Researchers at cybersecurity firm Sophos have uncovered a malware development framework that uses artificial intelligence tools to speed up the creation and testing of ransomware-related software designed to avoid detection by security products.
The investigation began after Sophos analysts discovered suspicious files on a customer system. What initially appeared to be a collection of penetration-testing tools soon revealed signs of criminal activity, including references to ransom notes and organizations listed on ransomware leak sites.
According to Sophos, the framework combines traditional attack tools with AI-assisted development workflows. Researchers found evidence that the operators used coding assistants such as Cursor and Claude Opus during different stages of development, including writing code, reviewing results, refining payloads, and researching techniques that could help malware evade security controls.
One of the framework's primary goals was to bypass Endpoint Detection and Response (EDR) platforms. These security products are designed to identify malicious activity on computers and servers, often detecting attacks that traditional antivirus software might miss.
The toolkit contained several components intended to reduce the chances of detection. Among them were customized Cobalt Strike profiles that made malicious network traffic resemble ordinary web browsing activity, communication channels that routed commands through Telegram, and malware development scripts capable of injecting malicious code into legitimate Windows applications while allowing those programs to continue functioning normally.
Researchers also identified the use of a Cloudflare Worker that acted as an intermediary between infected systems and attacker-controlled infrastructure. This setup can make it more difficult for defenders to identify the true location of command-and-control servers.
A particularly notable feature of the framework was an automated Active Directory discovery system. Active Directory is widely used in enterprise networks to manage users, computers, permissions, and other resources. Because it contains valuable information about an organization's internal structure, attackers frequently attempt to map Active Directory environments after gaining access to a network.
Sophos found that the discovery process relied on a series of AI-assisted agents that gathered information, assessed results, selected follow-up actions, and continued the investigation of the network. Rather than requiring a human operator to manually perform every step, parts of the reconnaissance process could be carried out through predefined automated workflows.
The framework itself appeared to operate through multiple specialized AI agents assigned to different tasks. Sophos reported that one agent coordinated the overall development process while others focused on testing, documentation, operational security improvements, virtual machine deployment, proxy testing, and malware evaluation.
Researchers also discovered that some agents had been tasked with examining publicly available security research. The system collected information from technical reports and research publications, extracted details about detection-evasion methods, mapped those techniques to the MITRE ATT&CK framework, recreated testing environments, and documented the results.
At the center of the operation was a Python-based payload generation tool. This component produced malware written primarily in Rust and Go while combining encryption, execution techniques, and anti-analysis measures intended to make detection more difficult. Sophos observed nearly 80 generated modules being tested against more than 70 separate evasion methods.
The malware was evaluated in laboratory environments against security products from Sophos, CrowdStrike, and Microsoft. Researchers noted that repeated testing and revision cycles appeared to improve the success rate of many payloads. However, they also observed inconsistencies between some reported results and actual testing outcomes, leaving questions about the accuracy of certain internal performance claims.
Despite the extensive use of artificial intelligence during development, Sophos found no indication that AI was embedded within deployed malware or operating independently on victim systems. The technology was primarily used to accelerate the research, testing, and refinement process while human operators remained responsible for directing the activity.
The findings provide another example of how threat actors are incorporating AI into existing workflows. Rather than introducing entirely new attack methods, these tools appear to be helping attackers shorten the time needed to transform publicly available security research into functioning malware capable of challenging modern security defenses.
For years, Bitcoin was widely associated with cryptocurrency-related crime. New industry data suggests that picture has changed astronomically, with stablecoins now accounting for the vast majority of identified illicit cryptocurrency activity.
The change of terms was accentuated by Bitcoin-focused financial services company River, which cited blockchain intelligence findings showing that Bitcoin's role in unlawful crypto transactions has declined sharply over the past several years. According to data attributed to Chainalysis, Bitcoin represented roughly 70% of illicit cryptocurrency transaction volume in 2020. By 2025, that figure had fallen to approximately 7%, while stablecoins had grown to account for around 84% of identified illicit transaction volume.
The numbers point to a drastic transformation in how cybercriminals, fraud operators, sanctioned entities, and money-laundering networks move digital funds across borders.
Why Stablecoins Are Becoming More Attractive to Criminal Networks
Unlike Bitcoin and many other cryptocurrencies, stablecoins are designed to maintain a relatively fixed value, typically by being linked to a traditional currency such as the U.S. dollar.
