Deepfakes have rapidly surfaced as one of the most concerning technological developments in recent years, with threat implications spanning from personal privacy to national security. According to recent statistics, there has been a significant surge in deepfake-related fraud cases worldwide. From 2022 to early 2023, there was a 10x increase in deepfake fraud cases globally. And in the first quarter of 2023 alone, deepfake incidents increased by 245% year-over-year worldwide (303% increase in the US).

This alarming threat is particularly pronounced in countries holding elections in 2024, with some nations experiencing staggering growth rates in deepfake scams. Primarily driven by advancements in generative artificial intelligence (AI), deepfakes have become a widespread cybersecurity concern impacting nations, organisations, and individuals.

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What Is a Deepfake?

A deepfake is an elaborate form of synthetic media that uses AI and machine learning (ML) techniques to fabricate or manipulate audio, video, or images that appear convincingly real. The term “deepfake” derives from blending “deep learning” and “fake” to reflect using deep learning algorithms in the creation process. These AI-generated counterfeits can range from swapping faces in videos to creating entirely fabricated audio recordings or images of individuals who don’t exist.

Deepfakes leverage advanced technologies such as:

  • Facial recognition algorithms
  • Artificial neural networks
  • Variational autoencoders (VAEs)
  • Generative adversarial networks (GANs)

These tools allow impostors to produce seemingly realistic content that can be extremely difficult to distinguish from legitimate media. Threat actors often exploit this technology for nefarious purposes like identity fraud, social engineering attacks, disinformation campaigns, and even corporate espionage.

History of Deepfakes

The evolution of deepfake technology has been rapid and multifaceted:

  • 1990s: Researchers began using CGI (computer-generated imagery) to create realistic images of humans, laying the groundwork for future deepfake technology.
  • 2014: Ian Goodfellow introduced Generative Adversarial Networks (GANs), a breakthrough in deep learning that would eventually enable sophisticated deepfakes.
  • 2017: The term “deepfake” was coined by a Reddit user who created a subreddit for sharing celebrity face-swapped pornography.
  • 2018: Deepfakes gained mainstream attention, with platforms like BuzzFeed creating viral videos demonstrating the technology’s potential.
  • 2019: The number of deepfake videos online nearly doubled in just nine months, reaching over 15,000.
  • 2021: Text-to-image AI models like DALL-E emerged, expanding the scope of synthetic media beyond face-swapping.
  • 2023-2024: Deepfake incidents increased by 245% year-over-year, with significant growth in various sectors, including iGaming, marketplaces, and fintech.

This rapid progression highlights the technology’s evolution from primitive tools to generative AI systems capable of creating highly convincing synthetic identities and media.

How Deepfake Technology Works

Deepfake technology operates through an advanced process that involves several essential steps to generate an output:

  1. Data collection: The first step is gathering a substantial dataset of content related to the target subject, be it videos, images, or audio. The more diverse and comprehensive this dataset, the more realistic the final deepfake.
  2. Training: Deep learning algorithms are then used to train the AI model on the collected data. This involves analysing facial features, expressions, and movements to understand how the subject looks and behaves in various contexts.
  3. Generation: Once trained, the model can create new content based on the learned patterns. This might involve superimposing the target’s face onto another person’s body in a video or generating entirely new audio using the target’s voice.
  4. Refinement: The initial output is often imperfect, so an iterative improvement process follows. Tweaking the output might involve further training, manual adjustments, or using additional AI tools to enhance realism.

The center of most deepfake systems is a Generative Adversarial Network (GAN). In a GAN, two AI systems work in opposition:

  • A Generator creates fake content
  • A Discriminator attempts to detect if the content is real or fake

These systems compete and improve each other, with the generator creating increasingly convincing fakes based on the discriminator’s feedback.

