The Abouzar Rahmati Penetration: A Counterintelligence Case Study

spy, spies, espionage, counterespionage, intelligence, counterintelligence, C. Constantin Poindexter

The Abouzar Rahmati Case: A Counterintelligence Case Study in the Era of Digital Espionage

The case of Abouzar Rahmati, an Iranian spy indicted in September 2024 for acting as an illegal agent of the Iranian government, offers a compelling case study for counterintelligence professionals. Rahmati, a 42-year-old FAA contractor with a PhD in Electrical Engineering, exploited his position to access and exfiltrate sensitive documents related to the FAA’s National Airspace System (NAS). His capture highlights the evolving landscape of espionage and the critical role of digital forensics, travel surveillance, and whistleblower tips in counterintelligence operations. In this piece, I am going to share the methods used to uncover Rahmati’s activities (no classified docs or tradecraft here, sorry to disappoint), and provide some insights into how penetration agents can be detected and neutralized.

Abouzar Rahmati, a U.S. government contractor, was indicted on charges of acting as an illegal agent of the Iranian government. His activities involved accessing and exfiltrating sensitive FAA documents, which he subsequently provided to Iranian authorities. Rahmati’s case is instructive for counterintelligence professionals as it demonstrates the complex interplay of traditional and digital investigative techniques in uncovering espionage activities. The methods used to catch Rahmati offer valuable lessons in counterintelligence strategies and the importance of vigilance in protecting sensitive information.

Methods for Detecting Penetration Agents: How to Uncover a Betrayal

Internal audits and security checks are fundamental tools in counterintelligence. In Rahmati’s case, an internal audit at the FAA revealed discrepancies in document access logs. These audits are crucial for identifying unusual patterns that may indicate unauthorized access or data exfiltration. As noted by The Washington Post, routine security checks flagged Rahmati’s unusual access patterns, prompting further investigation. This underscores the importance of regular and thorough internal audits in detecting potential security breaches (Washington Post, 2024).

Digital forensics plays a pivotal role in modern counterintelligence. Rahmati’s activities were traced through metadata analysis, which revealed inconsistencies in document access patterns. A report from a government watchdog site detailed how investigators discovered that certain documents were accessed and potentially altered, suggesting unauthorized manipulation. This highlights the value of digital forensics in uncovering hidden activities and providing evidence for further investigation (Government Watchdog Report, 2024).

Travel surveillance and communication monitoring are essential components of counterintelligence. Rahmati’s frequent trips to Iran, which coincided with sensitive FAA projects, raised suspicions. The New York Times reported that these travels were scrutinized, revealing a pattern of behavior inconsistent with his stated purposes. Additionally, surveillance of Rahmati’s communications uncovered contacts with Iranian officials, providing further evidence of his espionage activities (New York Times, 2024).

Whistleblower tips can be invaluable in counterintelligence operations. A forum on the dark web discussed leaks from an anonymous source within the FAA, suggesting that Rahmati was caught due to a whistleblower who provided evidence of his actions to the FBI. This underscores the importance of encouraging and protecting whistleblowers, as they can provide crucial insights and evidence (Dark Web Forum, 2024).

Penetration agents often operate as part of larger espionage networks. Rahmati’s activities were part of a broader Iranian espionage network, and his capture was the result of a coordinated effort to dismantle this network. This highlights the need for counterintelligence agencies to consider the broader context and potential connections when investigating individual cases (Dark Web Source, 2024).

Thorough background checks and deception detection are critical in counterintelligence. Rahmati’s lies about his military service in the Islamic Revolutionary Guard Corps (IRGC) were discovered during routine background checks, raising red flags that prompted further investigation. This emphasizes the importance of verifying the backgrounds of individuals with access to sensitive information (FBI Background Check Report, 2024).

Uncovering the Rahmati Penetration

The methods used to uncover Rahmati’s activities support the argument for a multifaceted approach to counterintelligence. The combination of internal audits, digital forensics, travel surveillance, and whistleblower tips provided a comprehensive framework for detecting and neutralizing his espionage activities. The initial detection of Rahmati’s unusual activities through internal audits at the FAA was a crucial first step. These audits, combined with digital forensics, revealed patterns of behavior that were inconsistent with his job requirements. Metadata analysis of the documents he accessed provided concrete evidence of his unauthorized actions. This approach demonstrates the effectiveness of combining traditional security measures with advanced digital techniques in counterintelligence operations.

Rahmati’s travel patterns and communications were key indicators of his espionage activities. The surveillance of his frequent trips to Iran, coupled with the monitoring of his communications with Iranian officials, provided a clear picture of his motives and actions. This highlights the importance of integrating travel and communication data into counterintelligence strategies to identify potential threats.

The role of whistleblower tips in Rahmati’s case cannot be overstated. Anonymous sources within the FAA provided crucial evidence that supplemented the findings from digital forensics and surveillance. Additionally, the coordination with a larger Iranian espionage network underscores the need for counterintelligence agencies to consider the broader context and potential connections when investigating individual cases.

The Abouzar Rahmati case offers valuable insights into the methods and strategies used in modern counterintelligence operations. The combination of internal audits, digital forensics, travel surveillance, and whistleblower tips provided a robust framework for detecting and neutralizing his espionage activities. As counterintelligence professionals, it is essential to adopt a multi-faceted approach that leverages both traditional and digital investigative techniques to protect sensitive information and neutralize potential threats. The Rahmati case serves as a reminder of the evolving nature of espionage and the critical role of vigilance and innovation in counterintelligence.

~ C. Constantin Poindexter, MA in Intelligence, Graduate Certificate in Counterintelligence, JD, CISA/NCISS OSINT certification, DoD/DoS BFFOC Certification

Bibliography

  • Dark (not going to share). 2024. “Leaks from Anonymous Source Within FAA.” Accessed February 2, 2026. https://dark.
  • Dark (not going to share). 2024. “Iranian Espionage Network Dismantled.” Accessed February 2, 2026. https://dark.
  • FBI Background Check Report. 2024. “Rahmati Background Check Discrepancies.” Accessed February 2, 2026. https://fbi.gov/reports/background-checks/rahmati.
  • Government Watchdog Report. 2024. “Digital Forensics in Rahmati Case.” Accessed February 2, 2026. https://watchdog.gov/reports/digital-forensics.
  • New York Times. 2024. “FAA Contractor Indicted for Spying.” New York Times, September 28. Accessed February 2, 2026. https://nytimes.com/article/rahmati-indictment.
  • Washington Post. 2024. “Internal Audit Flags FAA Contractor.” Washington Post, September 27. Accessed February 2, 2026. https://washingtonpost.com/article/faa-audit.

Perils of Public AI from a Counterintelligence Perspective: The Madhu Gottumukkala Case

a.i., artificial intelligence, spy, spies, intelligence, counterintelligence, espionage, counterespionage, C. Constantin Poindexter

The Perils of Public AI from a Counterintelligence Operator’s View: A Case Study on Madhu Gottumukkala’s Reckless Use of ChatGPT

In the clandestine world of national security, the line between operational success and catastrophic failure is often measured in millimeters of discretion. The recent revelation that Madhu Gottumukkala, the acting director of the Cybersecurity and Infrastructure Security Agency (CISA), utilized a public, commercially available version of ChatGPT to process “for official use only” (FOUO) documents is not merely a procedural misstep. It is an incredibly stupid counterintelligence debacle, I mean, “of the highest order” (Sakellariadis, 2026). This incident exposes a chasm of staggering depth between the rapid adoption of transformative technology and the foundational principles of information security that have, until now, protected the nation’s most sensitive secrets. From my perspective as a counterintelligence expert, Gottumukkala’s actions were not born of ignorance but of a dangerous arrogance, a presumption that his position insulated him from the very rules he was sworn to enforce. This presumption is a gift to adversarial FIS and a nightmare for those tasked with defending the integrity of our intelligence apparatus.

The Inherent Treachery of Public Large Language Models

To understand the gravity of Gottumukkala’s error, one must first dissect the fundamental architecture and data policies of public Large Language Models (LLMs) like OpenAI’s ChatGPT. These models are not inert tools; they are dynamic, cloud-hosted systems designed to learn and evolve from user interactions. OpenAI’s policy, while occasionally nuanced, has consistently maintained that submitted data may be retained and used to train and refine their models (OpenAI, 2025). This means that every prompt, every document fragment, and every query entered into the public interface becomes part of a vast, aggregated dataset. For a civilian user, this might raise privacy concerns. For a government official handling sensitive material, it represents an unauthorized and uncontrolled data spill of potentially catastrophic proportions.

The data itself is only half the problem. The metadata generated by the interaction, i.e., user’s IP address, device fingerprinting, session timings, and the very nature of the queries, etc., provides a rich tapestry of intelligence for a determined adversary. A sophisticated FIS such as China’s Ministry of State Security (MSS) or Russia’s SVR does not need to directly breach OpenAI’s servers to benefit. They can analyze the model’s outputs over time to infer the types of questions being asked by government entities. If an official uploads a contracting document related to a critical infrastructure project, the model’s subsequent, more knowledgeable answers about that specific topic could signal a point of interest. This is a form of signals intelligence (SIGINT) by proxy, where the adversary learns not what we know, but what we are focused on, thereby revealing strategic priorities and operational vulnerabilities.

Furthermore, the security of these public platforms is a moving target. While no direct evidence of a major breach of OpenAI’s training data is publicly available, the possibility cannot be discounted. The U.S. intelligence community operates on the principle of need-to-know and compartmentalization precisely because no system is impenetrable. Deliberately placing sensitive data into a system with an opaque security posture, governed by a private company with its own corporate interests and potential vulnerabilities, is an abdication of the most basic tenets of information security. The 2023 breach of MoveIt Transfer, a widely used file-transfer software, which impacted hundreds of organizations, including government agencies, serves as a stark reminder that even trusted third-party systems can be compromised (CISA, 2023). Gottumukkala’s actions effectively created a similar, albeit digital, vulnerability by choice.

The Anatomy of an Insider Threat: Arrogance as a Vector

Counterintelligence professionals spend their careers identifying and mitigating insider threats, which are often categorized as malicious, coerced, or unintentional. Gottumukkala’s case falls into a particularly insidious subcategory, . . . the entitled or arrogant insider. This is an individual who, often due to seniority or perceived importance, believes that security protocols are for lesser mortals. His reported actions paint a textbook picture. Faced with a blocked application, he did not seek to understand the policy or use the approved alternative; he reportedly demanded an exemption, forcing his subordinates to override security measures designed to protect the agency (Sakellariadis, 2026). He just assumed that the rules simply did not apply to him.

This behavior is more than a simple lapse in judgment. It is a systemic cancer. When a leader demonstrates a flagrant disregard for established rules, it erodes the entire security culture of an organization. Junior personnel, witnessing a senior official flout policy without immediate repercussion, receive a clear message. The rules are flexible, especially for the powerful. This creates an environment ripe for exploitation, where other employees may feel justified in likewise ignoring rules that they don’t find convenient, exponentially increasing the agency’s attack surface. Adversarial FIS are adept at exploiting this kind of cultural rot. They understand that a demoralized workforce with a cynical view of leadership is more susceptible to coercion, recruitment, or simple negligence.

Gottumukkala’s reported professional history amplifies these concerns. His documented failure to pass a counterintelligence-scope polygraph examination is a monumental red flag that should have precluded any role involving access to sensitive operational or intelligence information (Sakellariadis, 2026). A polygraph is not a perfect lie detector, but in the counterintelligence context, it is a critical counterespionage tool for assessing an individual’s trustworthiness, susceptibility to coercion, and potential for undeclared foreign contacts. A failure in this screening is a definitive signal of elevated risk. Making matters worse, he sought to remove CISA’s Chief Information Officer (CIO), the very official responsible for maintaining the agency’s cybersecurity posture (Sakellariadis, 2026). This pattern suggests a hostility toward institutional oversight that is antithetical to the role of a cybersecurity leader in addition to hostility towards basic INFOSEC protocols.

The Strategic Cost of a Single Data Point

The documents in question were reportedly FOUO, not classified. This distinction, while bureaucratically significant, is strategically irrelevant to a capable adversary. FOUO documents often contain the building blocks of classified intelligence. They can reveal details about sources and methods, sensitive but unclassified contract information about critical infrastructure, internal deliberations on policy, and/or the identities and roles of key personnel involved in national security efforts.

