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Deterring Deepfake Attacks with an Electrical Network Frequency Fingerprints Approach

  • Deeraj Nagothu
  • , Ronghua Xu
  • , Yu Chen
  • , Erik Blasch
  • , Alexander Aved
  • State University of New York Binghamton University
  • Air Force Research Laboratory

Research output: Contribution to journalArticlepeer-review

17 Scopus citations

Abstract

With the fast development of Fifth-/Sixth-Generation (5G/6G) communications and the Internet of Video Things (IoVT), a broad range of mega-scale data applications emerge (e.g., all-weather all-time video). These network-based applications highly depend on reliable, secure, and real-time audio and/or video streams (AVSs), which consequently become a target for attackers. While modern Artificial Intelligence (AI) technology is integrated with many multimedia applications to help enhance its applications, the development of General Adversarial Networks (GANs) also leads to deepfake attacks that enable manipulation of audio or video streams to mimic any targeted person. Deepfake attacks are highly disturbing and can mislead the public, raising further challenges in policy, technology, social, and legal aspects. Instead of engaging in an endless AI arms race “fighting fire with fire”, where new Deep Learning (DL) algorithms keep making fake AVS more realistic, this paper proposes a novel approach that tackles the challenging problem of detecting deepfaked AVS data leveraging Electrical Network Frequency (ENF) signals embedded in the AVS data as a fingerprint. Under low Signal-to-Noise Ratio (SNR) conditions, Short-Time Fourier Transform (STFT) and Multiple Signal Classification (MUSIC) spectrum estimation techniques are investigated to detect the Instantaneous Frequency (IF) of interest. For reliable authentication, we enhanced the ENF signal embedded through an artificial power source in a noisy environment using the spectral combination technique and a Robust Filtering Algorithm (RFA). The proposed signal estimation workflow was deployed on a continuous audio/video input for resilience against frame manipulation attacks. A Singular Spectrum Analysis (SSA) approach was selected to minimize the false positive rate of signal correlations. Extensive experimental analysis for a reliable ENF edge-based estimation in deepfaked multimedia recordings is provided to facilitate the need for distinguishing artificially altered media content.

Original languageEnglish
Article number125
JournalFuture Internet
Volume14
Issue number5
DOIs
StatePublished - May 2022

Keywords

  • Audio and Video Systems (AVS)
  • Electrical Network Frequency (ENF) signals
  • Internet of Video Things (IoVT)
  • Singular Spectrum Analysis (SSA)
  • adversarial machine learning
  • deepfake attacks
  • environmental fingerprint
  • spectral estimation

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