Technology Used to Develop Deepfakes

Multiple technologies are crucial in the development of deepfakes, including:

  • Convolutional Neural Networks (CNNs): These highly specialised neural networks excel at analysing visual data. With deepfakes, CNNs are used for facial recognition and tracking movement, allowing the system to replicate complex facial features and expressions.
  • Autoencoders: These neural networks compress data into a compact representation and then reconstruct it. When generating deepfakes, autoencoders help identify and impose relevant attributes like facial expressions and body movements onto source videos.
  • Natural Language Processing (NLP): For audio deepfakes, NLP technologies analyse speech patterns and generate original text that mimics a target’s voice and speaking style.
  • High-Performance Computing: Producing deepfakes requires substantial computational power, especially for training complex AI models and generating high-quality output. GPUs and cloud computing resources are often utilised.
  • Generative Adversarial Networks (GANs): As mentioned earlier, GANs are the backbone of most deepfake systems. They use deep learning to recognise patterns in authentic images to then create convincing fakes.
  • Recurrent Neural Networks (RNNs): Often used in conjunction with other techniques, RNNs are particularly useful for tasks like lip-syncing in video deepfakes, as they can process data sequences.

As these technologies continue to evolve in sophistication, the quality and accessibility of deepfake development tools are likely to escalate.

Types of Deepfake Scams

Deepfake technology has given rise to various types of scams, each posing unique threats to individuals and organisations. Here are some of the most common types of deepfake scams:

  • Financial fraud: Criminals use deepfake audio or video to impersonate executives, authorising fraudulent wire transfers or financial transactions. This type of scam led to a $25 million loss in a recent high-profile case.
  • Account takeover: Deepfakes are used to bypass biometric security measures, allowing fraudsters to gain unauthorised access to accounts. Gartner predicted that in 2023, deepfakes would play a role in 20% of successful account takeover attacks.
  • Application fraud: Scammers create synthetic identities using deepfake technology to apply for loans and credit cards or open bank accounts fraudulently.
  • Stock price manipulation: Fabricated videos or audio of company executives making announcements are used to artificially influence stock prices.
  • Reputation damage: Deepfakes can create false social media posts or videos of executives or employees engaging in inappropriate behaviour, damaging a company’s brand and reputation.
  • Social engineering: Deepfakes enhance the effectiveness of phishing attacks by creating more convincing impersonations of trusted individuals.
  • Employee exploitation: Malicious actors create non-consensual deepfake content of employees, leading to potential harassment, blackmail, or reputational damage.
  • Disinformation campaigns: Deepfakes are used to spread false information rapidly, potentially influencing public opinion or election outcomes.

The cybersecurity dangers of deepfakes are far-reaching. Perhaps the most significant threat is the erosion of trust in digital communications and media, as deepfakes make it increasingly challenging to distinguish between authentic and fabricated content. This creates a profound level of uncertainty, significantly influencing decision-making processes in both personal and professional contexts.

Deepfakes dramatically enhance the effectiveness of social engineering attacks, making phishing and other manipulation tactics more convincing and potentially more successful. The technology also poses a significant threat to biometric security measures, as sophisticated deepfakes can bypass facial recognition and voice authentication systems.

Deepfake-driven fraud has resulted in substantial losses for individuals and organisations, with some high-profile cases involving millions of dollars. The rapid spread of misinformation can manipulate public opinion or even influence election outcomes, seriously threatening social and political stability.

Are Deepfakes Illegal?

The legalities surrounding deepfakes present a complicated and dynamic issue. Currently, there is no comprehensive federal law in the United States that explicitly bans or regulates all forms of deepfakes. However, certain uses of deepfakes may be illegal under existing laws, particularly when they are used for malicious purposes such as fraud, defamation, or non-consensual pornography.

Several states have taken legislative action to address specific concerns related to deepfakes. For example, Texas and California have passed laws banning the use of deepfakes to influence elections. Additionally, California, Georgia, and Virginia have enacted legislation prohibiting the creation and distribution of non-consensual deepfake pornography. These state-level initiatives represent a patchwork approach to regulating deepfakes, focusing on their most harmful applications.

At the federal level, while comprehensive legislation is still pending, there are ongoing efforts to address the challenges posed by deepfakes. The U.S. Congress is considering several bills, including the Deepfake Report Act and the DEEPFAKES Accountability Act, which aim to improve understanding of the technology and provide legal recourse for victims. Law enforcement agencies are also working to develop tools and strategies to detect and combat malicious uses of deepfakes, particularly in areas such as fraud prevention and election security.

Examples of Deepfakes

While many deepfakes are created for entertainment or educational purposes, there have been several real-life examples of deepfakes being used maliciously. Here are some of the most recent examples.