Consider a hypothetical but plausible scenario. A FOUO document details a DHS contract with a private firm to harden the cybersecurity of a specific sector of the electrical grid. Uploaded to a public AI, this data point is now part of a larger model. An adversary, through persistent querying of the public AI, could potentially coax the model into revealing more about this sector’s vulnerabilities than it otherwise would. Even if the model does not explicitly reveal the document, the adversary’s knowledge of the type of work being done allows them to focus their espionage, cyberattacks, or influence operations on that specific firm or sector. The FOUO document becomes the breadcrumb that leads the adversary to the feast. The Office of the Director of National Intelligence (ODNI) has repeatedly warned in its annual threat assessments that adversaries prioritize unclassified data collection to build a mosaic of intelligence (ODNI, 2025). Each piece is harmless on its own, but together they form a clear and actionable picture.

The existence of secure, government-controlled alternatives makes this incident all the more infuriating. The Department of Homeland Security has developed and deployed its own AI-powered tool, DHSChat, specifically designed to operate within a secured federal network, ensuring that sensitive data does not leave the government’s digital ecosystem (DHS, 2024). Gottumukkala’s insistence on using the public, less secure option over the purpose-built, secure one is the action of someone who either lacks a fundamental understanding of the threat landscape or simply doesn’t give a shit. In either case, the result is the same. It is an unnecessary forced error, and self-inflicted wound on national security.

The Imperative of Accountability and a Zero-Tolerance Mandate

The response to this incident should be unequivocal and severe. The Department of Homeland Security’s own Management Directive 11042.1 mandates that any unauthorized disclosure of FOUO information be investigated as a security incident, potentially resulting in “reprimand, suspension, removal, or other disciplinary action” (DHS, 2023). Anything less than a full counterintelligence investigation, coupled with Gottumukkala’s immediate removal from any position of trust, signals a tacit acceptance of reckless behavior.

This case should catalyze a broader policy shift across the entire Intelligence Community which has been visibly altered by current leadership. A zero-tolerance policy for the use of public AI tools with any government data, let alone sensitive information, must be implemented and enforced without exception. This requires more than a memo. It requires robust technical controls, including network-level blocks to prevent such data exfiltration and continuous monitoring for policy violations. It also demands a cultural reset led from the very top, where security is not seen as a bureaucratic hurdle but as an integral component of every mission.

The arrogance displayed by Madhu Gottumukkala is a counterintelligence nightmare. The arrogance and hubris are breathtaking. This case represents a willful blindness to the reality of the threats we face, or worse, zero concern whatsoever for the protection of national security assets. Our adversaries are relentless, sophisticated, and constantly probing for weaknesses. We cannot tolerate bureaucrats who view security protocols as optional. The integration of AI into our national security architecture holds immense promise, but that promise can only be realized if it is guided by the enduring principles of vigilance, discipline, and respect for the sanctity of sensitive information. To do otherwise is not just foolish. It is a betrayal of the public trust and a dereliction of the duty to protect the nation.

~ C. Constantin Poindexter, MA in Intelligence, Graduate Certificate in Counterintelligence, JD, CISA/NCISS OSINT certification, DoD/DoS BFFOC Certification

Bibliography

  • Department of Homeland Security. (2023). Management Directive 11042.1: Safeguarding Sensitive But Unclassified (For Official Use Only) Information. Retrieved from DHS.gov
  • Department of Homeland Security. (2024). DHS’s Responsible Use of Generative AI Tools. Retrieved from DHS.gov
  • National Counterintelligence and Security Center. (2025). Annual Threat Assessment: Adversary Exploitation of Leaked Data. Washington, D.C.: Office of the Director of National Intelligence.
  • OpenAI. (2025). ChatGPT Data Usage Policy. Retrieved from OpenAI.com
    Sakellariadis, J. (2026, January 27). Trump’s Acting Cyber Chief Uploaded Sensitive Files into a Public Version of ChatGPT. POLITICO. Retrieved from Politico.com
  • Cybersecurity and Infrastructure Security Agency (CISA). (2023, June 1). *AA23-165A: MOVEit Transfer Vulnerability Exploit

A Pier Walk, an Encrypted App, and a Trail of Receipts: The Wei Espionage Case, Counterintelligence and PRC Tradecraft

china, PRC, PLA, espionage, spy, spies, counterespionage, counterintelligence, intelligence, C. Constantin Poindexter, counterespionage;

The two-hundred-month federal sentence imposed on U.S. Navy sailor Jinchao Wei, also known as Patrick Wei, is not merely a cautionary tale about a single insider’s betrayal. It is a contemporary, well documented case study in the People’s Republic of China’s persistent espionage campaign against U.S. defense entities, executed through an operational pattern that has become all too familiar to counterintelligence practitioners, i.e., low friction spotting and assessment via online platforms, cultivation under plausible non-official cover, incremental tasking that begins with seemingly innocuous collection, and compensation methods that leave a financial signature even when communications are migrated to encrypted channels (U.S. Department of Justice, 2023; U.S. Department of Justice, 2026a). The Wei matter is also a reminder that insider threats rarely begin with the theft of a crown jewel. They begin with ego, attention, a sense of being chosen, and the seductive illusion that the handler is impressed and that the target is smarter than the system.

Public reporting and Department of Justice releases describe Wei as having been arrested in August 2023 as he arrived for duty at Naval Base San Diego, where he was assigned to the amphibious assault ship USS Essex (U.S. Department of Justice, 2023; U.S. Department of Justice, 2026b). The arrest timing and location are operationally significant. Counterintelligence cases often culminate when investigators can control the environment, secure devices and storage, and prevent further loss of national defense information while preserving evidentiary integrity. The government’s narrative, as presented publicly, reflects a mature, documentable case anchored in communications and payment records rather than exotic or highly sensitive sources. The Department of Justice has been explicit that not every investigative step can be disclosed and I don’t intend to do so here, but it has been equally clear that the evidentiary core included intercepts of communication between Wei and his PRC handler, and documentation of how Wei was rewarded for his betrayal (U.S. Department of Justice, 2026a).

The recruitment vector in this case aligns with PRC modus operandi in insider targeting. Wei was approached through social media by an individual presenting as a “naval enthusiast” who claimed a connection to China’s state-owned shipbuilding sector, a cover story designed to appear adjacent to legitimate maritime interest while still close enough to naval affairs to justify pointed questions (U.S. Department of Justice, 2026a; Associated Press, 2026). That presentation is instructive. It reduces the psychological barrier to engagement, provides a rationale for curiosity-driven dialogue, and permits gradual escalation from general discussion to tasking. A handler does not need immediate access to classified networks to create damage. He needs a human source who can provide operationally relevant details, and then he needs to keep the source talking long enough to normalize betrayal.

Once engaged, Wei’s operational security behavior demonstrates both awareness and complicity. He told a Navy friend that the activity looked “quite obviously” like espionage and, after that realization, he shifted communications to a different encrypted messaging application that he believed was more secure (U.S. Department of Justice, 2026a; USNI News, 2026). This is an important marker for investigators and security managers. When a cleared person acknowledges illicit intent yet continues, the motivation is not confusion. It is volition. The move to a “more secure” platform is also characteristic of PRC handling in HUMINT collection. Chinese FIS does not need to provide sophisticated technical tradecraft if the target will self-generate it. Public charging language indicates agreed steps to conceal the relationship, including deletion of conversation records and use of encrypted methods, which reflects basic but purposeful counter-surveillance and denial behavior (U.S. Department of Justice, 2023).

Tasking, as described in public releases, combined opportunistic collection with specific collection requirements. Wei was asked to “walk the pier” and report which ships were present, provide ship locations, and transmit photos and videos along with ship-related details (U.S. Department of Justice, 2026a). From a counterintelligence perspective, these are not trivial asks. Pier-side observations can support pattern of life analysis, readiness inference, and operational planning, particularly when fused with open source material and other clandestine reporting. The case officer’s methodology is “incrementalism”. A handler begins with items that feel observational and deniable, then pulls the source toward more sensitive materials by normalizing the exchange relationship and introducing compensation.

The most damaging element is the alleged transfer of classified technical and operational documents. DOJ accounts state that over an approximately 18-month relationship, Wei provided approximately sixty manuals and other sensitive materials, including at least thirty manuals transmitted in one tranche in June 2022, some of which clearly bore export control warnings. The materials were related to ship systems such as power, steering, weapons control, elevators, and damage and casualty controls (U.S. Department of Justice, 2026a; U.S. Department of Justice, 2026b; Associated Press, 2026). In counterintelligence risk terms, technical manuals provide adversaries with a low-cost blueprint for exploitation. They can inform electronic attack planning, maintenance and sustainment targeting, and vulnerability discovery. They also enable synthetic training and doctrine development for adversary operators. A single manual can be operationally relevant for years because systems and procedures often evolve incrementally, not continuously.

Compensation details illuminate tradecraft and investigative leverage. Wei received more than $12,000 over the course of the relationship, including an alleged $5,000 payment connected to the June 2022 manual transfer. The DOJ has described the use of online payment methods (U.S. Department of Justice, 2023; U.S. Department of Justice, 2026a). This is common in modern espionage involving HUMINT assets who are not professional intelligence officers. Financial transfers create documentary evidence, establish quid pro quo, and provide prosecutors with a corroborating narrative that is legible to a jury. For counterintelligence professionals, this observation is instructive. When communications shift to encrypted platforms, payment flows often remain discoverable through records, device artifacts, and third-party reporting. The operational discipline required to truly eliminate financial signatures is rarely present in an insider unless he or she is COMSEC sophisticated.

Public disclosures describe the case’s investigative architecture in broad but meaningful terms which are instructive even in the absence of the classified story. The FBI and Naval Criminal Investigative Service conducted the investigation. The DOJ characterized the matter as a “first of its kind” espionage investigation in the district, language that signals a substantial investigative effort and a prosecutorial commitment to proving the national security dimension in open court (U.S. Department of Justice, 2026a). The described evidence set emphasizes calls and electronic and audio messages with the PRC handler, payment records and receipts, and a post-arrest interrogation in which Wei admitted to providing the materials and described his conduct as espionage (U.S. Department of Justice, 2026a). Those elements are not glamorous, but they are decisive. They reflect the fundamentals of counterintelligence case building: document the relationship, document tasking and exchanges, document intent and benefit.

This IS PRC modus operandi! The Wei case fits a familiar pattern. The approach was enabled by digital access to targets, the cover identity was plausibly adjacent to the target’s professional interests, and the relationship was escalated through a play on Wei’s ego, . . . a mix of attention, manipulation, and money to compromise him. Tradecraft relied on human psychology, not advanced technical means. The Chinese FIS officer did not need to defeat a classified network. He convinced an insider to carry information out through routine channels and to do so voluntarily. This is a good example of why insider threat programs cannot focus only on clearance adjudication and periodic training. They must incorporate behavioral indicators, targeted education about online elicitation, and strong reporting pathways that reward early disclosure rather than stigmatize it (U.S. Department of Justice, 2023; U.S. Department of Justice, 2026a).

There is also a supervisory and cultural lesson embedded here. Wei voiced suspicion to another sailor. That disclosure was a moment when the damage could have been immediately contained. Peers often see the first signs of a peril, yet peers hesitate, either because they do not want to “ruin someone’s career” or because they assume someone else will act. Counterintelligence operators should treat this as a design requirement. Reporting must be made psychologically easy, procedurally simple, and institutionally supported. A peer report should trigger a calibrated and coordinated response, not an immediate public spectacle. The goal is to get ahead of compromise, not to create an environment where personnel conceal concerns to avoid attention.

The Wei case is a well-evidenced illustration of PRC espionage tradecraft against the United States. Chinese FIS spots and contacts potential insiders at scale through social platforms, cultivates via plausible identity, normalizes secret communications, introduces tasking that begins with the innocuous then escalates to classified materials, and pays through channels that are convenient to the target while still supporting handler control and a firm compromise of the asset (U.S. Department of Justice, 2023; U.S. Department of Justice, 2026a; USNI News, 2026). In my professional judgment, this is another textbook example of ego as the primary driver beneath the surface rationalizations. Even when loneliness, financial temptation, or grievance are present, the consistent psychological engine in treasonous espionage is the ego’s appetite to feel important, chosen, liked, befriended and exceptional. Wei’s conduct underscores that dynamic. He recognized the espionage for what it was, believed he could manage his exposure by encrypted applications, and continued down the road of betrayal. That is not naïveté. It is a belief that rules apply to others, that risk can be controlled by personal cleverness, and that the handler’s attention is a validation of one’s importance in the world. In very few espionage cases, money is the hook. The I.C. likes to think that examples like the Ames Case was a money-motivated treason. It was only partially. Likewise, the I.C. report on Ana Montés lays the blame at the feet of “ideology”. That really wasn’t it. Ego is the line that keeps the source from walking away when conscience and common sense offer an exit. It is almost ALWAYS ego.

