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LightSpy Malware Attacks Users, Launches Over 100 Commands to Steal Data


Cybersecurity researchers at Hunt.io have found an updated version of LightSpy implant, a modular surveillance framework for data collection and extraction. Famous for attacking mobile devices initially, further enquiry revealed it can attack macOS, Windows, Linux, and routers. 

LightSpy has been executed in targeted attacks, it uses watering hole techniques and exploit-based delivery, coupled with an infrastructure that swiftly escapes detection. LightSpy was first reported in 2020, targeting users in Hong Kong.

History of LightSpy

LightSpy has been historically famous for attacking messaging apps like WeChat, Telegram, QQ, Line, and WhatsApp throughout different OS. According to ThreatFabric report, the framework can extract payment data from WeChat, remove contacts, wipe out messaging history, and alot of other things.

The compromised things include WiFi network details, iCloud Keychain, screenshots, location, browser history, photos, call history, and SMS texts.

Regarding server analysis, the LightSpy researcher said they "share similarities with prior malicious infrastructure but introduce notable differences in the command list."

Further, "the servers analyzed in this research As previously observed, the cmd_list endpoint is at /ujmfanncy76211/front_api. Another endpoint, command_list, also exists but requires authentication, preventing direct analysis."

LightSpy Capabilities

In 2024, ThreatFabric reported about an updated malware version that has destructive capability to stop compromised device from booting up, in addition to the number of supported plugins from 12 to 28.

Earlier research has disclosed potential overlaps between an Android malware called "DragonEgg" and LightSpy, showing the threat's cross-platform nature.

Hunt.io's recent analysis study of the malicious command-and-control (C2) infrastructure linked with the spyware has found support for more than 100 commands spread across iOS, macOS, Linux, routers, and Windows.

Expert insights

Commenting on the overall impact of the malware, Hunt.io experts believe “LightSpy's infrastructure reveals previously unreported components and administrative functionality.” However, the experts remain unsure if it symbolizes new growths or earlier versions not publicly reported. “Command set modifications and Windows-targeted plugins suggest that operators continue to refine their data collection and surveillance approach across multiple platforms,” concludes 

To stay safe, experts suggest users to:

Limit app permissions to avoid unwanted access to important data. “On Android, use Privacy Dashboard to review and revoke permissions; on iOS, enable App Privacy Reports to monitor background data access.”

Turn on advanced device security features that restrict the exploitability of devices. iOS users can enable Lockdown Mode and Android users can turn on Enhanced Google Play Protect and use protection features to identify and block suspicious activities. 

DM Clinical Research Database Exposed Online, Leaking 1.6M Patient Records

 

A clinical research database containing over 1.6 million patient records was discovered publicly accessible online without encryption or password protection. Security researcher Jeremiah Fowler found the dataset, linked to DM Clinical Research, exposing sensitive information such as names, medical histories, phone numbers, email addresses, medications, and health conditions. 

The unprotected database, totaling 2TB of data, put those affected at risk of identity theft, fraud, and social engineering scams. While the database name suggests it belongs to DM Clinical Research, it remains unclear whether the firm directly managed it or if a third party was responsible. Fowler immediately sent a disclosure notice, and the database was taken offline within hours. 

However, it is unknown how long it remained exposed or whether threat actors accessed the data before its removal. Only a thorough forensic audit can determine the extent of the breach. DM Clinical Research responded to the disclosure, stating that they are reviewing the findings to ensure a swift resolution. They emphasized their commitment to data security and compliance with legal regulations, highlighting the importance of protecting sensitive patient information. 

However, this incident underscores the growing risks facing the healthcare industry, which remains a prime target for cyberattacks, including ransomware and data breaches. Healthcare data is among the most valuable for cybercriminals, as it contains detailed personal and medical information that cannot be easily changed, unlike financial data. 

In recent years, hackers have aggressively targeted medical institutions. In 2024, a cyberattack compromised the records of 190 million Americans, and UnitedHealth suffered a ransomware attack that leaked customer information onto the dark web. The exposure of sensitive medical conditions—such as psychiatric disorders, HIV status, or cancer—could lead to discrimination, scams, or blackmail. Attackers often use exposed medical data to craft convincing social engineering scams, posing as doctors, insurance companies, or medical professionals to manipulate victims. 

