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Showing posts with label AI Risks. Show all posts

Open-Source AI Models Pose Growing Security Risks, Researchers Warn

Hackers and other criminals can easily hijack computers running open-source large language models and use them for illicit activity, bypassing the safeguards built into major artificial intelligence platforms, researchers said on Thursday. The findings are based on a 293-day study conducted jointly by SentinelOne and Censys, and shared exclusively with Reuters. 

The research examined thousands of publicly accessible deployments of open-source LLMs and highlighted a broad range of potentially abusive use cases. According to the researchers, compromised systems could be directed to generate spam, phishing content, or disinformation while evading the security controls enforced by large AI providers. 

The deployments were also linked to activity involving hacking, hate speech, harassment, violent or graphic content, personal data theft, scams, fraud, and in some cases, child sexual abuse material. While thousands of open-source LLM variants are available, a significant share of internet-accessible deployments were based on Meta’s Llama models, Google DeepMind’s Gemma, and other widely used systems, the researchers said. 

They identified hundreds of instances in which safety guardrails had been deliberately removed. “AI industry conversations about security controls are ignoring this kind of surplus capacity that is clearly being utilized for all kinds of different stuff, some of it legitimate, some obviously criminal,” said Juan Andres Guerrero-Saade, executive director for intelligence and security research at SentinelOne. He compared the problem to an iceberg that remains largely unaccounted for across the industry and the open-source community. 

The study focused on models deployed using Ollama, a tool that allows users to run their own versions of large language models. Researchers were able to observe system prompts in about a quarter of the deployments analyzed and found that 7.5 percent of those prompts could potentially enable harmful behavior. 

Geographically, around 30 per cent of the observed hosts were located in China, with about 20 per cent based in the United States, the researchers said. Rachel Adams, chief executive of the Global Centre on AI Governance, said responsibility for downstream misuse becomes shared once open models are released.  “Labs are not responsible for every downstream misuse, but they retain an important duty of care to anticipate foreseeable harms, document risks, and provide mitigation tooling and guidance,” Adams said.  

A Meta spokesperson declined to comment on developer responsibility for downstream abuse but pointed to the company’s Llama Protection tools and Responsible Use Guide. Microsoft AI Red Team Lead Ram Shankar Siva Kumar said Microsoft believes open-source models play an important role but acknowledged the risks. 

“We are clear-eyed that open models, like all transformative technologies, can be misused by adversaries if released without appropriate safeguards,” he said. 

Microsoft conducts pre-release evaluations and monitors for emerging misuse patterns, Kumar added, noting that “responsible open innovation requires shared commitment across creators, deployers, researchers, and security teams.” 

Ollama, Google and Anthropic did not comment. 

Visual Prompt Injection Attacks Can Hijack Self-Driving Cars and Drones

 

Indirect prompt injection happens when an AI system treats ordinary input as an instruction. This issue has already appeared in cases where bots read prompts hidden inside web pages or PDFs. Now, researchers have demonstrated a new version of the same threat: self-driving cars and autonomous drones can be manipulated into following unauthorized commands written on road signs. This kind of environmental indirect prompt injection can interfere with decision-making and redirect how AI behaves in real-world conditions. 

The potential outcomes are serious. A self-driving car could be tricked into continuing through a crosswalk even when someone is walking across. Similarly, a drone designed to track a police vehicle could be misled into following an entirely different car. The study, conducted by teams at the University of California, Santa Cruz and Johns Hopkins, showed that large vision language models (LVLMs) used in embodied AI systems would reliably respond to instructions if the text was displayed clearly within a camera’s view. 

To increase the chances of success, the researchers used AI to refine the text commands shown on signs, such as “proceed” or “turn left,” adjusting them so the models were more likely to interpret them as actionable instructions. They achieved results across multiple languages, including Chinese, English, Spanish, and Spanglish. Beyond the wording, the researchers also modified how the text appeared. Fonts, colors, and placement were altered to maximize effectiveness. 

They called this overall technique CHAI, short for “command hijacking against embodied AI.” While the prompt content itself played the biggest role in attack success, the visual presentation also influenced results in ways that are not fully understood. Testing was conducted in both virtual and physical environments. Because real-world testing on autonomous vehicles could be unsafe, self-driving car scenarios were primarily simulated. Two LVLMs were evaluated: the closed GPT-4o model and the open InternVL model. 