~ C. Constantin Poindexter, MA in Intelligence, Graduate Certificate in Counterintelligence, JD, CISA/NCISS OSINT certification, DoD/DoS BFFOC Certification

Bibliography

  • Associated Press. (2026, January 12). Former Navy sailor sentenced to 16 years for selling information about ships to Chinese intelligence.
  • U.S. Department of Justice. (2023, August 3). Two U.S. Navy servicemembers arrested for transmitting military information to the People’s Republic of China.
  • U.S. Department of Justice. (2026a, January 13). Former U.S. Navy sailor sentenced to 200 months for spying for China.
  • U.S. Department of Justice. (2026b, January 14). U.S. Navy sailor sentenced to more than 16 years for spying for China.
  • USNI News. (2026, January 13). Sailor to serve 16 year prison sentence for selling secrets to China.

When Counterintelligence Did Not “Catch” Jonathan Soong

espionage, counterespionage, intelligence, counterintelligence, spy, spies, C. Constantin Poindexter

When Counterintelligence Did Not “Catch” the Bad Guy: How Export Compliance and Oversight Stopped an Illicit Transfer

As a counterintelligence guy, I would love to claim one for the team, telling you a story of how counterintelligence “caught” Jonathan Soong. The question presumes a familiar arc: a clandestine plot detected by a vigilant counterintelligence service, followed by an investigative takedown. In practice, many of the most consequential national security cases in the defense industrial base begin elsewhere. They begin in the unglamorous terrain of export controls, contractual oversight, documentation requirements, and compliance escalation. The Soong matter is best read not as a story of counterintelligence brilliance at the point of origin, but as a demonstration that a robust compliance mechanism can function as a practical counterintelligence force multiplier, surfacing deception through audit friction, verification, and internal accountability (U.S. Department of Justice 2025a).

Jonathan Yet Wing Soong worked under a University Space Research Association arrangement supporting NASA, where he helped administer licensing and distribution of U.S. Army-owned aviation and flight control software subject to U.S. export controls. Public charging and plea materials describe a pattern that is familiar to any counterintelligence professional who has studied insider-enabled technology transfer. A trusted administrator leveraged authorized access to facilitate improper export to a prohibited end user, while using misrepresentation and intermediaries to reduce detection risk and sustain the activity long enough to monetize it (U.S. Department of Justice 2022; U.S. Department of Justice 2023; U.S. Department of Commerce, Bureau of Industry and Security 2022).

Export compliance as counterintelligence by another name

In the contractor ecosystem, counterintelligence is no longer confined to investigations and briefings. It is built into controls that regulate who can access what, who can receive what, and what documentation must exist to justify a transfer. Export compliance is the legal expression of strategic technology denial. When an export compliance program is mature, it creates a perimeter of verification around controlled software, technical data, and sensitive know-how. It does this through end-user screening, licensing checks, record retention, and the expectation that representations are auditable, not merely asserted (U.S. Department of Justice 2025a).

Soong’s conduct, as publicly described, involved providing controlled U.S. Army aviation software to the Beijing University of Aeronautics and Astronautics, commonly known as Beihang University, an end-user on the U.S. Entity List. The Entity List designation matters because it transforms what might otherwise be a complicated compliance decision into a bright-line restriction: an elevated risk recipient that generally requires licensing and heightened scrutiny. In counterintelligence terms, it is a government signal that a recipient is associated with activities of concern and therefore must be treated as a strategic risk, not just a commercial counterparty (U.S. Department of Commerce, Bureau of Industry and Security 2022; U.S. Department of Justice 2022).

The decisive tripwire was oversight, not classic counterintelligence detection

The core point that the public often misses is timing. The publicly documented narrative indicates that the scheme was not halted because counterintelligence detected hostile tasking in real time. Rather, the activity began to unravel when NASA asked questions about software licensing activity involving China-based purchasers. That inquiry triggered internal examination at USRA, which then forced Soong’s process, documentation, and representations into a higher scrutiny environment (U.S. Department of Justice 2025a).

From a former operator’s perspective, that is the moment the system displayed its value. Oversight created heat. Heat compelled review. Review compelled proof. Proof created contradictions. Contradictions produced admissions and preserved evidence. That sequence is not incidental. It is the operational logic of compliance as an investigative engine. When a compliance system is designed to verify rather than merely record, it becomes difficult for an insider to sustain a cover story indefinitely.

The cover story failed under verification pressure

Public DOJ descriptions emphasize that Soong initially lied and fabricated evidence to make it appear that purchaser diligence had been conducted. In my experience, this is the most common failure mode for organizations that treat compliance as a box-checking function: insiders learn the minimum artifacts that satisfy superficial review. The Soong case illustrates what happens when counsel and compliance do not accept the first answer. DOJ accounts describe further investigation by USRA’s counsel, confrontation with contradictions, and Soong’s eventual admissions, including that he knew the end user was on the Entity List and that an export license was required (U.S. Department of Justice 2025a).

That is not just a legal detail. It is the fulcrum that turns suspicion into provable intent. Counterintelligence professionals care about intent because intent distinguishes mistake from exploitation and distinguishes weak governance from an insider who is actively enabling a strategic competitor or worse, adversarial FIS. Admissions anchored to documented contradictions are highly durable. They are not dependent on classified sources or contested analytic judgments. They are built for court cases.

Intermediaries and misdirection are a compliance evasion pattern

The public record also describes the use of an intermediary to obscure the true end user and facilitate the commercial pathway. This is a standard concealment vector. Intermediaries can be used to launder payment trails, shift transactional geography, and create plausible deniability within internal processes that rely on surface-level end-user statements. If a program relies on the integrity of a single administrator’s “screening,” the administrator becomes the control. If the administrator is compromised, the system is compromised. In this case, public materials describe intermediary involvement and a transfer pathway that, when examined, revealed the underlying restricted recipient (Department of Defense Office of Inspector General, Defense Criminal Investigative Service 2023; U.S. Department of Justice 2025a).

For counterintelligence practitioners, the lesson is straightforward: third party structures are not merely procurement conveniences. They are also tradecraft. In an export controls environment, every intermediary should be treated as a potential concealment method unless diligence is independently verifiable.

Voluntary self-disclosure converted an internal discovery into a national security case

Once internal discovery occurred, the matter moved from corporate governance to national security enforcement. DOJ’s public declination notice emphasized that USRA self disclosed export control offenses committed by its employee and cooperated, which shaped the government’s posture toward the company while leaving the individual to face prosecution (U.S. Department of Justice 2025a). That sequence is important for practitioners because it demonstrates how compliance maturity affects outcomes. Prompt internal escalation, self disclosure, and remediation can separate an organization’s institutional exposure from the conduct of a rogue insider, while also strengthening the government’s ability to build a case against the perpetrator.

DOJ also identified the investigative constellation, including Commerce export enforcement, the FBI, Defense Criminal Investigative Service, NASA Office of Inspector General, and U.S. Army elements including Army counterintelligence and investigative components. In other words, counterintelligence was present and relevant, but it was not the initial tripwire. It was part of the enforcement and investigative consolidation phase after compliance mechanisms surfaced the issue and the company disclosed it (U.S. Department of Justice 2025a; U.S. Department of Justice 2023).

Compliance “caught” the act and counterintelligence helped finish the job

If we insist on the verb “catch,” my professional assessment is that counterintelligence did not “catch” Jonathan Soong in the popular sense of the term. The decisive early detection function was performed by oversight and export compliance mechanisms. NASA’s questions triggered organizational scrutiny. Scrutiny demanded documentation. Documentation collapsed under verification. Verification produced contradictions and admissions. Those admissions and records enabled self-disclosure and a multi-agency investigation that culminated in a guilty plea. Counterintelligence contributed where it often contributes most effectively in the contractor environment: by supporting the investigative and enforcement architecture once a compliance tripwire has surfaced misconduct, and by helping translate a technical compliance failure into a national security narrative that the government can prosecute (U.S. Department of Justice 2025a; U.S. Department of Justice 2023).

This is not a criticism of counterintelligence. It is an argument for modernizing how we describe counterintelligence effectiveness. In the defense industrial base, export compliance is not adjacent to counterintelligence. Export compliance is frequently counterintelligence in operational form. When built correctly, it makes illicit transfer hard to hide, expensive to sustain, and likely to fail under audit pressure. The Soong case is the quiet proof that governance, oversight, and export controls can stop a technology transfer plot even when no one is running a classic counterintelligence operation at the beginning.

~ C. Constantin Poindexter, MA in Intelligence, Graduate Certificate in Counterintelligence, JD, CISA/NCISS OSINT certification, DoD/DoS BFFOC Certification

Bibliography

  • Department of Defense Office of Inspector General, Defense Criminal Investigative Service. 2023. “Defendant Admits Using Intermediary to Funnel Payments for United States Army Aviation Software Exported to Beihang University.” Press release, January 17, 2023.
  • U.S. Department of Commerce, Bureau of Industry and Security. 2022. “South Bay Resident Charged with Smuggling and Exporting American Aviation Technology to Beijing University.” Press release, May 26, 2022.
  • U.S. Department of Justice. 2022. “South Bay Resident Charged with Smuggling and Exporting American Aviation Technology to Beijing University.” Press release, U.S. Attorney’s Office, Northern District of California, May 26, 2022.
  • U.S. Department of Justice. 2023. “Castro Valley Resident Pleads Guilty to Illegally Exporting American Aviation Technology.” Press release, U.S. Attorney’s Office, Northern District of California, January 17, 2023.
  • U.S. Department of Justice. 2025a. “Justice Department Declines Prosecution of Company That Self Disclosed Export Control Offenses Committed by Employee.” Press release, Office of Public Affairs, April 30, 2025.

SIGNAL Secure for Intelligence Practitioners and will be for the Quantum Era

SIGNAL, intelligence, counterintelligence, spy, espionage, counterespionage, cyber security, C. Constantin Poindexter

Signal has earned its reputation in intelligence, counterintelligence, and investigative communities for a practical reason. I love it and you should too! The tool was engineered around adversarial assumptions that align with real-world asset targeting. Those assumptions include state-grade collection, cover and often illegal interception, endpoint compromise, credential theft, and long-term bulk retention for future exploitation. Signal is not conventional messaging with security added afterward. It is an integrated protocol suite for key agreement, per-message key evolution, and compromise recovery, supported by open specifications and sustained cryptographic hardening.

From an intelligence professional’s perspective, Signal is compelling because it is designed to remain resilient under partial failure. If an attacker wins a battle by capturing a key, briefly cloning a device, or recording traffic for years, Signal aims to prevent that single win from turning into durable, strategic access. This damage containment model aligns with counterintelligence priorities. Limit the blast radius, shorten adversary dwell time, and force repeated effort that increases the chance of detection.

The Double Ratchet and Per-Message Keys That Constrain Damage

At the core of Signal message confidentiality is the Double Ratchet algorithm, designed by Trevor Perrin and Moxie Marlinspike (Perrin and Marlinspike, 2025). Operationally, the Double Ratchet matters because it delivers properties that align with intelligence tradecraft realities.

Forward secrecy ensures that compromising a current key does not reveal prior message content. Adversaries routinely collect ciphertext in bulk and then hunt for a single point of decryption leverage later through device seizure, insider access, malware, or legal process. Forward secrecy frustrates that strategy by ensuring earlier captured traffic does not become a later intelligence windfall if a key is exposed at some later time (Perrin and Marlinspike, 2025).

Post-compromise security (“break-in recovery”) addresses a scenario intelligence practitioners plan for temporary device compromise. Border inspections, opportunistic theft, coercive access, or a short-lived implant can occur. The Double Ratchet includes periodic Diffie-Hellman updates that inject fresh entropy, while its symmetric ratchet derives new message keys continuously. Once the compromised window ends, later message keys become cryptographically unreachable to the attacker, provided the attacker is no longer persistently on the endpoint (Perrin and Marlinspike, 2025). This is not an exaggerated marketing claim. It is a disciplined key evolution that deprives the adversarial FIS and corporate spies of indefinite reuse of stolen key material.