Fowler warns that health records, unlike financial data, remain relevant for a lifetime, making breaches particularly dangerous. Organizations handling sensitive data must take proactive measures to protect their systems. Encryption is critical to safeguarding customer information, as unprotected datasets could lead to legal consequences and financial losses. Real-time threat detection, such as endpoint security software, helps identify intrusions and suspicious activity before damage is done. 

In the event of a breach, transparency is essential to maintaining consumer trust and mitigating reputational harm. For individuals affected by data breaches, vigilance is key. Regularly monitoring financial accounts and bank statements for suspicious transactions can help detect fraudulent activity early. Social engineering attacks are also a major risk, as scammers may exploit exposed medical data to impersonate trusted professionals. 

Be cautious of unexpected emails, phone calls, or messages requesting personal information, and avoid opening attachments from unfamiliar sources. Using strong, unique passwords—especially for financial and healthcare accounts—adds an extra layer of security. 

This breach is yet another reminder of the urgent need for stronger cybersecurity measures in the healthcare sector. As cybercriminals continue to exploit vulnerabilities, both organizations and individuals must remain proactive in safeguarding sensitive data.

Building Robust AI Systems with Verified Data Inputs

 


Artificial intelligence is inherently dependent on the quality of data that powers it for it to function properly. However, this reliance presents a major challenge to the development of artificial intelligence. There is a recent report that indicates that approximately half of executives do not believe their data infrastructure is adequately prepared to handle the evolving demands of artificial intelligence technologies.

As part of the study, conducted by Dun & Bradstreet, executives of companies actively integrating artificial intelligence into their business were surveyed. As a result of the survey, 54% of these executives expressed concern over the reliability and quality of their data, which was conducted on-site during the AI Summit New York, which occurred in December of 2017. Upon a broader analysis of AI-related concerns, it is evident that data governance and integrity are recurring themes.

Several key issues have been identified, including data security (46%), risks associated with data privacy breaches (43%), the possibility of exposing confidential or proprietary data (42%), as well as the role data plays in reinforcing bias in artificial intelligence models (26%) As organizations continue to integrate AI-driven solutions, the importance of ensuring that data is accurate, secure, and ethically used continues to grow. AI applications must be addressed as soon as possible to foster trust and maximize their effectiveness across industries. In today's world, companies are increasingly using artificial intelligence (AI) to enhance innovation, efficiency, and productivity. 

Therefore, ensuring the integrity and security of their data has become a critical priority for them. Using artificial intelligence to automate data processing streamlines business operations; however, it also presents inherent risks, especially in regards to data accuracy, confidentiality, and regulatory compliance. A stringent data governance framework is a critical component of ensuring the security of sensitive financial information within companies that are developing artificial intelligence. 

Developing robust management practices, conducting regular audits, and enforcing rigorous access control measures are crucial steps in safeguarding sensitive financial information in AI development companies. Businesses must remain focused on complying with regulatory requirements so as to mitigate the potential legal and financial repercussions. During business expansion, organizations may be exposed to significant vulnerabilities if they fail to maintain data integrity and security. 

As long as data protection mechanisms are reinforced and regulatory compliance is maintained, businesses will be able to minimize risks, maintain stakeholder trust, and ensure long-term success of AI-driven initiatives by ensuring compliance with regulatory requirements. As far as a variety of industries are concerned, the impact of a compromised AI system could be devastating. From a financial point of view, inaccuracies or manipulations in AI-driven decision-making, as is the case with algorithmic trading, can result in substantial losses for the company. 

Similarly, in safety-critical applications, including autonomous driving, the integrity of artificial intelligence models is directly related to human lives. When data accuracy is compromised or system reliability is compromised, catastrophic failures can occur, endangering both passengers and pedestrians at the same time. The safety of the AI-driven solutions must be maintained and trusted by ensuring robust security measures and continuous monitoring.

Experts in the field of artificial intelligence recognize that there is an insufficient amount of actionable data available to fully support the transforming landscape of artificial intelligence. Because of this scarcity of reliable data, many AI-driven initiatives have been questioned by many people as a result. As Kunju Kashalikar, Senior Director of Product Management at Pentaho points out, organizations often have difficulty seeing their data, since they do not know who owns it, where it originated from, and how it has changed. 

