#FactCheck - Claim That Palki Sharma’s Viral Video Questions Jordan’s Protocol Is False; Video Is AI-Manipulated

Executive Summary

This report analyses a recently launched social engineering attack that took advantage of Microsoft Teams and AnyDesk to deliver DarkGate malware, a MaaS tool. This way, through Microsoft Teams and by tricking users into installing AnyDesk, attackers received unauthorized remote access to deploy DarkGate that offers such features as credential theft, keylogging, and fileless persistence. The attack was executed using obfuscated AutoIt scripts for the delivery of malware which shows how threat actors are changing their modus operandi. The case brings into focus the need to put into practice preventive security measures for instance endpoint protection, staff awareness, limited utilization of off-ice-connection tools, and compartmentalization to safely work with the new and increased risks that contemporary cyber threats present.

Introduction

Hackers find new technologies and application that are reputable for spreading campaigns. The latest use of Microsoft Teams and AnyDesk platforms for launching the DarkGate malware is a perfect example of how hackers continue to use social engineering and technical vulnerabilities to penetrate the defenses of organizations. This paper focuses on the details of the technical aspect of the attack, the consequences of the attack together with preventive measures to counter the threat.

Technical Findings

1. Attack Initiation: Exploiting Microsoft Teams

The attackers leveraged Microsoft Teams as a trusted communication platform to deceive victims, exploiting its legitimacy and widespread adoption. Key technical details include:

• Spoofed Caller Identity: The attackers used impersonation techniques to masquerade as representatives of trusted external suppliers.
• Session Hijacking Risks: Exploiting Microsoft Teams session vulnerabilities, attackers aimed to escalate their privileges and deploy malicious payloads.
• Bypassing Email Filters: The initial email bombardment was designed to overwhelm spam filters and ensure that malicious communication reached the victim’s inbox.

2. Remote Access Exploitation: AnyDesk

After convincing victims to install AnyDesk, the attackers exploited the software’s functionality to achieve unauthorized remote access. Technical observations include:

• Command and Control (C2) Integration: Once installed, AnyDesk was configured to establish persistent communication with the attacker’s C2 servers, enabling remote control.
• Privilege Escalation: Attackers exploited misconfigurations in AnyDesk to gain administrative privileges, allowing them to disable antivirus software and deploy payloads.
• Data Exfiltration Potential: With full remote access, attackers could silently exfiltrate data or install additional malware without detection.

3. Malware Deployment: DarkGate Delivery via AutoIt Script

The deployment of DarkGate malware utilized AutoIt scripting, a programming language commonly used for automating Windows-based tasks. Technical details include:

• Payload Obfuscation: The AutoIt script was heavily obfuscated to evade signature-based antivirus detection.
• Process Injection: The script employed process injection techniques to embed DarkGate into legitimate processes, such as explorer.exe or svchost.exe, to avoid detection.
• Dynamic Command Loading: The malware dynamically fetched additional commands from its C2 server, allowing real-time adaptation to the victim’s environment.

4. DarkGate Malware Capabilities

DarkGate, now available as a Malware-as-a-Service (MaaS) offering, provides attackers with advanced features. Technical insights include:

• Credential Dumping: DarkGate used the Mimikatz module to extract credentials from memory and secure storage locations.
• Keylogging Mechanism: Keystrokes were logged and transmitted in real-time to the attacker’s server, enabling credential theft and activity monitoring.
• Fileless Persistence: Utilizing Windows Management Instrumentation (WMI) and registry modifications, the malware ensured persistence without leaving traditional file traces.
• Network Surveillance: The malware monitored network activity to identify high-value targets for lateral movement within the compromised environment.

5. Attack Indicators

Trend Micro researchers identified several indicators of compromise (IoCs) associated with the DarkGate campaign:

• Suspicious Domains: example-remotesupport[.]com and similar domains used for C2 communication.

• Malicious File Hashes:some text
  • AutoIt Script: 5a3f8d0bd6c91234a9cd8321a1b4892d
  • DarkGate Payload: 6f72cde4b7f3e9c1ac81e56c3f9f1d7a
• Behavioral Anomalies:some text
  • Unusual outbound traffic to non-standard ports.
  • Unauthorized registry modifications under HKCU\Software\Microsoft\Windows\CurrentVersion\Run.

Broader Cyber Threat Landscape

In parallel with this campaign, other phishing and malware delivery tactics have been observed, including:

1. Cloud Exploitation: Abuse of platforms like Cloudflare Pages to host phishing sites mimicking Microsoft 365 login pages.
2. Quishing Campaigns: Phishing emails with QR codes that redirect users to fake login pages.
3. File Attachment Exploits: Malicious HTML attachments embedding JavaScript to steal credentials.
4. Mobile Malware: Distribution of malicious Android apps capable of financial data theft.

Implications of the DarkGate Campaign

This attack highlights the sophistication of threat actors in leveraging legitimate tools for malicious purposes. Key risks include:

• Advanced Threat Evasion: The use of obfuscation and process injection complicates detection by traditional antivirus solutions.
• Cross-Platform Risk: DarkGate’s modular design enables its functionality across diverse environments, posing risks to Windows, macOS, and Linux systems.
• Organizational Exposure: The compromise of a single endpoint can serve as a gateway for further network exploitation, endangering sensitive organizational data.