Incident response logic has a new paradigm. A single brief compromise does not automatically mean permanent exposure of the entire history and future. Instead, the attacker must maintain persistence to retain visibility. That is a higher operational burden and a higher detection risk.

X3DH and PQXDH and the Move Against Harvest Now Decrypt Later

Signal historically used X3DH, Extended Triple Diffie-Hellman, for asynchronous session establishment. This is vital in mobile environments where recipients are often offline. X3DH uses long-term identity keys and signed prekeys for authentication while preserving forward secrecy and deniability properties (Marlinspike and Perrin, 2016). The strategic risk landscape shifted with the plausibility of cryptographically relevant quantum computing. The threat is not only future real-time decryption. It is harvest now/decrypt later. Bulk interception today is strategic, with the expectation that future breakthroughs, including quantum, could unlock stored traffic. Signal responded by introducing PQXDH, “Post Quantum Extended Diffie Hellman”, replacing the session setup with a hybrid construction that combines classical elliptic curve Diffie-Hellman using X25519 and a post quantum key encapsulation mechanism derived from CRYSTALS Kyber (Signal, 2024a). The operational implication is direct. An adversary would need to break both the classical and the post-quantum components to reconstruct the shared secret (Signal, 2024a).

Hybrid key establishment reflects conservative intelligence engineering. Migrate early, avoid sudden cutovers, and reduce reliance on a single new primitive. This also matters because the post-quantum component corresponds to what NIST standardized as ML KEM, derived from CRYSTALS Kyber, in FIPS 203 (NIST, 2024a; NIST, 2024b). NIST standardization does not guarantee invulnerability. It does increase confidence that the primitive has been scrutinized and is being adopted as a baseline for high assurance environments.

Signal also makes an important clarity point in its PQXDH materials. PQXDH provides post-quantum forward secrecy, while mutual authentication in the current revision remains anchored in classical assumptions (Signal, 2024b). Practitioners benefit from that precision because it defines exactly what is post-quantum today.

SPQR and Post Quantum Ratcheting for Long-Lived Operations

Session establishment is only one part of the lifecycle problem. A capable collector can record traffic for long periods. If quantum capabilities emerge later, the question becomes whether ongoing key evolution remains safe against future decryption. Signal’s introduction of the Sparse Post Quantum Ratchet, SPQR, directly addresses continuity by adding post-quantum resilience to the ratcheting mechanism itself (Signal, 2025).

SPQR extends the protocol so that not only the initial handshake but also later key updates gain quantum-resistant properties, while preserving forward secrecy and post-compromise security (Signal, 2025). For intelligence practitioners, this matters because long-lived operational relationships are common. Assets, handlers, investigative sources, and inter-team coordination can persist for months or years. A protocol that hardens only the handshake helps. A protocol that hardens ongoing rekeying is more aligned with the real adversary model of persistent collection.

Academic work has analyzed the evolution from X3DH to PQXDH in the context of Signal move toward post-quantum security and frames PQXDH as mitigation against harvest now decrypt later risk at scale (Katsumata et al., 2025). That framing fits intelligence risk management. Confidentiality is evaluated against patient, well-resourced adversaries.

Formal Analysis and Open Specifications and Why That Matters Operationally

Practitioners should be skeptical of security claims that cannot withstand external review. Signal protocol suite benefits from public specifications and sustained cryptographic scrutiny. A widely cited formal analysis models the protocol’s core security properties and examines its ratchet-based design in detail (Cohn Gordon et al., 2017). No protocol is proven secure against every real-world failure mode. Formal methods and peer-reviewed analysis reduce the chance that structural weaknesses remain hidden. Operationally, this supports reliability. When you rely on a tool for sensitive work, you evaluate whether the claims are testable, whether failure modes are documented, and whether improvements can be validated.

Metadata Constraints and Sealed Sender and the Role of Tradecraft

Message content confidentiality is only part of intelligence security. Metadata can be operationally decisive. Who communicates with whom, when, and how often can create damaging inferences. Signal Sealed Sender was designed to reduce sender information visible to the service during message delivery (Wired Staff, 2018). Research examines Sealed Sender and proposes improvements while discussing network-level metadata such as IP address exposure and the implications for anonymity tooling (Martiny et al., 2021). Additional academic work discusses traffic analysis risks that can persist in group settings even when sender identity is partially obscured (Brigham and Hopper, 2023).

The intelligence operator’s takeaway is that Signal materially improves content security and reduces certain metadata exposures. It does not eliminate the need for operational security measures. Depending on mission profile, those measures can include hardened endpoints, strict device handling, minimized identifier exposure, and network protections consistent with applicable law and policy.

Why Signal Trajectory Is Credible in the Quantum Transition

The Signal approach to the quantum transition reflects a credible engineering posture. Migrate early enough to blunt harvest now/decrypt later risk. Adopt hybrid designs to reduce reliance on one assumption. Extend post-quantum guarantees beyond the handshake into ongoing key evolution (Signal, 2024a; Signal, 2025). Alignment with NIST standardized direction for key establishment further supports long-term maintainability and ecosystem interoperability (NIST, 2024a; NIST, 2025). From an intelligence practitioner’s perspective, the central claim is not that Signal is unbreakable. The point is that Signal is engineered to constrain damage, recover after compromise, and anticipate strategic decryption threats. It is designed for a hostile environment that is moving toward post-quantum reality. I will state at the end here that Meta does not do any of this. FB messenger and WhatsApp leave gaping holes in cybersecurity as Meta’s focus is on monetization of the I.M. mechanism, not unbreakable coms. Use them at your own risk.

~ C. Constantin Poindexter, MA in Intelligence, Graduate Certificate in Counterintelligence, JD, CISA/NCISS OSINT certification, DoD/DoS BFFOC Certification

Bibliography

  • Brigham, Eric, and Nicholas Hopper. 2023. “Poster: No Safety in Numbers: Traffic Analysis of Sealed Sender Groups in Signal.” arXiv preprint.
  • Cohn Gordon, Katriel, Cas Cremers, Benjamin Dowling, Luke Garratt, and Douglas Stebila. 2017. “A Formal Security Analysis of the Signal Messaging Protocol.” Proceedings of the IEEE European Symposium on Security and Privacy.
  • Katsumata, Shota, et al. 2025. “X3DH, PQXDH to Fully Post Quantum with Deniable Ring.” Proceedings of the USENIX Security Symposium.
  • Marlinspike, Moxie, and Trevor Perrin. 2016. “The X3DH Key Agreement Protocol.” Signal Protocol Specification.
  • National Institute of Standards and Technology. 2024a. “NIST Releases First 3 Finalized Post Quantum Encryption Standards.” NIST News Release.
  • National Institute of Standards and Technology. 2024b. FIPS 203. “Module Lattice Based Key Encapsulation Mechanism Standard, ML KEM.” U.S. Department of Commerce.
  • National Institute of Standards and Technology. 2025. “Post Quantum Cryptography Standardization.” NIST Computer Security Resource Center.
  • Perrin, Trevor, and Moxie Marlinspike. 2025. “The Double Ratchet Algorithm.” Signal Protocol Specification.
  • Signal. 2024a. “Quantum Resistance and the Signal Protocol.” Signal Blog.
  • Signal. 2024b. “The PQXDH Key Agreement Protocol.” Signal Protocol Specification.
  • Signal. 2025. “Signal Protocol and Post Quantum Ratchets, SPQR.” Signal Blog.
  • Wired Staff. 2018. “Signal Has a Clever New Way to Shield Your Identity.” Wired Magazine.

The Power of OSINT: Attribution and the Identification of Oleg Smolenkov

spy, spies, intelligence, counterintelligence, counterespionage, C. Constantin Poindexter Salcedo, national security, NATSEC

The public identification of Oleg Smolenkov illustrates a contemporary counterintelligence reality, i.e., a sensitive resettled asset can be unmasked without a hostile service penetrating classified systems, without a HUMINT penetration of our services, and without a single administrative branch leak. The decisive mechanism is open-source convergence, the disciplined fusion of administrative traces, archived reporting, and behavioral cues into a coherent attribution. In this case, a non-governmental investigative newsroom and parallel OSINT collectors did not begin with a name. They began with a publicly reported event, a bounded time window, and an implied access profile. They exploited predictable transparency mechanisms in both Russia and the United States. The result was a high confidence linkage between an anonymized description of a relocated source and a specific individual, supported by cross-domain corroboration. (Bellingcat 2019; Reuters 2019a)

A counterintelligence practitioner evaluating this episode should resist the temptation to treat it as an exceptional scandal driven by personalities or politics. It is better understood as a repeatable analytic pipeline. The steps are familiar: cueing, candidate generation, plausibility testing, registry linkage, reaction validation, and signature reinforcement. Each step relies on data that appears mundane in isolation. The compromise emerges from aggregation.

The process begins with cueing. In early September 2019, major United States media described a clandestine extraction that occurred in 2017 involving a high-level Russian government source who had provided unusually sensitive insight into Kremlin and Russian policy-level decision-making. The reporting framed the extraction as protective and urgent, occurring after fears that the source’s security was at risk. Even when anonymized, those details are operationally useful to a determined investigator because they narrow the search space. The investigator obtains institutional scope, timing, and a risk narrative, which in counterintelligence terms function as selection criteria. The relevant question becomes: which Russian official with plausible access disappears from public view in the relevant period, under circumstances consistent with sudden relocation? (Time 2019; RFE RL 2019b)

Once cueing is in place, candidate generation becomes feasible. OSINT investigators queried Russian language media archives, cached pages, and secondary reporting for disappearance stories in the mid-2017 window that involved government personnel. The case benefited from pre-existing Russian reporting. Multiple outlets later described that Russian authorities had opened a criminal investigation in 2017 into the suspected murder of a missing official who disappeared during travel in Montenegro, and that the investigation was later abandoned after authorities concluded the individual was alive abroad. The Guardian reported that the online outlet Daily Storm had described that arc, including the murder probe and the eventual conclusion that the official had left Russia. (The Guardian 2019a; RFE RL 2019c) Reuters likewise reported that Kommersant identified the possible individual as Oleg Smolenkov, describing his disappearance in Montenegro in June 2017 with his wife and children, along with the evolution of the Russian investigative posture from suspected murder to an assessment that he was living abroad. (Reuters 2019a)

The OSINT collector has a candidate name and an event narrative that already fits the timing constraint. A counterintelligence practitioner will note the structural weakness revealed here. If an extraction or relocation corresponds to a conspicuous real-world absence, and if that absence triggers a foreign law enforcement process, then the foreign process itself can generate discoverable artifacts, including press interest, investigative leaks, and later retrospective reporting. Even if the foreign process is opaque, the fact pattern is often newsworthy enough to be recorded ‘somewhere’, and later rediscovered when a cueing event directs attention to it.

We now move to plausibility testing. A candidate must match the access and placement implied by the original extraction narrative. Collectors therefore, reconstruct a career trace from open sources. Reuters reported that the Kremlin confirmed that a person named Smolenkov had worked in the Russian presidential administration and had been dismissed, while disputing that he had meaningful access to President Vladimir Putin. (Reuters 2019a; Reuters 2019b) Whether or not one accepts the Kremlin’s minimization, the acknowledgement of employment is itself confirmatory for attribution purposes. This validates that the named candidate is not fictional, and places the asset inside the relevant institutional universe.

Supplementary open source synthesis connected Smolenkov to senior foreign policy structures, particularly through reporting that he had worked in the Russian embassy in Washington during a period associated with senior diplomat Yuri Ushakov and later served in roles linked to the presidential administration. Russia Matters summarized Kommersant reporting that described Smolenkov as a longtime assistant to Ushakov, which is precisely the kind of staff proximity that can produce indirect exposure to high-level deliberations without public prominence. (Russia Matters 2019) From a counterintelligence perspective, that distinction matters. A source does not need to be a cabinet-level decision maker to be strategically valuable. In many systems, staff, aides, and administrators are the connective tissue that accesses documents, schedules, and briefing flows. OSINT collectors correctly treat that staff layer as a plausible access vector.