Political Manipulation of President Biden

In early 2024, an audio deepfake of President Biden surfaced, making it appear as though he was making controversial statements about national security. This incident exemplified the potential for deepfakes to mislead the public and create confusion during an election year, raising concerns about the integrity of political discourse.

Targeting Taylor Swift

In 2024, deepfake videos featuring pop star Taylor Swift emerged, depicting her in compromising and fabricated scenarios. This case highlights the ongoing vulnerability of celebrities to deepfake technology, which can be used to create damaging content that threatens personal reputations and privacy.

Hong Kong Finance Fraud

A significant deepfake case in Hong Kong involved a finance worker who was tricked into transferring $39 million after being deceived by deepfake impostors posing as their CFO and colleagues during a video call. This incident underscores the growing sophistication of deepfake scams, where criminals can convincingly impersonate trusted figures to execute large-scale financial fraud.

Arizona Agenda’s Awareness Campaign

In March 2024, the Arizona Agenda created a deepfake of Senate candidate Kari Lake to raise awareness about the potential dangers of deepfakes in the upcoming election. By intentionally using a deepfake in a political context, the campaign aimed to educate voters on the risks of misinformation and media manipulation during critical electoral processes.

Fake Photos of Donald Trump

In early March 2024, a new batch of fake photos purportedly showing Donald Trump interacting with Black voters circulated on social media. These images, generated by using AI services like Midjourney, were likely intended to manipulate public opinion and court Black voters, demonstrating how deepfake technology can be weaponized for political gain.

Detecting and Mitigating the Risks of Deepfakes

As deepfake technology continues to evolve, organisations must adopt comprehensive strategies to detect and mitigate the associated risks. One of the most effective approaches involves leveraging advanced detection technologies powered by AI and ML. These tools extensively analyse audio and video content for subtle inconsistencies that may be imperceptible to the human eye or ear, enabling rapid identification of potential deepfakes.

AI-powered detection systems utilise pattern recognition to identify anomalies in media, while multimodal analysis examines various elements, including visual, audio, and metadata, to assess authenticity. Additionally, some solutions employ blockchain technology to verify the origin and integrity of media files, further enhancing trustworthiness.

To bolster defences against deepfakes, organisations should implement a combination of technological solutions and best practices, including:

  • Multifactor authentication: Combine biometric and behavioural factors with traditional passwords to prevent identity spoofing. Consider using a password generator to help you create strong, secure passwords.
  • Employee training: Educate staff on the risks associated with deepfakes and how to identify manipulated content, fostering a culture of vigilance.
  • Verification protocols: Establish procedures for confirming the authenticity of sensitive communications, particularly those involving financial transactions.
  • Watermarking and digital signatures: Utilise these technologies on original content to help verify authenticity and deter manipulation.
  • Regular updates: Stay informed about the latest deepfake techniques and countermeasures by regularly updating detection software.
  • Collaboration with experts: Partner with cybersecurity firms and academic institutions to access cutting-edge detection technologies and research.
  • Incident response plans: Develop incident response protocols for handling suspected deepfake incidents, including steps for verification, reporting, and mitigation.

By integrating these advanced detection technologies with robust organisational practices, organisations can significantly strengthen their defences against the risks posed by deepfakes.

How Proofpoint Can Help

Proofpoint offers powerful solutions to combat the evolving threat of deepfakes and other AI-generated content used in social engineering attacks. Their multi-pronged approach focuses on both technological defences and human-centric security awareness:

  • Advanced Email Protection: Email security solutions from Proofpoint use machine learning to detect and block sophisticated phishing attempts, including those that may leverage deepfake technology.
  • Security Awareness Training: Proofpoint provides customisable training programmes that educate employees on the latest social engineering tactics, including how to identify potential deepfakes and AI-generated content.
  • Emerging Threat Intelligence: Proofpoint’s threat research team continuously monitors emerging threats—including those involving generative AI—to update their detection capabilities and provide timely insights to customers.
  • Multi-layered Threat Defence: Proofpoint emphasises the importance of a holistic security strategy that combines technological solutions with human vigilance to create a robust defence against evolving social engineering threats.

By leveraging Proofpoint’s solutions and expertise, organisations can enhance their resilience against deepfake-driven attacks and other AI-powered social engineering tactics, ensuring a more secure digital environment for their employees and assets. For more information, contact Proofpoint.

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