This stability removes one of the major risks associated with cryptocurrency transactions. A criminal group holding $1 million in Bitcoin today could see the value fluctuate significantly within days. Stablecoins largely eliminate that uncertainty, allowing illicit actors to move, store, and transfer funds without being exposed to major price swings.
Researchers say this makes stablecoins particularly useful in fraud schemes, investment scams, money-laundering operations, and cross-border transfers where predictable value is important.
The spike in acceptance of stablecoins across exchanges, payment services, and over-the-counter trading networks has also contributed to their increased use. Many stablecoins can be transferred globally within minutes while maintaining a value closely tied to fiat currency, making them practical for both legitimate and illegitimate financial activity.
Bitcoin Still Appears in Certain Criminal Operations
Despite its declining share, Bitcoin has not disappeared from the cybercrime infrastructure. It is still part of the overall pipeline in digital currency exchange.
Blockchain investigators continue to observe Bitcoin being used in ransomware attacks, darknet marketplaces, and extortion schemes. In these environments, long-established infrastructure, existing payment workflows, and familiarity among threat actors continue to support Bitcoin's use.
However, analysts note that criminal organizations are increasingly treating Bitcoin as only one option within a much larger digital financial ecosystem rather than the default cryptocurrency for illicit transactions.
Illicit Crypto Activity Continues to Soar
The change in asset preference comes as blockchain intelligence firms report increases in the overall value of illicit cryptocurrency activity.
TRM Labs recently estimated that illicit cryptocurrency flows reached approximately $158 billion in 2025, representing the highest level recorded by the company. The firm reported a sharp increase from the previous year, attributing much of the growth to sanctions-related activity, sophisticated money-laundering operations, underground financial networks, and expanded use of cryptocurrency by state-linked actors.
A large portion of these transactions involved stablecoins in the grand scheme of carrying out cyber criminal activities.
Researchers also observed that sanctions-evasion networks increasingly rely on stablecoins because of their liquidity, accessibility, and ability to move large sums through multiple jurisdictions with relative speed.
Compliance and Regulatory Pressure Expected to become more stringent
The developing concentration of illicit activity within stablecoin ecosystems is likely to intensify scrutiny from regulators and law-enforcement agencies.
Unlike decentralized cryptocurrencies, many major stablecoins are issued by identifiable companies that maintain reserve assets and have the technical ability to freeze certain wallets when required by legal authorities.
As a result, policymakers are increasingly examining how stablecoin issuers monitor suspicious transactions, respond to sanctions violations, and cooperate with criminal investigations.
Several stablecoin providers have already expanded collaboration with law enforcement agencies. Tether, the issuer of USDT, has publicly reported freezing wallets connected to suspected criminal activity, while blockchain analytics companies continue to develop tracking tools designed to identify suspicious transaction patterns across networks.
Criminal Use Remains a Small Portion of Overall Activity
Although illicit cryptocurrency volumes have risen in absolute terms, researchers caution against interpreting the data as evidence that most cryptocurrency activity is criminal.
Industry reports consistently show that unlawful transactions represent only a small fraction of total blockchain activity. Stablecoins process trillions of dollars in annual transaction volume, meaning the overwhelming majority of transactions are associated with legitimate uses such as payments, trading, remittances, and settlement activities.
Nevertheless, the latest findings draw a clearer picture into how criminal groups adapt quickly to changing financial technologies. While Bitcoin once dominated illicit cryptocurrency transactions, blockchain intelligence data now suggests that stablecoins have become the preferred vehicle for many forms of crypto-enabled financial crime due to their price stability, global accessibility, and ease of transfer.
The trend is expected to remain a driving focus for regulators, compliance teams, cryptocurrency exchanges, and law-enforcement agencies as governments continue developing rules for the rapidly expanding stablecoin sector.
The data comes from UK Government’s Cyber Security Breaches Survey 2025, which hints that 43% of businesses and 30% of charities listed an attack or a cyber breach or attack in the past 12 months. That’s a surprising 61,000 charities and 612,000 businesses impacted.
Despite the data, businesses can lower their risk of cyber threats. But it is important to understand these key risks to stay safe and prepare for the next danger.
1. Deepfakes: Deepfakes have shifted from niche technology to a major threat. Hackers nowadays use AI-generated audio and media to mimic organization staff. This can be risky in procurement or finance, where hackers push staff to send funds, share personal data, or approve finances, where the hackers pose as business leaders.
2. Supply-chain attacks: Instead of targeting organizations directly, hackers are targeting third-party vendors to get access to various firms at once via supply-chain attacks. The attack tactic abuses trust and internal security sometimes may not address all the threats in the supply chain. One hacked vendor can prompt a domino effect throughout hundreds of businesses.