Recommendations for Mitigation

1. Enable Advanced Threat Detection: Deploy endpoint detection and response (EDR) solutions to identify anomalous behavior like process injection and dynamic command loading.
2. Restrict Remote Access Tools: Limit the use of tools like AnyDesk to approved use cases and enforce strict monitoring.
3. Use Email Filtering and Monitoring: Implement AI-driven email filtering systems to detect and block email bombardment campaigns.
4. Enhance Endpoint Security: Regularly update and patch operating systems and applications to mitigate vulnerabilities.
5. Educate Employees: Conduct training sessions to help employees recognize and avoid phishing and social engineering tactics.
6. Implement Network Segmentation: Limit the spread of malware within an organization by segmenting high-value assets.

Conclusion

Using Microsoft Teams and AnyDesk to spread DarkGate malware shows the continuous growth of the hackers’ level. The campaign highlights how organizations have to start implementing adequate levels of security preparedness to threats, including, Threat Identification, Training employees, and Rights to Access.

The DarkGate malware is a perfect example of how these attacks have developed into MaaS offerings, meaning that the barrier to launch highly complex attacks is only decreasing, which proves once again why a layered defense approach is crucial. Both awareness and flexibility are still the key issues in addressing the constantly evolving threat in cyberspace.

Reference:

• https://thehackernews.com/2024/12/attackers-exploit-microsoft-teams-and.html
• https://socprime.com/blog/darkgate-malware-detection/

Executive Summary:

BrazenBamboo’s DEEPDATA malware represents a new wave of advanced cyber espionage tools, exploiting a zero-day vulnerability in Fortinet FortiClient to extract VPN credentials and sensitive data through fileless malware techniques and secure C2 communications. With its modular design, DEEPDATA targets browsers, messaging apps, and password stores, while leveraging reflective DLL injection and encrypted DNS to evade detection. Cross-platform compatibility with tools like DEEPPOST and LightSpy highlights a coordinated development effort, enhancing its espionage capabilities. To mitigate such threats, organizations must enforce network segmentation, deploy advanced monitoring tools, patch vulnerabilities promptly, and implement robust endpoint protection. Vendors are urged to adopt security-by-design practices and incentivize vulnerability reporting, as vigilance and proactive planning are critical to combating this sophisticated threat landscape.

Introduction

The increased use of zero-day vulnerabilities by more complex threat actors reinforces the importance of more developed countermeasures. One of the threat actors identified is BrazenBamboo uses a zero-day vulnerability in Fortinet FortiClient for Windows through the DEEPDATA advanced malware framework. This research explores technical details about DEEPDATA, the tricks used in its operations, and its other effects.

Technical Findings

1. Vulnerability Exploitation Mechanism

The vulnerability in Fortinet’s FortiClient lies in its failure to securely handle sensitive information in memory. DEEPDATA capitalises on this flaw via a specialised plugin, which:

• Accesses the VPN client’s process memory.
• Extracts unencrypted VPN credentials from memory, bypassing typical security protections.
• Transfers credentials to a remote C2 server via encrypted communication channels.

2. Modular Architecture

DEEPDATA exhibits a highly modular design, with its core components comprising:

• Loader Module (data.dll): Decrypts and executes other payloads.
• Orchestrator Module (frame.dll): Manages the execution of multiple plugins.
• FortiClient Plugin: Specifically designed to target Fortinet’s VPN client.

Each plugin operates independently, allowing flexibility in attack strategies depending on the target system.

3. Command-and-Control (C2) Communication

DEEPDATA establishes secure channels to its C2 infrastructure using WebSocket and HTTPS protocols, enabling stealthy exfiltration of harvested data. Technical analysis of network traffic revealed:

• Dynamic IP switching for C2 servers to evade detection.
• Use of Domain Fronting, hiding C2 communication within legitimate HTTPS traffic.
• Time-based communication intervals to minimise anomalies in network behavior.

4. Advanced Credential Harvesting Techniques

Beyond VPN credentials, DEEPDATA is capable of:

• Dumping password stores from popular browsers, such as Chrome, Firefox, and Edge.
• Extracting application-level credentials from messaging apps like WhatsApp, Telegram, and Skype.
• Intercepting credentials stored in local databases used by apps like KeePass and Microsoft Outlook.

5. Persistence Mechanisms

To maintain long-term access, DEEPDATA employs sophisticated persistence techniques:

• Registry-based persistence: Modifies Windows registry keys to reload itself upon system reboot.
• DLL Hijacking: Substitutes legitimate DLLs with malicious ones to execute during normal application operations.
• Scheduled Tasks and Services: Configures scheduled tasks to periodically execute the malware, ensuring continuous operation even if detected and partially removed.

Additional Tools in BrazenBamboo’s Arsenal

1. DEEPPOST

A complementary tool used for data exfiltration, DEEPPOST facilitates the transfer of sensitive files, including system logs, captured credentials, and recorded user activities, to remote endpoints.