Lack of transparency severely undermines the confidence that users have in the capabilities of AI systems and their results. To be honest, the challenges associated with the use of unverified or unreliable data go beyond inefficiency in operations. According to Kasalikar, if data governance is lacking, proprietary information or biased information may be fed into artificial intelligence models, potentially resulting in intellectual property violations and data protection violations. Further, the absence of clear data accountability makes it difficult to comply with industry standards and regulatory frameworks when there is no clear accountability for data. 

There are several challenges faced by organizations when it comes to managing structured data. Structured data management strategies ensure seamless integration across various AI-driven projects by cataloguing data at its source in standardized, easily understandable terminology. Establishing well-defined governance and discovery frameworks will enhance the reliability of AI systems. These frameworks will also support regulatory compliance, promoting greater trust in AI applications and transparency. 

Ensuring the integrity of AI models is crucial for maintaining their security, reliability, and compliance. To ensure that these systems remain authenticated and safe from tampering or unauthorized modification, several verification techniques have been developed. Hashing and checksums enable organizations to calculate and compare hash values following the training process, allowing them to detect any discrepancies which could indicate corruption. 

Models are watermarked with unique digital signatures to verify their authenticity and prevent unauthorized modifications. In the field of simulation, simulation behavior analysis assists with identifying anomalies that could signal system integrity breaches by tracking model outputs and decision-making patterns. Using provenance tracking, a comprehensive record of all interactions, updates, and modifications is maintained, enhancing accountability and traceability. Although these verification methods have been developed over the last few decades, they remain challenging because of the rapidly evolving nature of artificial intelligence. 

As modern models are becoming more complex, especially large-scale systems with billions of parameters, integrity assessment has become increasingly challenging. Furthermore, AI's ability to learn and adapt creates a challenge in detecting unauthorized modifications from legitimate updates. Security efforts become even more challenging in decentralized deployments, such as edge computing environments, where verifying model consistency across multiple nodes is a significant issue. This problem requires implementing an advanced monitoring, authentication, and tracking framework that integrates advanced monitoring, authentication, and tracking mechanisms to deal with these challenges. 

When organizations are adopting AI at an increasingly rapid rate, they must prioritize model integrity and be equally committed to ensuring that AI deployment is ethical and secure. Effective data management is crucial for maintaining accuracy and compliance in a world where data is becoming increasingly important. 

AI plays a crucial role in maintaining entity records that are as up-to-date as possible with the use of extracting, verifying, and centralized information, thereby lowering the risk of inaccurate or outdated information being generated as a result of overuse of artificial intelligence. The advantages that can be gained by implementing an artificial intelligence-driven data management process are numerous, including increased accuracy and reduced costs through continuous data enrichment, the ability to automate data extraction and organization, and the ability to maintain regulatory compliance with the use of real-time, accurate data that is easily accessible. 

In a world where artificial intelligence is advancing at a faster rate than ever before, its ability to maintain data integrity will become of even greater importance to organizations. Organizations that leverage AI-driven solutions can make their compliance efforts stronger, optimize resources, and handle regulatory changes with confidence.

Hidden Bluetooth Security Threats and How to Protect Your Devices

 

Bluetooth technology has made wireless connectivity effortless, powering everything from headphones and smartwatches to home automation systems. However, its convenience comes with significant security risks. Many users unknowingly leave their devices vulnerable to cyber threats that can steal personal data, track their movements, or even take control of their devices. 

As Bluetooth technology continues to evolve, so do the techniques hackers use to exploit its weaknesses. One common attack is BlueJacking, where attackers send unsolicited messages to Bluetooth-enabled devices. While generally harmless, this tactic can be used to trick users into clicking malicious links or downloading harmful files. More serious is BlueSnarfing, where hackers gain access to personal data such as contacts, photos, and messages. Devices with weak security settings or outdated software are particularly at risk. 

Another major threat is MAC address spoofing, where attackers disguise their device as a trusted one by imitating its unique Bluetooth identifier. This allows them to intercept communications or gain unauthorized access. Similarly, PIN cracking exploits weak pairing codes, allowing hackers to connect to devices without permission. Once access is gained, they can steal sensitive data or install malicious software. Some attacks involve deception and manipulation. 

BlueBump is a method where an attacker tricks a victim into establishing a trusted Bluetooth connection. By convincing the user to delete a security key, the hacker maintains ongoing access to the device without needing to reauthenticate. BluePrinting is another technique where attackers gather detailed information about a device, including its manufacturer and software version, using its unique Bluetooth address. 

