circumvent these defenses. They incorporate new techniques, refine existing ones, and strive to create even more realistic and harder-to-detect forgeries. Detectors Adapt and Advance: In response, detection methods must constantly adapt to these evolving techniques. This involves developing new algorithms, incorporating advanced signal processing, and leveraging multimodal analysis (audio, video, and physiological signals) to stay ahead of the curve. Implications: Continuous Innovation: The arms race fuels continuous innovation in both deepfake generation and detection. This leads to advancements in areas like computer vision, audio processing, and artificial intelligence. Escalating Sophistication: Both sides become increasingly sophisticated, making it challenging for the average user to discern real from fake. This underscores the need for accessible and reliable detection tools. Ethical Considerations: The rapid pace of development raises ethical concerns about the potential misuse of deepfakes. It highlights the importance of responsible innovation, ethical guidelines, and public awareness. The arms race between deepfake generation and detection is likely to continue. Striking a balance between technological advancement and responsible use is crucial to mitigate the potential harms of deepfakes while harnessing their positive applications.

What are the broader societal implications of widespread deepfake technology, and how can we foster responsible innovation and ethical use while mitigating potential harms?

The proliferation of deepfake technology presents profound societal implications, demanding a proactive approach to foster responsible innovation and mitigate potential harms. Potential Harms: Erosion of Trust: Deepfakes can erode trust in media, institutions, and individuals. Fabricated videos can spread misinformation, sow discord, and manipulate public opinion, undermining the very fabric of shared reality. Political Manipulation and Disinformation: Deepfakes pose a significant threat to democratic processes. Malicious actors can use them to spread propaganda, discredit opponents, or incite violence, potentially influencing election outcomes and destabilizing societies. Reputational Damage and Defamation: Individuals can be targeted with deepfakes that portray them engaging in illegal, unethical, or embarrassing activities. This can lead to reputational damage, job loss, and emotional distress, even if the content is proven false. Legal and Ethical Challenges: Deepfakes blur the lines between reality and fabrication, raising complex legal and ethical questions about free speech, defamation, evidence admissibility, and the right to one's likeness. Fostering Responsible Innovation and Ethical Use: Technological Countermeasures: Developing robust and accessible deepfake detection technologies is crucial. This includes investing in research, supporting open-source detection tools, and collaborating on industry standards. Media Literacy and Public Awareness: Educating the public about deepfakes, their potential harms, and how to identify them is essential. Media literacy programs can empower individuals to critically evaluate online content and make informed judgments. Legal Frameworks and Regulations: Establishing clear legal frameworks and regulations governing the creation and distribution of deepfakes is paramount. This includes defining penalties for malicious use, protecting individuals' rights, and addressing the ethical implications of synthetic media. Platform Responsibility: Social media platforms and content-sharing websites have a responsibility to detect, flag, and remove malicious deepfakes. Implementing robust content moderation policies and collaborating on industry-wide solutions is crucial. Ethical Guidelines and Industry Standards: Developing ethical guidelines and industry standards for the creation and use of deepfakes is essential. This includes promoting transparency, obtaining consent for using someone's likeness, and clearly labeling synthetic content. Balancing Innovation and Responsibility: The key lies in striking a balance between fostering innovation and mitigating potential harms. While deepfakes offer exciting possibilities in fields like entertainment, education, and accessibility, their potential for misuse necessitates a proactive and multifaceted approach. By embracing technological solutions, promoting media literacy, establishing legal frameworks, and fostering ethical practices, we can navigate the complex landscape of deepfakes and harness their potential while safeguarding against their perils.
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