
Image Source: pexels
High-net-worth individuals are facing new threats from precision customized social engineering scams amid the rapid development of AI technology. Attackers leverage advanced algorithms and deepfake techniques to carry out targeted attacks based on personal assets, business influence, and high-profile digital presence. AI makes scam methods more covert and difficult to detect, especially in business email compromise (BEC), where attackers impersonate trusted accounts to induce victims to transfer funds or disclose sensitive information.
The precision and stealth of social engineering attacks continue to improve, making upgraded and strengthened prevention measures urgently necessary.

Image Source: pexels
The widespread application of artificial intelligence technology has dramatically changed the methods and efficiency of social engineering attacks. Attackers can use AI to identify high-value targets within organizations or individuals, quickly analyze social media and public data, and generate highly personalized attack content.
The rise of AI has propelled phishing into a new phase, with attack content becoming more sophisticated and victims finding it harder to detect anomalies. According to relevant reports, 91% of cyberattacks begin with phishing emails, and 82% of data breach incidents involve social engineering factors.
High-net-worth individuals, due to their asset scale and social influence, have become primary targets of AI-driven social engineering attacks.
In addition, modern AI tools can capture and replicate voices from social media, webinars, and phone calls, generating highly realistic deepfake content that makes it difficult for high-net-worth individuals to distinguish real from fake information. In 2024, personal losses due to fraud reports exceeded $12.5 billion, with impersonation scams growing 148% year-over-year.
AI technology has significantly enhanced the customization and stealth of social engineering attacks.
Modern AI tools not only raise the technical threshold of attacks but also make social engineering attacks far more difficult to defend against. High-net-worth individuals need to be wary of the customization and stealth risks brought by AI when facing these new threats.

Image Source: pexels
AI-driven social engineering attack chains exhibit clear stages and technical upgrades. Attackers typically follow these steps:
The table below illustrates the evolution of AI-driven social engineering attacks:
| Stage | Description |
|---|---|
| Phishing 1.0 | Mass emails with common spelling and grammar errors, easily recognizable. |
| Phishing 2.0 | Targeted at specific organizations or individuals, more personalized content, common in BEC and credential theft. |
| Phishing 3.0 | Uses AI-generated content and deepfakes for hyper-personalized attacks, extremely difficult to detect. |
At each stage, AI technology improves attack automation and stealth. For example, attackers can use AI chatbots to interact with employees, leverage fake profile pictures to gain trust, and employ dedicated AI tools to automatically bypass CAPTCHA.
Social engineering attacks rely not only on technology but also heavily on control over human nature. AI-driven attacks enhance success rates through the following psychological manipulation techniques:
| Psychological Technique | Description | Effect |
|---|---|---|
| Authority | Leveraging the influence of authority figures | Increases compliance rate |
| Liking | Building personal connections | Increases compliance rate |
| Reciprocity | Offering small favors in exchange for responses | Increases compliance rate |
| Scarcity | Emphasizing resource scarcity | Increases compliance rate |
| Social Proof | Showing the influence of others’ behavior | Increases compliance rate |
| Commitment | Getting users to make small commitments | Increases compliance rate |
| Unity | Emphasizing shared goals | Increases compliance rate |
AI tools enable large-scale personalized phishing content, scraping victims’ online data to generate highly credible fake messages. Machine learning models can also identify individuals susceptible to specific narratives, further improving the precision of psychological manipulation.
In January 2024, the finance manager of a global engineering company was deceived during operations on a Hong Kong licensed bank account via a deepfake video conference, resulting in an employee-authorized transfer of $25 million. Attackers used an AI-generated virtual executive image combined with voice cloning technology to create a realistic urgent scenario, forcing the victim to make quick decisions.
In another case, criminals used AI voice cloning to impersonate a bank director and successfully induced bank staff to transfer $35 million.
These cases demonstrate that generative AI tools greatly enhance the efficiency and stealth of social engineering attacks. Traditional defenses such as spotting spelling errors are no longer effective, and companies and high-net-worth individuals need to strengthen social engineering strategy training and improve recognition of deepfakes and AI-driven attacks.
Many current defense systems rely on static verification mechanisms, such as traditional multi-factor authentication, static rules, and blacklist filtering. These methods increasingly reveal clear shortcomings when facing AI-driven attacks. Attackers use AI to break malicious goals into multiple harmless sub-steps, significantly reducing large model rejection rates. The table below shows common ways attackers bypass static verification:
| Method | Result |
|---|---|
| Breaking malicious goals into harmless sub-steps | LLM rejection rate drops from 84% to 17% |
In addition, AI detection systems suffer from false positives and false negatives, potentially failing to identify phishing emails or incorrectly flagging normal communications. Attackers can also deceive machine learning models through minor input modifications. Relying on static verification easily creates a false sense of security in organizations, overlooking the complexity of dynamic threats.