3. AI-powered phishing hacks: Phishing is one of the most common attacks in the past 12 months, and the tactic has changed significantly over the years. Most of the phishing attacks today are supported by AI tools and hackers are copying internal comms.
4. Credential stuffing attack: Weak passwords are the biggest reasons for hacks these days. In such attacks, hackers use stolen login credentials from past hacks and test them automatically across distinct platforms.
5. IoT and device flaws: As IoT is increasing, the hack surface also widens. Many devices such as sensors, cameras and industrial machinery still have limitations. Hackers abuse these flaws to access larger corporate networks. Traditional cyber security methods tend to ignore these flaws, and this has resulted in a significant risk.
6. Cloud errors: A simple thing such as exposed storage bucket or false access setting can expose sensitive data publicly accessible. These cases don’t get hacked as the information is unprotected. Currently, cloud storage environments are advanced, and building robust configuration hygiene has become a top critical priority.
Nvidia has announced a new processor designed to run artificial intelligence applications directly on personal computers, signaling the company's latest effort to expand beyond the data center market and into everyday computing devices.
The announcement was made by Nvidia Chief Executive Officer Jensen Huang during a keynote presentation in Taipei ahead of Computex, one of the world's largest technology trade shows. The new chip, called RTX Spark, was developed as part of a long-running collaboration between Nvidia and Microsoft aimed at adapting personal computers for increasingly complex AI workloads.
Unlike many current AI services that rely on cloud infrastructure to process requests, the RTX Spark platform is designed to execute AI tasks locally on laptops and desktop systems. This allows certain AI functions to operate directly on the device rather than sending data to remote servers for processing. Industry observers believe this approach could improve response times, reduce dependence on internet connectivity, and give users greater control over sensitive information.
Nvidia said the processor was developed in partnership with Taiwanese semiconductor company MediaTek. Systems powered by the chip are expected to become available later this year through several major computer manufacturers, including Dell, HP, Lenovo, ASUS, MSI, and Microsoft's Surface product line. Additional products from Acer and GIGABYTE are also expected to follow.
The launch places Nvidia in more direct competition with companies such as AMD, Intel, Apple, and Qualcomm, all of which are pursuing their own strategies for bringing artificial intelligence capabilities to personal computers. While Nvidia has established a dominant position in hardware used to train large AI models, the company is now increasingly focused on technologies that run AI applications after those models have already been developed.
A major objective behind the RTX Spark platform is support for so-called AI agents. Unlike conventional chatbots that simply answer user questions, AI agents are designed to perform sequences of tasks with limited human intervention. Potential applications include managing schedules, conducting research, organizing information, generating content, and carrying out routine administrative work.
According to Nvidia, future personal computers will need significantly more processing capability to support these systems because AI agents are expected to operate continuously in the background rather than responding only when a user initiates an action.
The company's emphasis on local AI processing reflects a broader trend emerging across the technology sector. Many firms are exploring ways to move AI workloads closer to users instead of relying entirely on cloud-based infrastructure. Supporters of this approach argue that local processing can improve performance while reducing network delays and operational costs.
The commercial success of AI-powered PCs, however, remains uncertain. Although several manufacturers have promoted AI-enabled devices as the next phase of personal computing, adoption has been uneven. Some vendors have reported positive contributions to sales, while others have indicated that demand has not reached the levels initially anticipated when the category was introduced.
Technology analysts nevertheless view the market as an area with long-term growth potential. Neil Shah, co-founder of Counterpoint Research, said the shift from application-centered computing toward AI-assisted systems could fundamentally change how users interact with their devices. He suggested that personal AI agents operating on local hardware may become increasingly common as the technology matures.
During his presentation, Huang also highlighted Nvidia's Vera central processing unit, which he previously described as providing access to a market opportunity worth approximately $200 billion. Nvidia stated that organizations including OpenAI, Anthropic, and SpaceX are among the early adopters evaluating the technology.
The Computex presentation also featured discussion about the future direction of artificial intelligence across the computing industry. Qualcomm Chief Executive Officer Cristiano Amon, speaking separately ahead of the event, argued that the industry is moving beyond AI systems that simply generate responses to prompts and toward software capable of carrying out tasks independently. He described 2026 as a potential turning point for agent-based AI, adding that existing device architectures were largely designed around actions initiated by users rather than autonomous software systems.