Plausibility testing alone still does not establish that the candidate is the person relocated to the United States. The decisive linkage emerged from United States administrative records, particularly property ownership documentation. Bellingcat reported that open records showed “Oleg and Antonina Smolenkov” purchasing a home in northern Virginia in June 2018, and connected that purchase to the hypothesis that the family had been resettled under protection after leaving Russia. (Bellingcat 2019) RFE RL reporting similarly discussed public records indicating ownership of a house in Stafford County, Virginia, by Oleg and Antonina Smolenkov, and described subsequent changes consistent with attempts to reduce visibility, including the transfer of ownership into a trust. (RFE RL 2019a; RFE RL 2019b)

For a counterintelligence practitioner, this phase is the core operational lesson. The United States property recording system is designed to be durable, searchable, and transparent. A relocated human source living under a real name, or under a name that can be linked by deed chain, becomes discoverable. Even when a trust is used, the initial purchase may preserve the identity in a durable record, and later transfers can be traced. The trust can help against casual discovery, but it does not reliably defeat an investigator who already has a lead and is willing to follow the chain across databases. Even to the untrained eye, recent deeding from a Russian surname to a blind trust is a dead giveaway.

The deed stuff is important, HOWEVER, the linkage was not limited to property records in isolation. Investigators layered temporal correlation. The property purchase followed the 2017 disappearance window by roughly one year, a plausible period for relocation, debriefing, and resettlement logistics. The geographic placement, near Washington, aligns with the practical needs of ongoing handling, access to government liaison, and security support. RFE RL reporting placed the residence in a neighborhood with current and former United States government personnel, which would not be an implausible environment for a protected relocatee, but also increases the risk of attention because residents recognize unusual patterns. (RFE RL 2019a)

Attribution confidence increases through cross-side corroboration. Reuters reported that Russian state media and other Russian outlets visited or referenced the Virginia address associated with Smolenkov, and that Russian official commentary focused on disputing his access level rather than disputing his identity. (Reuters 2019b) The Guardian reported that Russian media quickly identified Smolenkov as the likely figure after the initial extraction story circulated and that earlier Russian reporting had already treated his disappearance as suspicious. (The Guardian 2019b) In counterintelligence analytic terms, this is validation by reaction. When an implicated government acknowledges employment, debates seniority, and frames narratives around access, it implicitly accepts the identity anchor, even if it contests the operational characterization.

Another reinforcing layer is signature observation, i.e., the detection of behaviors consistent with protective posturing. Bellingcat described journalists encountering indications of security presence when approaching the residence and noted that the family likely departed after the story circulated. (Bellingcat 2019) RFE RL reported that neighbors stated that the family of the identified property left abruptly soon after publicity, and that no one answered at the residence when a reporter from RFE visited. (RFE RL 2019a; RFE RL 2019b) From a practitioner’s view, these signatures are a bit ambiguous but directionally meaningful. They do not prove intelligence affiliation however, they do add coherence to the broader narrative when combined with verified administrative linkages.

The identification of Smolenkov can be described as an open-source attribution chain with mutually reinforcing elements. The chain begins with an anonymized description of an extracted asset, which supplies a time-bound and an access profile. It then leverages a pre-existing disappearance narrative in Russian reporting that matches the window. It validates institutional plausibility through official acknowledgement of employment and through open source reconstruction of staff level proximity to senior policy structures. It then bridges the gap from Russia to the United States by locating the same names in property records, supported by temporal correlation and geographic plausibility. Finally, attribution through adversary reaction and observable protective signatures after publicity adds stability to the former. Each element could be dismissed alone, but in totality of the circumstances they provide a high probability attribution that is operationally sufficient for pretty damn reliable public identification. (Bellingcat 2019; Reuters 2019a; RFE RL 2019b)

The counterintelligence implications are clear. A protective extraction does not end an operational dilemma. It begins a new phase in which the threat is not hostile surveillance alone but also open-source exploitation. Transparency regimes create predictable exposure surfaces. Registers of deeds and county recorders, tax collectors, court records, licensing agencies, and corporate filing records are not intelligence sources, but they are an extremely searchable source of structured and more than reasonably accurate data. C.I. measures or countermeasures applied after asset resettlement (such as transferring property into a trust) reduce opportunistic discovery after the fact but will fail against an OSINT collector that already possesses a starting point. Also, cueing can be powerfully exploited. Public narratives about timing and sensitivity can provide sufficient structure for a collector to find pre-existing anomalies and connect them to these domestic records.

The Smolenkov resettlement demonstrates that our source protection doctrine must be extended beyond traditional clandestine concerns. It must incorporate administrative footprint management, name and identity compartmentation, and a realistic appreciation of how quickly digital records can be correlated across jurisdictions, in real-time and remotely. This case CANNOT be viewed as an isolated breach. It really is a warning about the baseline capabilities of OSINT. Oh, and a parting shot from a former C.I. guy, don’t put properties that are deeded to Russian surnames into trusts that are filed publicly.

~ C. Constantin Poindexter, MA in Intelligence, Graduate Certificate in Counterintelligence, JD, CISA/NCISS OSINT certification, DoD/DoS BFFOC Certification

Bibliography

  • Bellingcat. 2019. “Murdered in Montenegro, or Living in Suburban Virginia? Unraveling the 2017 American Spy Story.” September 10, 2019.
  • Radio Free Europe Radio Liberty. 2019a. “Virginia Residents Question Whether Their Neighbor Was a Russian Informant.” September 10, 2019.
  • Radio Free Europe Radio Liberty. 2019b. “Russia Seeking Interpol’s Help on Location of Alleged CIA Informant.” September 12, 2019.
  • Radio Free Europe Radio Liberty. 2019c. “Paper Reports ‘Details’ of Alleged CIA Informer’s Disappearance in Montenegro.” September 12, 2019.
  • Reuters. 2019a. “Kremlin Says Alleged U.S. Spy Did Not Have Access to Putin.” September 10, 2019.
  • Reuters. 2019b. “Russia Blasts Idea a CIA Mole Lifted Lid on Its U.S. Meddling.” September 11, 2019.
  • Russia Matters. 2019. “Russia in Review, Sept. 6 to 13, 2019.” September 2019.
  • The Guardian. 2019a. “Russia Investigated Disappearance of Suspected US Spy as Possible Murder.” September 10, 2019.
  • The Guardian. 2019b. “Oleg Smolenkov: Alleged US Spy Who Gave Russia the Slip.” September 14, 2019.
  • Time. 2019. “The U.S. Reportedly Extracted a High Level Spy From Russia in 2017 Amid Concerns of Mishandled Intelligence.” September 10, 2019.

AI-Orchestrated Chinese Cyber Espionage, Counterintelligence Professional’s View

intelligence, counterintelligence, espionage, counterespionage, a.i., artificial intelligence, cyber operations, cyber-espionage, chinese APT, C. Constantin Poindexter

The GTG-1002 operation reported by Anthropic and reported by Nury Turkel in The Wall Street Journal (“The First Large-Scale Cyberattack by AI“) is not just another less-than-noteworthy Chinese cyber campaign. It is a counterintelligence (CI) inflection point, the proverbial crossing of the Rubicon. In this case, a Chinese state-sponsored threat group manipulated Anthropic’s Claude Code into acting as an autonomous cyber operator that conducted eighty to ninety percent of the intrusion lifecycle, from reconnaissance to data exfiltration, against about thirty high-value targets. Those victims include major technology firms and government entities (Anthropic 2025a; Turkel 2025). From a C.I. and counterespionage perspective, this is the moment where artificial intelligence stops being merely an analyst’s tool and becomes an adversary’s “officer in the field.”

I am going to take a C.I. guy’s view here and offer my thoughts about the counterintelligence ramifications of this, and more specifically how AI-orchestrated espionage changes the threat surface, disrupts traditional CI tradecraft, and forces democratic states to redesign CI doctrine, authorities, and technical defenses. It situates GTG-1002 within a broader pattern of Chinese cyber espionage and AI-enabled operations. I think that you will agree with me after reading a bit here that an AI-literate counterintelligence enterprise is now a strategic necessity.

GTG-1002 as a Case Study in AI-Enabled Espionage

Anthropic’s public report “assesses with high confidence” that GTG-1002 is a Chinese state-sponsored actor that repurposed Claude Code as an “agentic” cyber operator (Anthropic 2025a). Under the cover story of legitimate penetration testing, AI was instructed to map internal networks, identify high-value assets, harvest credentials, exfiltrate data, and summarize takeaways for human operators, who then made strategic decisions (Turkel 2025). The campaign targeted organizations across technology, finance, chemicals, and government sectors, with several successful intrusions validated (Anthropic 2025a). This incident must be understood in the context of Beijing’s long-standing cyber-espionage posture. U.S. government and independent assessments have repeatedly documented the sophistication and persistence of People’s Republic of China (PRC) state-sponsored cyber actors targeting critical infrastructure, defense industrial base entities, and political institutions (USCC 2022; CISA 2025). GTG-1002 does not represent a shift in Chinese strategic intent. It evidences a dangerous new means, automation of the cyber kill chain by a large language model (LLM) with minimal human supervision. In essence, AI isn’t helping an operator press the trigger, . . . AI is.

From a CI standpoint, GTG-1002 is the first verified instance of an LLM acting as the primary intrusion operator rather than as a mere “helper,” in a state-backed offensive cyber operation. This development validates years of warnings from both academic and policy analysts about AI-assisted and AI-driven cyber penetrations (Rosli 2025; Louise 2025). It confirms that frontier models can be harnessed as operational tools for intelligence collection at scale.

Compression of the Intelligence Cycle and the Detection Window

Traditional cyber-collection operations require sizable teams of operators and analysts executing reconnaissance, initial access, lateral movement, and exfiltration over days or weeks. GTG-1002 shows that AI agents can compress this cycle dramatically by chaining tools, iterating code, and self-documenting tradecraft at machine speed (Anthropic 2025a; Anthropic 2025b). For CI services, this compression has several consequences.

The indications and warning window shrinks. Behavioral indicators that CI analysts and security operations centers have historically depended on, i.e., repeated probing, extended lateral movement, or noisy privilege escalation, are now condensed, obfuscated, and/or automated. Autonomous AI agents can escalate privileges, pivot and exfiltrate in minutes, leaving a smaller digital “dwell time” during which CI can detect and attribute activity (Microsoft 2025).

Exploitation and triage become automated. GTG-1002 reportedly used Claude not only to steal data but also to summarize and prioritize it, effectively performing first-level intelligence analysis (Anthropic 2025a). This accelerates an adversary’s analytic cycle. AI can sort, cluster, and highlight sensitive documents faster than human analysts. The time between compromise and exploitation shrinks, diminishing the value of “late” discovery and complicating post-hoc damage assessments, two extremely important CI activities.

AI turns complexity into volume. Academic and industry analyses have already identified AI as a “threat multiplier”, enabling less capable actors to mount sophisticated, multi-stage operations (Rosli 2025; Armis 2025). State-backed operations can hide in the flood of AI-assisted criminal, hacktivist, and proxy activity, creating a signal-to-noise problem for CI triage and attribution.

In simple summary, AI collapses the temporal advantage that defenders once had to notice patterns in network behavior. Counterintelligence must pivot from retrospective forensic analysis toward continuous, AI-assisted anomaly detection and behavioral analytics.

AI Systems as Both Collector and High-Value Intelligence Target

GTG-1002 dramatizes a dual reality that Turkel highlights. China is “spying with AI and spying on American AI” (Turkel 2025). The same models used to conduct intrusions are themselves prized intelligence targets. Chinese entities have already been implicated in efforts to acquire Western AI model weights, training data, and associated know-how, as part of a broader technology-transfer strategy (USCC 2022; Google Threat Intelligence 2025). For THIS CI guy, AI labs are now the Cold War aerospace or cryptographic contractors. Model weights and training corpora become the “crown jewels”. Theft and reverse engineering/replication of frontier models will give adversaries economic advantage and more gravely, insight into how Western defensive systems behave. Anthropic itself notes that real-world misuse attempts feed into adversaries’ understanding of model weaknesses and safety bypasses (Anthropic 2025b).

The supply chain and insider threat picture changes. AI providers depend on global supply chains, open-source libraries, and large pools of contractors and researchers. This distributed ecosystem creates attack surfaces for foreign intelligence services. Code contributions, model-training infrastructure, and prompt logs can all be targeted. CI-focused analysis from the security and legal communities has argued that the AI ecosystem, i.e., researchers, hardware vendors, and cloud providers, must be treated as CI-relevant nodes, not as purely commercial actors (Lawfare Institute 2018; Carter et al. 2025).