High-net-worth individuals and their management teams show clear deficiencies in user education and security management. Many lack awareness of new social engineering tactics such as deepfakes and AI-driven chatbots, and miss training on identification and response to related threats. Institutions like family offices, due to weak security infrastructure, have become key targets for cybercriminals. Data shows that 43% of family offices worldwide experienced cyberattacks in the past two years. Attackers commonly use AI to imitate family members’ or executives’ voices and faces to induce staff into fraudulent operations.
Research indicates that systematic educational interventions can significantly improve users’ security knowledge, attitudes, and behaviors. Continuous security training and cross-departmental collaboration are crucial for addressing evolving AI threats.
Many high-net-worth individuals hold misconceptions about AI-driven social engineering attacks. They often believe traditional fraud awareness campaigns are sufficient, underestimate the complexity of AI tools, and even mistakenly think their wealth or status makes them immune to such scams. Deepfake technology makes fraud far more realistic and personalized, exceeding the protective capacity of static security awareness.
These misconceptions lead to poor decision-making and weaken vigilance against security threats. Cybersecurity myths leave systems exposed to attacks, with attackers using automated tools to find vulnerable high-net-worth targets. Understanding social engineering mechanisms is critical to improving defense capabilities.
In scenarios involving global payments, cross-border remittances, fiat-to-crypto real-time exchange, high-net-worth individuals face risks from AI-driven social engineering attacks. Technical-layer protection forms the core of the defense system.In this kind of high-risk setting, the tool itself should never replace human judgment. What matters more is whether the verification path is complete. If cross-border fund movement is genuinely needed, you can first review account security rules on the BiyaPay website, then use its remittance service and fiat exchange rate comparison tool to understand operating boundaries, cost changes, and fund routes, making sure every step is based on personal confirmation and layered verification.
From a positioning perspective, BiyaPay is a multi-asset wallet covering cross-border payments, investing, trading, and fund management, with relevant compliance registrations in jurisdictions including the United States and New Zealand. In an anti-fraud context for high-net-worth individuals, this kind of tool is more appropriately used as part of formal fund handling and information checking, not as a reason to bypass internal approval or independent confirmation just because the counterparty creates urgency or presents a convincing identity.
Technical protection measures not only improve detection efficiency but also contain attacks before they spread, reducing asset loss risks for high-net-worth individuals.
Technical protection requires management collaboration to form an effective multi-layered defense system. Cross-disciplinary cooperation is key to enhancing defense capabilities.
In the future, management should deeply integrate behavioral science with cybersecurity to design more effective intervention measures and strengthen employees’ resistance to AI-driven attacks.
Asset protection needs for high-net-worth individuals are highly personalized and require tailored security protocols and ongoing risk management processes.
Personalized security strategies can effectively counter AI-driven phishing and deepfake attacks, helping high-net-worth individuals build dynamic, closed-loop security protection systems.
AI technology continues to drive the evolution of social engineering scams. High-net-worth individuals must continuously raise security awareness and adopt dynamic technical protections. Individuals, businesses, and security service providers should collaborate to build multi-layered defense systems. Regularly assessing new threats and timely updating protection strategies helps form closed-loop security management. Only by proactively responding can asset and information integrity risks be effectively reduced.
AI-driven social engineering attacks refer to attackers using artificial intelligence technology to automatically analyze target information and generate highly personalized scam content. Such attacks feature extreme stealth and targeting, especially against high-net-worth individuals and corporate executives.
High-net-worth individuals can improve recognition of deepfake content through multi-channel identity verification, paying attention to anomalies in voice and video, and using dynamic verification mechanisms. Regular security training also enhances prevention awareness.
Static security measures such as traditional multi-factor authentication and blacklist filtering struggle against AI-generated dynamic and personalized attacks. Attackers can use AI to bypass rules, decompose attack steps, and reduce detection probability.
Companies should promote collaboration among management, IT, and behavioral science teams to establish multi-layered defense systems. Regular security training and simulated attack drills, combined with real-time monitoring and emergency response mechanisms, improve overall protection capabilities.
High-net-worth individuals should adopt real-time transaction monitoring, behavioral biometrics, and multi-factor authentication technologies to prevent fund transfer and identity impersonation risks. It is recommended to regularly assess security strategies, promptly adjust protection measures, and ensure asset safety.
*This article is provided for general information purposes and does not constitute legal, tax or other professional advice from BiyaPay or its subsidiaries and its affiliates, and it is not intended as a substitute for obtaining advice from a financial advisor or any other professional.
We make no representations, warranties or warranties, express or implied, as to the accuracy, completeness or timeliness of the contents of this publication.