Huang also addressed concerns that advances in artificial intelligence could reduce employment opportunities for software developers. Rejecting that view, he argued that AI tools are increasing productivity and enabling organizations to undertake larger software projects, which in turn could create additional demand for engineering talent.
The announcements come as Nvidia continues to expand its presence across multiple segments of the AI market. After becoming one of the leading suppliers of hardware for AI model training, the company is now seeking a larger role in personal computing, inference processing, and AI applications designed to run directly on consumer devices.
The developments were unveiled in Taiwan, a location Huang described as central to the global AI supply chain. The Nvidia chief, who was born in the southern Taiwanese city of Tainan, has repeatedly emphasized the island's importance to the future development and production of advanced computing technologies.
The incident caused the stoppage of milling activities at two of the firm’s facilities while authorities and experts tried to assess the disruption of the attack.
In a recent statement, Mackay Sugar acknowledged the cyberattacks and disruption impacting few of its operations.
The immediate priorities are ensuring staff safety, continuing business operations safely, and safeguarding operational systems. “Our immediate focus is the safety of our people, protecting operational systems, and maintaining business continuity,” it said.
Mackey Sugar is also working with authorities to inspect the incident and recover impacted systems safety.
The incident directly impacted production operations. Local media reports have hinted that the company was compelled to close down its Racecourse and Farleigh sugar mills, two key facilities based in Queensland’s Mackay area. This caused the growers to stop harvesting sugarcane until notified.
The group also verified that the Farleigh and Racecourse mills' cane hauling and sugar milling operations had been halted. Shortly after both facilities started their yearly sugarcane crushing season, there was an interruption.
Although many growers in the area have been impacted by the closure, producers in the Marian district have not been immediately impacted. The district's third mill for Mackay Sugar is not expected to start up until next week, according to a report from Australia's ABC News.
While recovery efforts continue, the sugar producer said it has put in place temporary measures and interim procedures to support critical business operations and minimize operational impact.
According to the company, "interim procedures are in place to support critical business functions and minimize disruption where possible."
Additionally, the company stressed that throughout the event, it is staying in touch with growers, staff, and business partners.
"We will continue to provide updates as more information becomes available and are in direct communication with our employees, growers, and key partners," Mackay Sugar stated.
Mackay Sugar acknowledged the anxiety brought on by the disruption and reaffirmed that company takes cybersecurity duties seriously.
"We take extremely seriously our obligation to safeguard our information, operations, and systems. We will give timely updates as we complete our inquiry, and we apologize for any inconvenience or uncertainty this incident may have caused," the business stated.
Two independent cybersecurity studies published this week have uncovered serious security weaknesses in OpenClaw, a widely used self-hosted AI agent platform. The findings demonstrate how attackers can manipulate AI agents into executing malicious code or leaking sensitive information through seemingly harmless inputs.
Researchers from Imperva and Varonis approached the issue from different angles but reached a similar conclusion: AI agents that trust incoming data and possess broad system access can become powerful attack vectors when exploited.
Imperva researchers discovered that OpenClaw could be tricked into processing concealed instructions embedded within shared contacts, vCards, and location pins. These malicious commands were executed by the AI agent without any visible indication to the user.
The issue stemmed from how OpenClaw handled certain message objects before passing them to the large language model (LLM). While content fetched from the web was clearly marked as untrusted, information contained within contacts, vCards, and location labels was inserted directly into prompts without any trust boundary.
According to Imperva researcher Yohann Sillam, this allowed attackers to hide instructions inside fields such as contact names. Since angle brackets are permitted in contact names, the model could not reliably distinguish legitimate information from injected commands.
Only selected fields were transmitted to the model, making them attractive targets. In one example, a shared contact was serialized as <contact: name, number>, allowing attackers to insert malicious instructions within the name field itself. Because messaging apps truncate long contact names, victims often never saw the hidden payload.
The same attack method was also successful through WhatsApp-supported vCards and shared location labels.
During testing against Gemini 3.1 Pro's preview build, hidden instructions successfully convinced the AI agent to download and execute a script hosted on servers controlled by the researchers. Similar attempts using images with embedded instructions failed, likely because AI models have become more resistant to that well-known attack technique.
Imperva warned that OpenClaw's default memory functionality could amplify the threat. A single malicious piece of widely shared content could potentially affect multiple agents if adequate sandboxing protections were absent.
Following responsible disclosure, OpenClaw addressed the issue in version 2026.4.23. The update separates contact names, vCard information, and location labels from the main prompt and places them in an isolated untrusted metadata channel.