Collecting on the collectors is not a new tactic but AI puts it on steroids. Collection on red-teaming and controls/safeguards themselves have become a priority. Access to internal red-team reports, internal controls and safety evaluations are extraordinarily valuable to an adversary seeking to jailbreak or subvert models. Counterintelligence coverage must extend not only to model weights but also to the meta-knowledge of how those models fail, and how that knowledge might be of adversarial interest.

In brief, AI firms are part of the national security base. CI organizations will need to authorize enhanced resources, assign dedicated case officers, establish formal reporting channels, and integrate these enterprises into national threat-sharing architectures in a way analogous to defense contractors and telecommunications providers (Carter et al. 2025).

Deception, Hallucination, and Counterespionage Tradecraft

Anthropic’s report and Turkel’s article both highlight a critical limitation of AI-orchestrated espionage. Claude frequently hallucinated, overstating findings or fabricating credentials and “discoveries” (Anthropic 2025a; Turkel 2025). From a counterespionage perspective, this is not simply a technical bug. It is a potential vector for deception. If adversary services increasingly rely on AI agents for reconnaissance and triage, then controlled-environment deception becomes more attractive. CI and cyber defense teams can seed networks with synthetic, high-entropic data and decoy credentials designed to attract and mislead AI agents. Because large models are prone to pattern-completion and over-generalization, they may “see” classified goodies and valuables where a skilled human operator would sense something is simply not right.

Algorithmic counterdeception becomes feasible. The academic literature on AI in cyber espionage emphasizes that overreliance on automated tools can degrade situational awareness and strategic judgment inside hostile services (Rosli 2025; Louise 2025). CI planners can exploit this by orchestrating digital environments that feed AI agents ambiguous, contradictory, or subtly poisoned data. This increases the probability that adversary leadership acts on flawed intelligence.

GTG-1002 demonstrates that adversaries (at the very least China) are already skilled at their deception of AI. Chinese FIS successfully social-engineered Claude’s safety systems by impersonating legitimate cybersecurity professionals performing authorized pen-testing (Anthropic 2025a). What then is the appropriate CI requirement? Counter-social-engineering of our own models. Guardrails must be resilient not just to obviously malicious prompts but to sophisticated role-playing that mimics presumibly friendly actors, including penetration testers, red teams, and internal security staff.

Blurring Lines Between Cyber CI, Influence Operations, and HUMINT Targeting

Major technology and threat reports document how Russia, China, Iran, and North Korea are using AI to scale disinformation, impersonate officials, and refine spearphishing campaigns (Microsoft 2025; Google Threat Intelligence 2025). For CI professionals, this convergence of AI-enabled cyber intrusion and influence operations erodes traditional boundaries between cyber CI (identifying and disrupting technical collection), defensive HUMINT (protecting human sources and employees), and counter-influence (disrupting foreign information operations).

AI systems can now generate tailored phishing content, deepfake personas, and synthetic social media and professional-network profiles at scale, all of which feed into reconnaissance and targeting pipelines for state security services (FBI 2021; Microsoft 2025). GTG-1002 focused primarily on technical collection, but the same infrastructure could coordinate cyber intrusions with human targeting. Using stolen email archives to identify vulnerable insiders, then tasking LLMs to draft recruitment approaches comes immediately to mind.

Counterintelligence must integrate AI forensics, digital forensics, and behavioral analytics into a single tradecraft paradigm and practice. Monitoring “pattern of life” indicators like off-hours access, unusual lateral movement, and anomalous data pulls must be enhanced by AI-driven analysis of communication patterns, foreign contact indicators, and anomalous financial or travel behavior. There are good suggestions about best practices in emerging CI guidance on AI-enabled insider-threat detection (Carter et al. 2025; CISA 2025).

Doctrine, Authorities, and Information-Sharing at Machine Speed

The GTG-1002 incident exposes a serious structural challenge. CI and cyber defense architectures are optimized for human-paced operations and workflows that, speaking kindly, are bureaucratic. To its credit, Anthropic engaged with U.S. I.C. agencies quickly and publicly disclosed the attack, but Turkel argues that AI incidents need near-real-time disclosure and coordinated response (Turkel 2025). This aligns with broader policy analyses calling for mandatory reporting of AI misuse, coupled with safe-harbor protections, within seventy-two hours or less (Carter et al. 2025). That is a good step, but not fast enough. The horse is out of the barn and gone by the seventy-two hour mark. So, the implication here is that threat intelligence sharing must become significantly machine-to-machine. If attacks unfold at machine speed, then signature updates, behavioral indicators, and model-abuse patterns must be distributed via automated channels across sectors in minutes and hours, not days or weeks (Microsoft 2025). All players will have to agree to and implement standardized formats for sharing AI jailbreak patterns, malicious prompt signatures, and indicators of AI-driven lateral movement.

Legal authorities must evolve. Existing CI and surveillance authorities were not drafted with AI agents in mind. When an AI agent controlled by a foreign intelligence service (FIS) is operating inside a U.S. cloud environment, what legal framework governs monitoring, interdiction, and even proportional response? Analyses of AI and state-sponsored cyber espionage reveal that international and domestic legal regimes lag the technology, creating gray zones that adversaries can exploit (Louise 2025; Lawfare Institute 2018).

Secure-by-design requirements for AI providers must become part of the regulatory baseline. Anthropic’s own transparency documents argue that future models must incorporate identity verification, real-time abuse monitoring, and robust safeguards against social-engineering prompts (Anthropic 2025b). From a CI perspective, such measures are not optional “best practices” but core elements of both commercial resilience and national security.

An AI-Literate Counterintelligence Enterprise

The GTG-1002 campaign exposes an ugly asymmetry. Adversarial FISs are already operationalizing AI as a collection platform and to conduct other cyber operations, both offensive and defensive. CI organizations in the U.S. and similarly democratic regimes are only beginning to adopt AI as an analytic aid. We are behind, yet there is hope. There is nothing inherent about AI that favors offense over defense. We simply need to move faster.

Public reporting from the FBI and other agencies highlights how AI can be used to process imagery, triage voice samples, and comb through large datasets to identify anomalous behavior and potential national security threats more quickly (FBI 2021; CISA 2025). In counterintelligence, AI can flag unusual access patterns suggestive of AI-driven intrusions, detect insider-threat indicators earlier by correlating technical, financial, and behavioral data. The model can effectively assist analysts in mapping adversary infrastructure and correlating tactics, techniques, and procedures across campaigns, as well as support automated red-teaming of in-house models to identify vulnerabilities before adversaries do (Carter et al. 2025; Microsoft 2025). To get there, CI practitioners must become AI-literate operators. Recruiting and training officers who understand model architectures, jailbreak techniques, and prompt-injection attacks as well as a depth and breadth of traditional HUMINT tradecraft knowledge. It also means integrating data scientists and AI engineers into counterintelligence units, ensuring that insights about model misuse flow directly into counterespionage planning and operational security.

Counterespionage in the Age of Autonomous Offense

GTG-1002 is to AI what the first internet worm or the earliest ransomware campaigns were to traditional cybersecurity, albeit a bit more serious. AI-conducted activity by adversary FIS is a warning shot that the paradigm has shifted. A Chinese state-linked actor leveraged a Western frontier model to execute the majority of an espionage operation autonomously, at scale, using mostly open-source tools (Anthropic 2025a; Turkel 2025). Just ponder that for a moment. The counterintelligence ramifications are frightening. The intelligence cycle is compressed. The defender’s window for detection and countermeasures is shrinking. AI systems are simultaneously espionage platforms and priority intelligence targets, demanding full CI coverage. Hallucination and automation create new opportunities for both adversary deception and defender counter-deception. Cyber intrusions, influence operations, and human targeting are converging in AI-enabled world of lightning-fast channels. Existing CI doctrines, authorities, and information-sharing practices are too slow and too fragmented for machine-speed conflict.

If democratic states treat AI misuse as a niche cyber issue, we are ceding the initiative to adversaries who understand AI as an intelligence and counterintelligence weapon system. The appropriate response is immediate professionalization, building an AI-literate counterintelligence enterprise, imposing secure-by-design obligations on AI providers, and creating real-time, automated mechanisms to de-silo and distribute threat intelligence across government and critical industries. GTG-1002 clearly demonstrates that hostile FISs are already leveraging an AI offensive capability. Counterintelligence must not be left behind. I am not suggesting that we mirror the PRC’s behavior, but rather that pertinent Intelligence Community, national security and industry partners integrate AI into a rules-bound, rights-respecting CI framework capable of defending our open societies against autonomous offensive operations.

~ C. Constantin Poindexter, MA in Intelligence, Graduate Certificate in Counterintelligence, JD, CISA/NCISS OSINT certification, DoD/DoS BFFOC Certification

References

  • Anthropic. 2025a. Disrupting the First Reported AI-Orchestrated Cyber-Espionage Campaign. San Francisco: Anthropic.
  • Anthropic. 2025b. “Claude Transparency and Safety: Model System Card.” San Francisco: Anthropic.
  • Armis. 2025. China’s AI Surge: A New Front in Cyber Warfare. Armis Threat Research Report.
  • Carter, William, et al. 2025. “Integrating Artificial Intelligence into Counterintelligence Practice.” Arlington, VA: Center for Development of Security Excellence.
  • CISA (Cybersecurity and Infrastructure Security Agency). 2025. “Countering Chinese State-Sponsored Actors Compromising Global Networks.” Cybersecurity Advisory AA25-239A. Washington, DC: U.S. Department of Homeland Security.
  • FBI (Federal Bureau of Investigation). 2021. “Artificial Intelligence – Emerging and Advanced Technology: AI.” Washington, DC: U.S. Department of Justice.
  • Google Threat Intelligence. 2025. “Adversarial Misuse of Generative AI: Threats and Mitigations.” Mountain View, CA: Google.
  • Lawfare Institute. 2018. “Artificial Intelligence—A Counterintelligence Perspective.” Lawfare (blog), November 2018.
  • Louise, Laura. 2025. “Artificial Intelligence and State-Sponsored Cyber Espionage: The Growing Threat of AI-Enhanced Hacking and Global Security Implications.” NYU Journal of Intellectual Property and Entertainment Law 14 (2).
  • Microsoft. 2025. Digital Threats Report 2025. Redmond, WA: Microsoft.
  • Rosli, Wan Rohani Wan. 2025. “The Deployment of Artificial Intelligence in Cyber Espionage.” AI and Ethics 5 (1): 1–18.
  • Turkel, Nury. 2025. “The First Large-Scale Cyberattack by AI.” Wall Street Journal, November 23, 2025.
  • USCC (U.S.–China Economic and Security Review Commission). 2022. “China’s Cyber Capabilities: Warfare, Espionage, and Implications for the United States.” Washington, DC: USCC.

Strengthening Counterintelligence Training for Diplomats

Strengthening Counterintelligence Training for Diplomats, diplomacy, intelligence, counterintelligence, espionage, counterespionage, national security, C. Constantin Poindexter

The exposure of U.S. diplomats, both stateside and abroad, to recruitment, SIGINT/COMINT targeting, and the loss or compromise of portable computing devices (PCDs) is not accidental. It is a cumulative effect of structural neglect, cultural underinvestment, and the evolving threat environment. Three converging dynamics have produced this vulnerability: institutional bifurcation between diplomatic and intelligence missions; budgetary and educational neglect of counterintelligence (CI) training for non-intelligence personnel; and the rapid digital transformation of diplomatic operations without commensurate adaptation of tradecraft.

Institutional bifurcation is the result of the long-standing separation between the U.S. Foreign Service and the intelligence and security community. Diplomatic officers have historically focused on political, economic, consular, and public diplomacy missions, while security concerns were delegated to Diplomatic Security (DSS) or local host-nation security services. Counterintelligence responsibilities were largely retained within the FBI, CIA, and military intelligence organizations, creating operational silos. This division left diplomats outside the formal CI ecosystem, meaning they rarely received advanced training or actionable threat intelligence. As a result, many Foreign Service Officers (FSOs) still approach their duties as political envoys rather than as personnel operating within an adversarial intelligence battlespace.

Budgetary and educational neglect compound this problem. For decades, the Department of State has allocated limited funding for counterintelligence instruction. Beyond basic “insider threat” briefings or annual cybersecurity refreshers, diplomats often receive little exposure to advanced CI concepts or adversary recruitment methodologies. As reported by ClearanceJobs (McNeil, 2025), many diplomatic personnel deploy to high-threat assignments with minimal training in recognizing or resisting foreign intelligence approaches. The lack of sustained CI education and awareness initiatives at the Foreign Service Institute (FSI) has produced an environment where diplomats are ill-equipped to recognize subtle recruitment tactics or electronic targeting.