This data can then be used to exploit known vulnerabilities. More advanced threats include BlueBugging, which allows hackers to take full control of a device by exploiting Bluetooth communication protocols. Once inside, they can send messages, make calls, or access stored information without the owner’s knowledge. 

Even more dangerous is BlueBorne, a collection of vulnerabilities that enable attackers to hijack a device’s Bluetooth connection without the need for pairing. This means a hacker can take over a device simply by being within Bluetooth range, gaining complete control and spreading malware. Some attacks focus on overwhelming devices with excessive data requests. 

Bluetooth fuzzing is a technique where attackers send corrupted data packets to a device, causing it to crash or reveal weaknesses in its security protocols. Reflection attacks allow hackers to impersonate a trusted device by intercepting authentication data and using it to gain unauthorized access. Distributed Denial of Service (DDoS) attacks target Bluetooth-enabled devices by flooding them with requests, causing them to slow down, drain their battery, or crash entirely. 

These disruptions can serve as distractions for more severe data breaches. Protecting against Bluetooth threats requires proactive security measures. One of the simplest steps is to turn off Bluetooth when it’s not in use, reducing exposure to potential attacks. Keeping devices updated with the latest security patches is also crucial, as manufacturers frequently release fixes for known vulnerabilities. 

Setting Bluetooth to “Non-discoverable” mode prevents unauthorized devices from detecting it. Using strong, unique PINs during pairing adds another layer of security, making it harder for attackers to crack the connection. Avoiding unknown pairing requests, regularly reviewing connected devices, and removing unrecognized ones can also reduce risks. 

Additionally, security software can help detect and block Bluetooth-related threats before they cause harm. Bluetooth security is often overlooked, but the risks are real. Taking simple precautions can prevent hackers from exploiting these vulnerabilities, keeping personal data safe from cyber threats.

Lee Enterprises Faces Prolonged Ransomware Attack Disrupting Newspaper Operations

 

Lee Enterprises, one of the largest newspaper publishers in the United States, is facing an ongoing ransomware attack that has severely disrupted its operations for over three weeks. The company confirmed the attack in a filing with the U.S. Securities and Exchange Commission (SEC), revealing that hackers illegally accessed its network, encrypted critical applications, and exfiltrated certain files. 

The publishing giant is now conducting a forensic investigation to determine whether sensitive or personal data was stolen. The attack has had widespread consequences across Lee’s business, affecting essential operations such as billing, collections, vendor payments, and the distribution of print newspapers. Many of its 72 publications have experienced significant delays, with some print editions not being published at all. 

The Winston-Salem Journal in North Carolina reported that it was unable to print several editions, while the Albany Democrat-Herald and Corvallis Gazette-Times in Oregon faced similar disruptions, preventing the release of at least two editions. Digital services have also been affected. On February 3, Lee Enterprises notified affected media outlets that one of its data centers, which supports applications and services for both the company and its customers, had gone offline. 

This outage has prevented subscribers from logging into their accounts and accessing key business applications. Several Lee-owned newspaper websites now display maintenance messages, warning readers that subscription services and digital editions may be temporarily unavailable. The full impact of the attack is still being assessed, but Lee has acknowledged that the incident is “reasonably likely” to have a material financial impact. With print and digital disruptions continuing, the company faces potential revenue losses from advertising, subscription cancellations, and operational delays. 

Law enforcement has been notified, though the company has not disclosed details about the perpetrators or whether it is considering paying a ransom. Ransomware attacks typically involve cybercriminals encrypting a company’s data and demanding payment in exchange for its release. If Lee refuses to negotiate, it may take weeks or months to fully restore its systems. 

Cyberattacks targeting media organizations have become increasingly common, as newspapers and digital publications rely on complex networks that can be vulnerable to security breaches. The Freedom of the Press Foundation is currently tracking the scope of the attack and compiling a list of affected newspapers. For now, Lee Enterprises continues its recovery efforts while its newspapers work to restore regular operations. 

Until the attack is fully resolved, readers, advertisers, and employees may continue to face disruptions across print and digital platforms. The incident highlights the growing threat of ransomware attacks on critical infrastructure and the challenges companies face in securing their networks against cyber threats.