Researchers also noted that similar design patterns exist in several other personal AI assistant platforms, suggesting the issue extends beyond OpenClaw alone.
While Imperva focused on prompt injection, Varonis Threat Labs explored how AI agents respond to social engineering attacks.
Led by researcher Itay Yashar, the Varonis team created an OpenClaw-based agent called Pinchy and connected it to a Gmail inbox filled with realistic business communications and synthetic sensitive information. The researchers then tested the agent using four different phishing scenarios involving Google Gemini 3.1 Pro and OpenAI Codex GPT-5.4.
Varonis distinguishes traditional prompt injection from what it calls "agent phishing." Unlike hidden instructions embedded in content, agent phishing relies on convincing requests delivered through normal communication channels, exploiting the agent's willingness to act before verifying legitimacy.
The tests revealed significant weaknesses.
In one scenario, an email impersonating a team leader named Dan requested urgent staging access during a simulated production emergency. The message originated from an external Gmail account, yet the agent located and forwarded mock AWS IAM access keys, database connection credentials, and SSH details in plain text.
A second phishing attempt used a more routine business request, asking for a weekly customer export supposedly needed for a QBR presentation. The agent responded by sending a synthetic database containing information on 247 enterprise customers, including contact details and contract values.
Notably, these failures occurred despite the agent being configured with instructions to verify sender identities before responding. Researchers observed that urgency successfully bypassed safeguards in one case, while routine business language defeated them in another.
The agent demonstrated stronger performance against technically oriented threats. It interacted with a phishing page designed to steal gift-card credentials but ultimately withheld sensitive information and flagged suspicious behavior. A stricter configuration blocked the page entirely.
Similarly, when presented with a malicious OAuth consent screen disguised as a timesheet application, the agent examined the redirect destination, recognized warning signs, and refused access.
Researchers concluded that AI agents may outperform many users when identifying suspicious URLs and fraudulent login portals. However, they remain vulnerable to social manipulation that exploits helpfulness and trust.
Varonis also observed that OpenAI Codex GPT-5.4 behaved more cautiously than Gemini 3.1 Pro when interacting with external websites or transmitting data. Nevertheless, both models ultimately fell victim to the social-engineering scenarios.
Varonis linked both attack methods to what researcher Simon Willison describes as the "lethal trifecta": an AI system capable of accessing private data, consuming untrusted content, and transmitting information externally.
OpenClaw satisfies all three conditions, making both hidden prompt injections and phishing-based attacks highly effective.
Additional concerns emerged from a separate InfoSec Write-ups analysis. Researchers converted historical OpenClaw security advisories into static-analysis rules and uncovered five additional vulnerabilities affecting integrations with Slack, Discord, Matrix, Zalo, and Microsoft Teams.
Each flaw originated from the same design issue. Channel allowlists were validated using mutable display names rather than permanent identifiers. Attackers could therefore impersonate trusted users simply by changing their display names to match approved accounts.
OpenClaw has since patched these vulnerabilities.
The platform's extensive permissions—including access to files, shell environments, and more than twenty messaging services—have previously prompted warnings regarding prompt injection and data exfiltration risks.
The strongest criticism came from the Dutch data protection authority, the Autoriteit Persoonsgegevens, which advised users and organizations against deploying OpenClaw on systems containing sensitive information due to concerns over data breaches and account compromise.
Organizations using OpenClaw are advised to upgrade immediately to version 2026.4.23 or newer to mitigate the message-object vulnerability identified by Imperva.
However, researchers stress that software updates alone cannot solve the broader trust problem inherent in autonomous AI systems.
Varonis recommends four key safeguards:
Treat agent instruction files as strict, version-controlled policies rather than informal guidance.
Require approval before agents send messages to unfamiliar recipients, reducing the risk of automated phishing or data leakage.
Restrict access to connected systems based on the trustworthiness of the triggering source.
Require human review for high-risk actions such as credential sharing, financial transactions, or sensitive data transfers.
Both research teams ultimately advocate the same mindset. Varonis recommends treating AI agents as inexperienced employees with extensive system access but limited judgment, while Imperva describes them as authenticated executors that inherently trust incoming information.
Although vendors continue to introduce patches and protective controls, the fundamental challenge remains unresolved. AI agents derive their usefulness from acting on instructions, processing inputs, and helping users accomplish tasks. Those same characteristics also create opportunities for attackers, and the industry has yet to develop a universal solution.