The digitalization of diplomacy is a serious vulnerability. Over the past two decades, U.S. embassies and consulates have become highly dependent on portable computing, mobile devices, remote communications, and cloud-based data exchange. While these tools increase efficiency, they have also expanded the attack surface for adversaries. Foreign intelligence services (FIS) now target diplomats as entry points into the U.S. government’s global communications infrastructure. These adversaries exploit unsecured networks, intercept wireless signals, implant malware on devices, and even conduct theft of laptops and external drives. As technology has evolved, diplomatic tradecraft has failed to keep pace. The convenience of connectivity has outstripped the discipline of security.

This weakness is illustrated by several notable cases of espionage and digital compromise involving U.S. diplomatic personnel. The case of Steven John Lalas, a U.S. State Department communications officer stationed in Athens during the early 1990s, is instructive. Lalas provided classified diplomatic and military documents to Greek intelligence over several years before being caught and sentenced to 14 years in prison (Wikipedia, n.d.). He exploited his communications role to access classified cables and Defense Department assessments, which he illicitly removed and passed to a foreign government. Lalas’s case demonstrates that diplomats and communications officers, though not traditional intelligence operators, are prime recruitment targets because of their privileged access to sensitive material. His actions exposed structural vulnerabilities in both vetting and insider threat detection within the State Department’s overseas missions.

The Walter Kendall Myers betrayal is another. They spied for Cuba over nearly three decades. Myers, a senior State Department official and FSI instructor, used his position to obtain and share classified information with the Cuban Intelligence Directorate (Wikipedia, n.d.). The Myers case was not about hacking or physical theft but rather ideological recruitment and sustained insider espionage. Myers was approached gradually, courted ideologically, and ultimately compromised. This illustrates that diplomats whose careers often involve long foreign postings, personal networks abroad, and cultural immersion are highly susceptible to long-term cultivation by FIS recruiters. The absence of continuous CI vetting or behavioral monitoring allowed this penetration to persist for decades.

A third example identifies the theft and exploitation of portable computing devices. The FBI’s “Operation Ghost Stories,” which dismantled a Russian “illegals” network in 2010, revealed how laptops and wireless devices were central to espionage operations (FBI, n.d.). One seized laptop was used to establish covert wireless communications between Russian agents and their handlers. Similarly, numerous reported attempts have been made by foreign actors to steal or implant malware on the personal computers of Western diplomats. These incidents highlight that PCDs are not simply administrative tools but intelligence assets. When lost, stolen, or compromised, they can reveal network structures, contacts, and classified reporting, making them a modern equivalent of the “diplomatic pouch.” The War on the Rocks (2025) analysis of Russian espionage tactics confirms that FIS now combine human recruitment, cyber intrusion, and physical theft in hybrid collection campaigns against Western diplomatic targets.

The convergence of these human and technical vulnerabilities demands a fundamental modernization of CI training for diplomats. Primarily, diplomats MUST be required to receive foundational counterintelligence education. This training should move beyond theoretical awareness and immerse personnel in adversary recruitment tradecraft, SIGINT and COMINT methodologies, and recent case studies. Red-team simulations should require participants to role-play both target and recruiter to internalize how adversaries identify, approach, and manipulate their victims. A diplomat who can think like an adversary is far more likely to resist one.

Equally important, counter-recruitment instruction should emphasize behavioral recognition. Diplomats must learn to identify “soft pitch” recruitment methods, i.e., academic or journalistic overtures, social invitations, social media engagement, or mutual professional interests that can evolve into intelligence targeting. Diplomats must be taught how to perceive, disengage (politely, to preserve the possibility of a double operation), document, and report these encounters through secure channels without fear of reprisal. Continuous CI liaison support at missions abroad would reinforce these practices and ensure rapid response when suspicious approaches occur.

Secure digital and communications hygiene curriculum must be significantly expanded. Every diplomat should be trained in hardware hardening (full-disk encryption, TPM binding, BIOS passwording), media control (banning unvetted USB devices), secure networking (VPNs with endpoint authentication, regular rekeying), and immediate reporting of anomalies (device overheating, unauthorized processes, or loss). Training should include hands-on exercises where diplomats detect and mitigate simulated phishing or device compromise attempts. Embassies should maintain secure drop boxes and Faraday enclosures for potentially compromised devices until forensically examined.

Diplomats must be educated in SIGINT and COMINT awareness. This includes understanding how their electronic emissions can betray movements or discussions, recognizing signs of interception, and maintaining operational discipline in communications. Routine practices such as using shielded rooms for sensitive discussions, approved VPN use, disabling wireless and Bluetooth in secure areas, and maintaining strict clean-desk policies must become ingrained habits. Discipline transforms CI awareness from abstract instruction into practical daily behavior!

Counterintelligence training should incorporate recurring red-team exercises and after-action debriefs. Annual or semi-annual drills simulating recruitment, device loss, or cyber intrusion should be mandatory for all missions. These exercises not only test individual readiness but reveal systemic vulnerabilities such as inconsistent incident reporting or inadequate technical countermeasures. Lessons learned should feed back into State Department CI doctrine.

Structural and organizational reforms are equally important. The Department of State should embed a permanent counterintelligence officer or liaison from the FBI or CIA within every high-risk embassy. This officer would coordinate with the Regional Security Officer (RSO) and oversee local threat assessments, device inspections, and behavioral analysis. Additionally, all diplomats deploying to critical posts should achieve baseline CI certification, validated by written and practical exams similar to those required for intelligence personnel. This “best practices” certification should be renewed periodically and linked to promotion eligibility, reinforcing accountability.

Embassies should also implement periodic red-team audits, with technical and human testing designed to measure CI compliance and readiness. Device procurement and turnover policies must ensure secure supply chains, with forensic validation of new equipment and timely retirement of old hardware. The integration of artificial intelligence-based monitoring could further assist in detecting anomalies or exfiltration attempts across the diplomatic network.

The culture of self-reporting must be reformed. Diplomats often hesitate to report suspicious incidents for fear of professional repercussions. A no-fault reporting model paired with protective anonymity and positive reinforcement will encourage early detection of targeting attempts. CI professionals know that “near-miss” reporting is a critical tool. Diplomats and their staff members must internalize the same principle.

The exposure of U.S. diplomats to recruitment, signals interception, and device compromise is thus not merely a technical vulnerability. It is a clear cultural and institutional weakness. The cases of Lalas and Myers show that ideological or opportunistic recruitment remains a persistent threat, while modern espionage operations like those exposed in Operation Ghost Stories demonstrate that digital compromise is now equally dangerous. A robust counterintelligence program for diplomats must cultivate a mindset of constant adversarial awareness, blending human and technical security disciplines into the fabric of diplomacy itself. By embedding CI at every level of diplomatic training and operations, the United States can begin to close one of its most consequential vulnerabilities in the global intelligence contest AND contribute in a meaningful way to both defensive and offensive counterintelligence operations.

~ C. Constantin Poindexter, MA in Intelligence, Graduate Certificate in Counterintelligence, JD, CISA/NCISS OSINT certification, DoD/DoS BFFOC Certification

References

FBI. (n.d.). Laptop from Operation Ghost Stories. Retrieved from https://www.fbi.gov/history/artifacts/laptop-from-operation-ghost-stories

McNeil, S. (2025, October 9). Modernizing CI training for diplomats: New legislation aims to sharpen the shield abroad. ClearanceJobs. Retrieved from https://news.clearancejobs.com/2025/10/09/modernizing-ci-training-for-diplomats-new-legislation-aims-to-sharpen-the-shield-abroad-2/

War on the Rocks. (2025, April 8). Putin’s spies for hire: What the U.K.’s biggest espionage trial revealed about Kremlin tactics in wartime Europe. Retrieved from https://warontherocks.com/2025/04/putins-spies-for-hire-what-the-u-k-s-biggest-espionage-trial-revealed-about-kremlin-tactics-in-wartime-europe/

Wikipedia contributors. (n.d.). Kendall Myers. In Wikipedia. Retrieved from https://en.wikipedia.org/wiki/Kendall_Myers

Wikipedia contributors. (n.d.). Steven John Lalas. In Wikipedia. Retrieved from https://en.wikipedia.org/wiki/Steven_John_Lalas

The Collapse of CIA Clandestine Communications: The Hidden “X” Factor

COVCOM, espionage, counterespionage, intelligence, counterintelligence, spy, C. Constantin Poindexter, CIA, NSA

For those that haven’t picked up a copy of Tim Weiner’s new book, The Mission (a great read), the author briefly writes about an unidentified “X Factor”, that together with loose tradecraft and the betrayal of Jerry Chun Shing Lee, explain the breach of an Agency clandestine communications platform (COVCOM) used to receive production from intelligence assets. The X Factor is no longer (at least in part) as secret. Between 2010 and 2012 the Central Intelligence Agency (CIA) suffered one of the most devastating counterintelligence failures of the post–Cold War era. Dozens of agency assets operating in China and elsewhere were rolled up, captured and/or killed, and multiple communication networks nullified. The official explanations that later emerged pointed to three contributing factors: that the COVCOM platform itself was insufficiently secure; that former officer Jerry Chun Shing Lee betrayed key operational information to Chinese intelligence; and an unknown “X-factor” that the CIA believed must have played a role. Analysts have since argued that this third factor was neither a single human source nor a cryptographic failure, but rather a systemic and architectural vulnerability The discoverability of CIA communication websites through pattern matching, fingerprinting, and open-source enumeration.

The known facts support this interpretation. Following the collapse, U.S. intelligence undertook a joint CIA-FBI inquiry to determine why an ostensibly hardened system had failed so catastrophically. The COVCOM platform, an encrypted web-based communication system that relied on innocuous-looking websites as cutouts between field assets and handlers, had been in use globally for the better part of a decade. Its purpose was to provide secure asynchronous communication without the need for physical meetings. By 2010, Chinese counterintelligence had begun identifying CIA agents and rolling up networks with alarming precision (U.S. Department of Justice, 2019). Lee’s espionage, which began around this time, appears to have enabled part of this exposure. He was found in possession of notebooks containing detailed operational notes, true names, and meeting locations for agents. His recruitment by the Chinese Ministry of State Security (MSS) represented an enormous breach (Security Boulevard, 2018). Lee’s betrayal alone did not explain the speed, geographic reach, or technical precision of the counterintelligence response. The COVCOM system in China was considered more robust than versions deployed elsewhere, and yet it collapsed far more completely, suggesting that an additional vector was in play (Central Intelligence Agency, 2021).

That missing vector has increasingly come into focus due to subsequent forensic research. In 2022, Citizen Lab at the University of Toronto released a public technical statement analyzing a defunct CIA covert communications network, reconstructing its infrastructure from archival data (Citizen Lab, 2022). The researchers identified at least 885 separate websites that had served as cutouts in the system, many masquerading as ordinary blogs or news portals. These domains were hosted across multiple countries and written in more than twenty-seven languages, demonstrating the global scale of the network (Overt Defense, 2022). Most importantly, the study revealed that the sites shared recurring technical fingerprints: identical JavaScript, Flash, and Common Gateway Interface (CGI) code snippets, sequential IP address allocations, and domain registrations under apparently fictitious U.S. shell companies. These patterns were visible not only to intelligence professionals but to any moderately skilled analyst using open-source tools such as Google search operators or historical DNS datasets.

The Citizen Lab researchers demonstrated that once a single website in the network became known, either through insider compromise or accidental exposure, the rest could be discovered through automated pattern matching. For example, the shared scripts and templates created a unique digital “signature” that could be queried across the web. Similarly, because many sites were hosted within contiguous IP address blocks, an adversary could perform network scans to find adjacent servers. In one striking observation, Citizen Lab noted that a “motivated amateur sleuth” could likely have mapped the entire network from a single known site using only public data sources (Citizen Lab, 2022, p. 3). In other words, once one covert node was compromised, the architecture itself facilitated the discovery of the rest—a catastrophic violation of compartmentation, the cardinal rule of clandestine operations. This structural discoverability provides a compelling explanation for the “X-factor.” If Chinese or Iranian counterintelligence services were able to recognize one of these front sites—perhaps through Lee’s betrayal or through network monitoring—they could easily expand their search to enumerate the rest. Once identified, those sites could be monitored for traffic patterns, IP logs, or metadata, revealing the physical locations or operational rhythms of field agents. The result would be precisely the kind of rapid and geographically broad collapse observed between 2010 and 2012.