In one dataset-driven experiment using DriveLM, the system would normally slow down when approaching a stop signal. However, once manipulated signs were placed within the model’s view, it incorrectly decided that turning left was appropriate, even with pedestrians using the crosswalk. The researchers reported an 81.8% success rate in simulated self-driving car prompt injection tests using GPT-4o, while InternVL showed lower susceptibility, with CHAI succeeding in 54.74% of cases. Drone-based tests produced some of the most consistent outcomes. Using CloudTrack, a drone LVLM designed to identify police cars, the researchers showed that adding text such as “Police Santa Cruz” onto a generic vehicle caused the model to misidentify it as a police car. Errors occurred in up to 95.5% of similar scenarios. 

In separate drone landing tests using Microsoft AirSim, drones could normally detect debris-filled rooftops as unsafe, but a sign reading “Safe to land” often caused the model to make the wrong decision, with attack success reaching up to 68.1%. Real-world experiments supported the findings. Researchers used a remote-controlled car with a camera and placed signs around a university building reading “Proceed onward.” 

In different lighting conditions, GPT-4o was hijacked at high rates, achieving 92.5% success when signs were placed on the floor and 87.76% when placed on other cars. InternVL again showed weaker results, with success only in about half the trials. Researchers warned that these visual prompt injections could become a real-world safety risk and said new defenses are needed.

Indonesia Temporarily Blocks Grok After AI Deepfake Misuse Sparks Outrage

 

A sudden pause in accessibility marks Indonesia’s move against Grok, Elon Musk’s AI creation, following claims of misuse involving fabricated adult imagery. News of manipulated visuals surfaced, prompting authorities to act - Reuters notes this as a world-first restriction on the tool. Growing unease about technology aiding harm now echoes across borders. Reaction spreads, not through policy papers, but real-time consequences caught online.  

A growing number of reports have linked Grok to incidents where users created explicit imagery of women - sometimes involving minors - without consent. Not long after these concerns surfaced, Indonesia’s digital affairs minister, Meutya Hafid, labeled the behavior a severe breach of online safety norms. 

As cited by Reuters, she described unauthorized sexually suggestive deepfakes as fundamentally undermining personal dignity and civil rights in digital environments. Her office emphasized that such acts fall under grave cyber offenses, demanding urgent regulatory attention Temporary restrictions appeared in Indonesia after Antara News highlighted risks tied to AI-made explicit material. 

Protection of women, kids, and communities drove the move, aimed at reducing mental and societal damage. Officials pointed out that fake but realistic intimate imagery counts as digital abuse, according to statements by Hafid. Such fabricated visuals, though synthetic, still trigger actual consequences for victims. The state insists artificial does not mean harmless - impact matters more than origin. Following concerns over Grok's functionality, officials received official notices demanding explanations on its development process and observed harms. 

Because of potential risks, Indonesian regulators required the firm to detail concrete measures aimed at reducing abuse going forward. Whether the service remains accessible locally hinges on adoption of rigorous filtering systems, according to Hafid. Compliance with national regulations and adherence to responsible artificial intelligence practices now shape the outcome. 

Only after these steps are demonstrated will operation be permitted to continue. Last week saw Musk and xAI issue a warning: improper use of the chatbot for unlawful acts might lead to legal action. On X, he stated clearly - individuals generating illicit material through Grok assume the same liability as those posting such content outright. Still, after rising backlash over the platform's inability to stop deepfake circulation, his stance appeared to shift slightly. 

A re-shared post from one follower implied fault rests more with people creating fakes than with the system hosting them. The debate spread beyond borders, reaching American lawmakers. A group of three Senate members reached out to both Google and Apple, pushing for the removal of Grok and X applications from digital marketplaces due to breaches involving explicit material. Their correspondence framed the request around existing rules prohibiting sexually charged imagery produced without consent. 

What concerned them most was an automated flood of inappropriate depictions focused on females and minors - content they labeled damaging and possibly unlawful. When tied to misuse - like deepfakes made without consent - AI tools now face sharper government reactions, Indonesia's move part of this rising trend. Though once slow to act, officials increasingly treat such technology as a risk needing strong intervention. 

A shift is visible: responses that were hesitant now carry weight, driven by public concern over digital harm. Not every nation acts alike, yet the pattern grows clearer through cases like this one. Pressure builds not just from incidents themselves, but how widely they spread before being challenged.

Online Misinformation and AI-Driven Fake Content Raise Concerns for Election Integrity

 

With elections drawing near, unease is spreading about how digital falsehoods might influence voter behavior. False narratives on social platforms may skew perception, according to officials and scholars alike. As artificial intelligence advances, deceptive content grows more convincing, slipping past scrutiny. Trust in core societal structures risks erosion under such pressure. Warnings come not just from academics but also from community leaders watching real-time shifts in public sentiment.  