2. LightSpy Variants

• The Windows variant includes a lightweight installer that downloads orchestrators and plugins, expanding espionage capabilities across platforms.
• Shellcode-based execution ensures that LightSpy’s payload operates entirely in memory, minimising artifacts on the disk.

3. Cross-Platform Overlaps

BrazenBamboo’s shared codebase across DEEPDATA, DEEPPOST, and LightSpy points to a centralised development effort, possibly linked to a Digital Quartermaster framework. This shared ecosystem enhances their ability to operate efficiently across macOS, iOS, and Windows systems.

Notable Attack Techniques

1. Memory Injection and Data Extraction

Using Reflective DLL Injection, DEEPDATA injects itself into legitimate processes, avoiding detection by traditional antivirus solutions.

• Memory Scraping: Captures credentials and sensitive information in real-time.
• Volatile Data Extraction: Extracts transient data that only exists in memory during specific application states.

2. Fileless Malware Techniques

DEEPDATA leverages fileless infection methods, where its payload operates exclusively in memory, leaving minimal traces on the system. This complicates post-incident forensic investigations.

3. Network Layer Evasion

By utilising encrypted DNS queries and certificate pinning, DEEPDATA ensures that network-level defenses like intrusion detection systems (IDS) and firewalls are ineffective in blocking its communications.

Recommendations

1. For Organisations

• Apply Network Segmentation: Isolate VPN servers from critical assets.
• Enhance Monitoring Tools: Deploy behavioral analysis tools that detect anomalous processes and memory scraping activities.
• Regularly Update and Patch Software: Although Fortinet has yet to patch this vulnerability, organisations must remain vigilant and apply fixes as soon as they are released.

2. For Security Teams

• Harden Endpoint Protections: Implement tools like Memory Integrity Protection to prevent unauthorised memory access.
• Use Network Sandboxing: Monitor and analyse outgoing network traffic for unusual behaviors.
• Threat Hunting: Proactively search for indicators of compromise (IOCs) such as unauthorised DLLs (data.dll, frame.dll) or C2 communications over non-standard intervals.

3. For Vendors

• Implement Security by Design: Adopt advanced memory protection mechanisms to prevent credential leakage.
• Bug Bounty Programs: Encourage researchers to report vulnerabilities, accelerating patch development.

Conclusion

DEEPDATA is a form of cyber espionage and represents the next generation of tools that are more advanced and tunned for stealth, modularity and persistence. While Brazen Bamboo is in the process of fine-tuning its strategies, the organisations and vendors have to be more careful and be ready to respond to these tricks. The continuous updating, the ability to detect the threats and a proper plan on how to deal with incidents are crucial in combating the attacks.

References:

1. https://thehackernews.com/2024/11/warning-deepdata-malware-exploiting.html‍
2. http://www.theregister.com/2024/11/19/china_brazenbamboo_fortinet_0day/

Executive Summary:

A viral video circulating on social media inaccurately suggests that it shows Israel moving nuclear weapons in preparation for an assault on Iran, but a detailed research has established that it instead shows a SpaceX Starship rocket (Starship 36) being towed for a pre-planned test in Texas, USA, and the footage does not provide any evidence to back-up the claim of an Israeli action or a nuclear missile.

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Claim:

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Multiple posts on social media sharing a video clip of what appeared to be a large, missile-like object being towed to an unknown location by a very large vehicle and stated it is Israel preparing for a nuclear attack on Iran. 

The caption of the video said: "Israel is going to launch a nuclear attack on Iran! #Israel”. The viral post received lots of engagement, helpingClaim: to spread misinformation and unfounded fear about the rising conflicts in the Middle East.

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Fact check:

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By doing reverse image search using the key frames of the viral footage, this landed us at a Facebook post dated June 16, 2025.

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A YouTube livestream from NASASpaceflight is dated 15th June 2025. Both sources make it clear that the object was clearly identified as SpaceX Starship 36. This rocket was being towed at SpaceX's Texas facility in advance of a static fire test and as part of the overall preparation for the 10th test flight. In the video, there is clearly no military ordinance or personnel, or Israel’s nuclear attack on Iran markings. 

More support for our conclusions came from several articles from SPACE.com, which briefly reported on the Starship's explosion shortly thereafter during various testing iterations. 

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Also, there was no mention of any Israeli nuclear mobilization by any reputable media or defence agencies. The resemblance between a large rocket and a missile likely added some confusion. Below is a video describing the difference, but the context and upload location have no relation to the State of Israel or Iran.

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Conclusion: 

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The viral video alleging that the actual video showed Israel getting ready to launch a nuclear attack on Iran is false and misleading. In fact, the video was from Texas, showing the civilian transport of SpaceX’s Starship 36. This highlighted how easily unrelated videos can be used to create panic and spread misinformation. If you plan on sharing claims like this, verify them instead using trusted websites and tools.

• Claim: Misleading video on Israel is ready to go nuclear on Iran
• Claimed On: Social Media
• Fact Check: False and Misleading

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