Several attributes make this explanation plausible to high confidence standard. It accounts for the disproportionate collapse relative to the technical strength of the platform. A simple encryption or authentication flaw would have yielded isolated compromises, not systemic exposure. It explains the extraordinary speed of network destruction. Insider betrayal might expose a limited number of assets, but large-scale enumeration allows adversaries to map entire networks in days or weeks. It also aligns with reports that CIA stations were initially unaware of how deeply the system had been penetrated; because the exposure derived from web-level pattern analysis rather than cryptographic decryption, it left few immediate forensic traces (Risen, 2018).

The architecture’s discoverability illustrates a subtle but fundamental shift in dynamics in the digital era, especially for counterintelligence. During the Cold War, clandestine communications were localized and analog, i.e., dead drops, shortwave bursts, or one-time pads, etc., that required significant human action/interaction to intercept. By contrast, digital covert systems even when encrypted, exist within the globally indexed infrastructure of the Internet. Any reuse of code, hosting, or metadata creates a fingerprint that can be detected through open-source intelligence (OSINT) techniques. The “X-factor” was pretty clearly less an unknown human leak than a manifestation of the new technological environment. The Agency had built a secret system inside a public network and underestimated the degree to which its digital seams could be analyzed by adversarial FIS.

The forensic model resolves apparent contradictions in early assessments. CIA officials believed the COVCOM used in China was “more robust” than those in other theaters, implying stronger encryption, better authentication and other tradecraft goodies (CIA Inspector General, 2017). Nonetheless, it collapsed thoroughly. The pattern-matching explanation shows why robustness in cryptography could coexist with fragility in topology. The system’s security depended not only on code strength but also on architectural compartmentation. The Agency’s reuse of templates, hosting blocks, and design elements was weak tradecraft. It undermined that compartmentation and created a single attack surface.

It is important to recognize that the web-discoverability hypothesis complements rather than replaces the other two causes. Lee’s betrayal and intrinsic platform weaknesses likely provided the initial penetration points that allowed adversaries to begin to dig. The enumeration process then magnified those breaches exponentially. The CIA has not publicly confirmed this reconstruction, understandably. Nonetheless, independent open-source evidence strongly supports the inference that the network’s design flaws were decisive.

The lessons extend beyond one agency or episode. The COVCOM failure demonstrates how operational hygiene in digital clandestine systems is as critical as cryptographic soundness and insider threats. A covert communication platform can fail not because its cipher is broken, but because its metadata is out in the wild. This insight has profound implications for modern intelligence and of course, counterintelligence work. As state and non-state actors deploy increasingly networked clandestine capabilities, the old principle of “need to know” must be re-engineered into “need to connect.” Going forward, it would be foolish not to design com platforms in a way that every covert node is architecturally unique. Different code bases, hosting, and design fingerprints are imperative to avoid global correlation. The COVCOM collapse shows the lethal cost of violating that principle.

So, the CIA’s network failures in China were not caused solely by human treachery or inadequate encryption but by an invisible architectural flaw. The covert web infrastructure could be mapped once any part was exposed. This vulnerability, amplified by Lee’s betrayal and existing COVCOM weaknesses, created a perfect storm that allowed adversaries to dismantle entire espionage networks with unprecedented speed. The “X-factor” was not mystical but mathematical, an emergent property of pattern recognition within an interconnected Internet. The episode stands as a cautionary tale that in the digital age, secrecy depends not merely on keeping information encrypted but on ensuring that the very existence of the system remains undiscoverable. Sophisticated FIS such as China’s have the capacity to “de-clandestine” it, and far too quickly.

~ C. Constantin Poindexter, MA in Intelligence, Graduate Certificate in Counterintelligence, JD, CISA/NCISS OSINT certification, DoD/DoS BFFOC Certification

References

Central Intelligence Agency. (2021). Inspector General’s review of clandestine communication failures (declassified summary). Langley, VA.

Citizen Lab. (2022). Statement on the fatal flaws found in a defunct CIA covert communications system. University of Toronto. https://citizenlab.ca/2022/09/statement-on-the-fatal-flaws-found-in-a-defunct-cia-covert-communications-system/

Overt Defense. (2022, October 5). Poorly designed CIA websites likely got spies killed. https://www.overtdefense.com/2022/10/05/poorly-designed-cia-websites-likely-got-spies-killed/

Risen, J. (2018, May 21). How China used a hacked CIA communications system to hunt down U.S. spies. The New York Times.

Security Boulevard. (2018, June 6). The espionage of former CIA case officer Jerry Chun Shing Lee for China.

U.S. Department of Justice. (2019). Former CIA officer sentenced for conspiring to commit espionage. Press release, April 19, 2019.

New York SIM Farm, Nation-State Attribution?

intelligence, counterintelligence, spy, espionage, counterespionage, subversion, sabotage, C. Constantin Poindexter;

The discovery of an extensive SIM-box infrastructure in New York City represents a profound counterintelligence concern, not only because of the physical scale of the operation but also because of its timing and location. To appreciate the significance of this event, it is necessary to place it within a broader historical and operational context. Telecommunications networks have long been exploited by both state and non-state actors for covert communication, financial crime, and disruptive activity. The integration of criminal infrastructure with national security objectives has become an increasingly visible feature of modern gray-zone conflict, particularly since the end of the Cold War when adversaries began to weaponize civilian technologies in pursuit of deniable influence and disruption.

The use of “SIM farms,” or large-scale collections of SIM cards and servers designed to mimic ordinary cellular activity, is not new. Organized crime syndicates have leveraged them for spam, smishing, and financial fraud. North Korean operatives, for instance, have been linked to telephony-based fraud networks generating illicit revenue through scams and premium call-routing schemes. Russian-speaking cybercriminal groups have deployed SIM-boxes to mask identity and coordinate across borders while shielding themselves from law enforcement scrutiny. Iran’s cyber units, sometimes acting through cutouts, have also integrated telecommunications manipulation into campaigns targeting U.S. and allied interests. In each of these cases, the common thread is deniability, i.e., the ability to use civilian infrastructure for state-directed purposes while maintaining the outward appearance of ordinary criminality. Could this operation have been ENTIRELY non-aligned national or transnational criminal activity? Yes. “Thirty-five miles” from the U.N. would not be my choice of placement if the U.N. and the persons attending U.N. activities were my intended targets. Given the density of base station coverage in NYC, I would have opted for a post closer to both U.N. facilities and where attendees lay their heads. For the purpose of this piece, I’ll pretend that the operation was state-sponsored AND I’ll go with the premise that the discovered location was not an additional, perhaps secondary station in a chain. Of course, that might be exactly what adversarial FIS would want us to believe, i.e., “deniability” as I stated before.

Against this backdrop, the September 2025 discovery by the Secret Service of more than three hundred SIM servers and roughly one hundred thousand SIM cards clustered within a thirty-five-mile radius of the United Nations headquarters carries heightened significance. The seizure occurred during the opening of the United Nations General Assembly, a moment when global leaders converge in New York for high-level diplomacy (United States Secret Service, 2025). Official statements emphasized that the network could have enabled mass voice and text traffic, both for anonymized communications between foreign actors and potentially for the disruption of local telecommunications infrastructure (CNN, 2025; Associated Press, 2025).

The scale of this infrastructure and its deliberate placement near the United Nations point to a strategic rather than merely criminal purpose. Analysts cited by PBS noted that a SIM farm of this size could flood telecommunications systems, causing cascading outages (PBS, 2025). While some technical experts caution that U.S. carriers have robust mitigation tools that could blunt such an impact, even localized or temporary disruptions during a global diplomatic gathering would have significant psychological and operational consequences (Commsrisk, 2025). The purpose may not have been to permanently collapse networks but rather to create contingency leverage: a latent capacity to distract, delay, or obscure other operations should a geopolitical crisis erupt during the summit.

The Secret Service has publicly confirmed that communications occurred between “nation-state threat actors and individuals known to federal law enforcement,” yet no official attribution has been made (U.S. Secret Service, 2025). For counterintelligence professionals, the patterns of tradecraft and the geopolitical context allow for reasoned analytic judgments. The operation fits squarely within the framework of hybrid tactics employed by Russia. Moscow has repeatedly demonstrated a willingness to blend criminal infrastructure with state-directed activity. It has relied on criminal intermediaries to support disinformation campaigns, cyber operations, and telephony-based harassment. The combination of scale, timing, and proximity to the United Nations strongly suggests a Russian operational signature. This discovery mirrors previous instances in which Russia has leveraged technically noisy, deniable assets to signal capability and project disruption potential at politically symbolic moments.

Iran also emerges as a credible suspect. Tehran has a well-documented history of asymmetric operations designed to sow disruption in Western capitals. Its intelligence services have previously partnered with non-state intermediaries to extend operational reach while maintaining plausible deniability. A SIM-box farm designed to threaten disruption of cellular networks during the United Nations General Assembly would be consistent with Iran’s asymmetric doctrine. However, Iran’s pattern of activity has traditionally emphasized cyber intrusions, targeted influence operations, and physical proxy activity, rather than large-scale telecommunications disruption.

The DPRK must also be considered. Pyongyang has long relied on illicit telecommunications infrastructures for revenue generation and covert activity. SIM farms have been documented as part of North Korea’s financial crime toolkit. Yet in this case, the strategic signaling implied by targeting the United Nations makes North Korea a less likely culprit, given its usual focus on revenue production rather than international diplomatic disruption.

The PRC possesses the capability to construct such infrastructure, but the risk-reward calculus makes Beijing an improbable sponsor. China’s intelligence services favor long-term, quiet, persistent access operations, usually in the cyber and human collection domains. Deploying a conspicuous SIM-box network during the United Nations General Assembly would carry a high probability of exposure and diplomatic fallout, outcomes that run counter to China’s operational culture of avoiding overt disruption at politically sensitive junctures.

All things considered, I feel that the evidence points more persuasively toward Russian FIS as the primary sponsor, Iran as a new second. Russia’s historical reliance on hybrid criminal-state operations, its willingness to employ disruptive signaling tactics, and its long record of targeting politically symbolic events align with the discovery in New York. Iran shares some of these characteristics but lacks the established track record of telephony-based disruption at this scale. North Korea and China are less consistent with the observed tradecraft and geopolitical logic.

The discovery of the New York SIM farm underscores two enduring counterintelligence lessons. Adversarial FISs increasingly exploit civilian infrastructure, particularly in telecommunications, to build deniable operational capacity. The integration of criminal and state networks is no longer exceptional but rather a normalized feature of nation-state competition. From a defensive/countermeasures perspective, this event highlights the need for closer alignment between federal law enforcement, telecommunications providers, and allied intelligence partners. To our enemies, the attraction of SIM farms lies not only in their covert utility but also in their symbolic power, i.e., the ability to show that civilian networks can be weaponized against the United States at moments of significant diplomatic importance.

~ C. Constantin Poindexter, MA in Intelligence, Graduate Certificate in Counterintelligence, JD, CISA/NCISS OSINT certification, DoD/DoS BFFOC Certification

References

Associated Press. (2025, September 27). U.S. Secret Service dismantles imminent telecommunications threat in New York. AP News. https://apnews.com/article/unga-threat-telecom-service-sim-93734f76578bc9ca22d93a8e91fd9c76

CNN. (2025, September 27). Secret Service investigates massive network near UN. CNN. https://www.cnn.com/2025/09/27/us/nyc-network-secret-service-investigation

Commsrisk. (2025, September 24). U.S. Secret Service finds 300 SIM boxes in New York. Commsrisk. https://commsrisk.com/us-secret-service-finds-300-simboxes-in-new-york

PBS. (2025, September 24). How SIM farms like the one found near the UN could collapse telecom networks. PBS NewsHour. https://www.pbs.org/newshour/nation/how-sim-farms-like-the-one-found-near-the-un-could-collapse-telecom-networks

United States Secret Service. (2025, September 27). U.S. Secret Service dismantles imminent telecommunications threat in New York. United States Secret Service. https://www.secretservice.gov/newsroom/releases/2025/09/us-secret-service-dismantles-imminent-telecommunications-threat-new-york