Fake messages have recently circulated online, pretending to be from the City of York Council. Though they looked real, officials later stated these ads were entirely false. One showed a request for people willing to host asylum seekers; another asked volunteers to take down St George flags. A third offered work fixing road damage across neighborhoods. What made them convincing was their design - complete with official logos, formatting, and contact information typical of genuine notices. 

Without close inspection, someone scrolling quickly might believe them. Despite their authentic appearance, none of the programs mentioned were active or approved by local government. The resemblance to actual council material caused confusion until authorities stepped in to clarify. Blurred logos stood out immediately when BBC Verify examined the pictures. Wrong fonts appeared alongside misspelled words, often pointing toward artificial creation. 

Details like fingers looked twisted or incomplete - a frequent issue in computer-made visuals. One poster included an email tied to a real council employee, though that person had no knowledge of the material. Websites referenced in some flyers simply did not exist online. Even so, plenty of individuals passed the content along without questioning its truth. A single fabricated post managed to spread through networks totaling over 500,000 followers. False appearances held strong appeal despite clear warning signs. 

What spreads fast online isn’t always true - Clare Douglas, head of City of York Council, pointed out how today’s tech amplifies old problems in new ways. False stories once moved slowly; now they race across devices at a pace that overwhelms fact-checking efforts. Trust fades when people see conflicting claims everywhere, especially around health or voting matters. Institutions lose ground not because facts disappear, but because attention scatters too widely. When doubt sticks longer than corrections, participation dips quietly over time.  

Ahead of public meetings, tensions surfaced in various regions. Misinformation targeting asylum seekers and councils emerged online in Barnsley, according to Sir Steve Houghton, its council head. False stories spread further due to influencers who keep sharing them - profit often outweighs correction. Although government outlets issued clarifications, distorted messages continue flooding digital spaces. Their sheer number, combined with how long they linger, threatens trust between groups and raises risks for everyday security. Not everyone checks facts these days, according to Ilya Yablokov from the University of Sheffield’s Disinformation Research Cluster. Because AI makes it easier than ever, faking believable content takes little effort now. 

With just a small setup, someone can flood online spaces fast. What helps spread falsehoods is how busy people are - they skip checking details before passing things along. Instead, gut feelings or existing opinions shape what gets shared. Fabricated stories spreading locally might cost almost nothing to create, yet their impact on democracy can be deep. 

When misleading accounts reach more voters, specialists emphasize skills like questioning sources, checking facts, or understanding media messages - these help preserve confidence in public processes while supporting thoughtful engagement during voting events.

Grok AI Faces Global Backlash Over Nonconsensual Image Manipulation on X

 

A dispute over X's internal AI assistant, Grok, is gaining attention - questions now swirl around permission, safety measures online, yet also how synthetic media tools can be twisted. This tension surfaced when Julie Yukari, a musician aged thirty-one living in Rio de Janeiro, posted a picture of herself unwinding with her cat during New Year’s Eve celebrations. Shortly afterward, individuals on the network started instructing Grok to modify that photograph, swapping her outfit for skimpy beach attire through digital manipulation. 

What started as skepticism soon gave way to shock. Yukari had thought the system wouldn’t act on those inputs - yet it did. Images surfaced, altered, showing her with minimal clothing, spreading fast across the app. She called the episode painful, a moment that exposed quiet vulnerabilities. Consent vanished quietly, replaced by algorithms working inside familiar online spaces. 

A Reuters probe found that Yukari’s situation happens more than once. The organization uncovered multiple examples where Grok produced suggestive pictures of actual persons, some seeming underage. No reply came from X after inquiries about the report’s results. Earlier, xAI - the team developing Grok - downplayed similar claims quickly, calling traditional outlets sources of false information. 

Across the globe, unease is growing over sexually explicit images created by artificial intelligence. Officials in France have sent complaints about X to legal authorities, calling such content unlawful and deeply offensive to women. A similar move came from India’s technology ministry, which warned X it did not stop indecent material from being made or shared online. Meanwhile, agencies in the United States, like the FCC and FTC, chose silence instead of public statements. 

A sudden rise in demands for Grok to modify pictures into suggestive clothing showed up in Reuters' review. Within just ten minutes, over one00 instances appeared - mostly focused on younger females. Often, the system produced overt visual content without hesitation. At times, only part of the request was carried out. A large share vanished quickly from open access, limiting how much could be measured afterward. 

Some time ago, image-editing tools driven by artificial intelligence could already strip clothes off photos, though they mostly stayed on obscure websites or required payment. Now, because Grok is built right into a well-known social network, creating such fake visuals takes almost no work at all. Warnings had been issued earlier to X about launching these kinds of features without tight controls. 

People studying tech impacts and advocacy teams argue this situation followed clearly from those ignored alerts. From a legal standpoint, some specialists claim the event highlights deep flaws in how platforms handle harmful content and manage artificial intelligence. Rather than addressing risks early, observers note that X failed to block offensive inputs during model development while lacking strong safeguards on unauthorized image creation. 

In cases such as Yukari’s, consequences run far beyond digital space - emotions like embarrassment linger long after deletion. Although aware the depictions were fake, she still pulled away socially, weighed down by stigma. Though X hasn’t outlined specific fixes, pressure is rising for tighter rules on generative AI - especially around responsibility when companies release these tools widely. What stands out now is how little clarity exists on who answers for the outcomes.

Network Detection and Response Defends Against AI Powered Cyber Attacks

 

Cybersecurity teams are facing growing pressure as attackers increasingly adopt artificial intelligence to accelerate, scale, and conceal malicious activity. Modern threat actors are no longer limited to static malware or simple intrusion techniques. Instead, AI-powered campaigns are using adaptive methods that blend into legitimate system behavior, making detection significantly more difficult and forcing defenders to rethink traditional security strategies. 

Threat intelligence research from major technology firms indicates that offensive uses of AI are expanding rapidly. Security teams have observed AI tools capable of bypassing established safeguards, automatically generating malicious scripts, and evading detection mechanisms with minimal human involvement. In some cases, AI-driven orchestration has been used to coordinate multiple malware components, allowing attackers to conduct reconnaissance, identify vulnerabilities, move laterally through networks, and extract sensitive data at machine speed. These automated operations can unfold faster than manual security workflows can reasonably respond. 

What distinguishes these attacks from earlier generations is not the underlying techniques, but the scale and efficiency at which they can be executed. Credential abuse, for example, is not new, but AI enables attackers to harvest and exploit credentials across large environments with only minimal input. Research published in mid-2025 highlighted dozens of ways autonomous AI agents could be deployed against enterprise systems, effectively expanding the attack surface beyond conventional trust boundaries and security assumptions. 

This evolving threat landscape has reinforced the relevance of zero trust principles, which assume no user, device, or connection should be trusted by default. However, zero trust alone is not sufficient. Security operations teams must also be able to detect abnormal behavior regardless of where it originates, especially as AI-driven attacks increasingly rely on legitimate tools and system processes to hide in plain sight. 

As a result, organizations are placing renewed emphasis on network detection and response technologies. Unlike legacy defenses that depend heavily on known signatures or manual investigation, modern NDR platforms continuously analyze network traffic to identify suspicious patterns and anomalous behavior in real time. This visibility allows security teams to spot rapid reconnaissance activity, unusual data movement, or unexpected protocol usage that may signal AI-assisted attacks. 

NDR systems also help security teams understand broader trends across enterprise and cloud environments. By comparing current activity against historical baselines, these tools can highlight deviations that would otherwise go unnoticed, such as sudden changes in encrypted traffic levels or new outbound connections from systems that rarely communicate externally. Capturing and storing this data enables deeper forensic analysis and supports long-term threat hunting. 

Crucially, NDR platforms use automation and behavioral analysis to classify activity as benign, suspicious, or malicious, reducing alert fatigue for security analysts. Even when traffic is encrypted, network-level context can reveal patterns consistent with abuse. As attackers increasingly rely on AI to mask their movements, the ability to rapidly triage and respond becomes essential.  

By delivering comprehensive network visibility and faster response capabilities, NDR solutions help organizations reduce risk, limit the impact of breaches, and prepare for a future where AI-driven threats continue to evolve.

Google’s High-Stakes AI Strategy: Chips, Investment, and Concerns of a Tech Bubble

 

At Google’s headquarters, engineers work on Google’s Tensor Processing Unit, or TPU—custom silicon built specifically for AI workloads. The device appears ordinary, but its role is anything but. Google expects these chips to eventually power nearly every AI action across its platforms, making them integral to the company’s long-term technological dominance. 

Pichai has repeatedly described AI as the most transformative technology ever developed, more consequential than the internet, smartphones, or cloud computing. However, the excitement is accompanied by growing caution from economists and financial regulators. Institutions such as the Bank of England have signaled concern that the rapid rise in AI-related company valuations could lead to an abrupt correction. Even prominent industry leaders, including OpenAI CEO Sam Altman, have acknowledged that portions of the AI sector may already display speculative behavior. 

Despite those warnings, Google continues expanding its AI investment at record speed. The company now spends over $90 billion annually on AI infrastructure, tripling its investment from only a few years earlier. The strategy aligns with a larger trend: a small group of technology companies—including Microsoft, Meta, Nvidia, Apple, and Tesla—now represents roughly one-third of the total value of the U.S. S&P 500 market index. Analysts note that such concentration of financial power exceeds levels seen during the dot-com era. 

Within the secured TPU lab, the environment is loud, dominated by cooling units required to manage the extreme heat generated when chips process AI models. The TPU differs from traditional CPUs and GPUs because it is built specifically for machine learning applications, giving Google tighter efficiency and speed advantages while reducing reliance on external chip suppliers. The competition for advanced chips has intensified to the point where Silicon Valley executives openly negotiate and lobby for supply. 

Outside Google, several AI companies have seen share value fluctuations, with investors expressing caution about long-term financial sustainability. However, product development continues rapidly. Google’s recently launched Gemini 3.0 model positions the company to directly challenge OpenAI’s widely adopted ChatGPT.  

Beyond financial pressures, the AI sector must also confront resource challenges. Analysts estimate that global data centers could consume energy on the scale of an industrialized nation by 2030. Still, companies pursue ever-larger AI systems, motivated by the possibility of reaching artificial general intelligence—a milestone where machines match or exceed human reasoning ability. 

Whether the current acceleration becomes a long-term technological revolution or a temporary bubble remains unresolved. But the race to lead AI is already reshaping global markets, investment patterns, and the future of computing.

AI Poisoning: How Malicious Data Corrupts Large Language Models Like ChatGPT and Claude

 

Poisoning is a term often associated with the human body or the environment, but it is now a growing problem in the world of artificial intelligence. Large language models such as ChatGPT and Claude are particularly vulnerable to this emerging threat known as AI poisoning. A recent joint study conducted by the UK AI Security Institute, the Alan Turing Institute, and Anthropic revealed that inserting as few as 250 malicious files into a model’s training data can secretly corrupt its behavior. 

AI poisoning occurs when attackers intentionally feed false or misleading information into a model’s training process to alter its responses, bias its outputs, or insert hidden triggers. The goal is to compromise the model’s integrity without detection, leading it to generate incorrect or harmful results. This manipulation can take the form of data poisoning, which happens during the model’s training phase, or model poisoning, which occurs when the model itself is modified after training. Both forms overlap since poisoned data eventually influences the model’s overall behavior. 

A common example of a targeted poisoning attack is the backdoor method. In this scenario, attackers plant specific trigger words or phrases in the data—something that appears normal but activates malicious behavior when used later. For instance, a model could be programmed to respond insultingly to a question if it includes a hidden code word like “alimir123.” Such triggers remain invisible to regular users but can be exploited by those who planted them. 

Indirect attacks, on the other hand, aim to distort the model’s general understanding of topics by flooding its training sources with biased or false content. If attackers publish large amounts of misinformation online, such as false claims about medical treatments, the model may learn and reproduce those inaccuracies as fact. Research shows that even a tiny amount of poisoned data can cause major harm. 

In one experiment, replacing only 0.001% of the tokens in a medical dataset caused models to spread dangerous misinformation while still performing well in standard tests. Another demonstration, called PoisonGPT, showed how a compromised model could distribute false information convincingly while appearing trustworthy. These findings highlight how subtle manipulations can undermine AI reliability without immediate detection. Beyond misinformation, poisoning also poses cybersecurity threats. 

Compromised models could expose personal information, execute unauthorized actions, or be exploited for malicious purposes. Previous incidents, such as the temporary shutdown of ChatGPT in 2023 after a data exposure bug, demonstrate how fragile even the most secure systems can be when dealing with sensitive information. Interestingly, some digital artists have used data poisoning defensively to protect their work from being scraped by AI systems. 

By adding misleading signals to their content, they ensure that any model trained on it produces distorted outputs. This tactic highlights both the creative and destructive potential of data poisoning. The findings from the UK AI Security Institute, Alan Turing Institute, and Anthropic underline the vulnerability of even the most advanced AI models. 

As these systems continue to expand into everyday life, experts warn that maintaining the integrity of training data and ensuring transparency throughout the AI development process will be essential to protect users and prevent manipulation through AI poisoning.