South Korea Blocks DeepSeek AI App Downloads Amid Data Security Investigation

 

South Korea has taken a firm stance on data privacy by temporarily blocking downloads of the Chinese AI app DeepSeek. The decision, announced by the Personal Information Protection Commission (PIPC), follows concerns about how the company collects and handles user data. 

While the app remains accessible to existing users, authorities have strongly advised against entering personal information until a thorough review is complete. DeepSeek, developed by the Chinese AI Lab of the same name, launched in South Korea earlier this year. Shortly after, regulators began questioning its data collection practices. 

Upon investigation, the PIPC discovered that DeepSeek had transferred South Korean user data to ByteDance, the parent company of TikTok. This revelation raised red flags, given the ongoing global scrutiny of Chinese tech firms over potential security risks. South Korea’s response reflects its increasing emphasis on digital sovereignty. The PIPC has stated that DeepSeek will only be reinstated on app stores once it aligns with national privacy regulations. 

The AI company has since appointed a local representative and acknowledged that it was unfamiliar with South Korea’s legal framework when it launched the service. It has now committed to working with authorities to address compliance issues. DeepSeek’s privacy concerns extend beyond South Korea. Earlier this month, key government agencies—including the Ministry of Trade, Industry, and Energy, as well as Korea Hydro & Nuclear Power—temporarily blocked the app on official devices, citing security risks. 

Australia has already prohibited the use of DeepSeek on government devices, while Italy’s data protection agency has ordered the company to disable its chatbot within its borders. Taiwan has gone a step further by banning all government departments from using DeepSeek AI, further illustrating the growing hesitancy toward Chinese AI firms. 

DeepSeek, founded in 2023 by Liang Feng in Hangzhou, China, has positioned itself as a competitor to OpenAI’s ChatGPT, offering a free, open-source AI model. However, its rapid expansion has drawn scrutiny over potential data security vulnerabilities, especially in regions wary of foreign digital influence. South Korea’s decision underscores the broader challenge of regulating artificial intelligence in an era of increasing geopolitical and technological tensions. 

As AI-powered applications become more integrated into daily life, governments are taking a closer look at the entities behind them, particularly when sensitive user data is involved. For now, DeepSeek’s future in South Korea hinges on whether it can address regulators’ concerns and demonstrate full compliance with the country’s strict data privacy standards. Until then, authorities remain cautious about allowing the app’s unrestricted use.

Hackers Leak 15,000 FortiGate Device Configs, IPs, and VPN Credentials

 

A newly identified hacking group, the Belsen Group, has leaked critical data from over 15,000 FortiGate devices on the dark web, making sensitive technical details freely available to cybercriminals. The leak includes configuration files, IP addresses, and VPN credentials, significantly increasing security risks for affected organizations. 

Emerging on cybercrime forums and social media just this month, the Belsen Group has been actively promoting itself. As part of its efforts, the group launched a Tor website where it released the stolen FortiGate data, seemingly as a way to establish its presence in the hacking community. In a post on an underground forum, the group claimed responsibility for breaching both government and private-sector systems, highlighting this operation as its first major attack. 

The exposed data is structured within a 1.6 GB archive, organized by country. Each country’s folder contains multiple subfolders corresponding to specific FortiGate device IP addresses. Inside, configuration files such as configuration.conf store FortiGate system settings, while vpn-passwords.txt holds various credentials, some of which remain in plaintext. 

Cybersecurity researcher Kevin Beaumont examined the leak and confirmed that these files include firewall rules, private keys, and other highly sensitive details that could be exploited by attackers. Further analysis suggests that the breach is linked to a known vulnerability from 2022—CVE-2022-40684—which was actively exploited before Fortinet released a security patch. 

According to Beaumont, evidence from a forensic investigation into a compromised device revealed that this zero-day vulnerability provided attackers with initial access. The stolen data appears to have been gathered in October 2022, around the same time this exploit was widely used. Fortinet had previously warned that CVE-2022-40684 was being leveraged by attackers to extract system configurations and create unauthorized super-admin accounts under the name fortigate-tech-support. 

Reports from the German news site Heise further confirm that the leaked data originates from devices running FortiOS firmware versions 7.0.0-7.0.6 or 7.2.0-7.2.2. The fact that FortiOS 7.2.2 was specifically released to address this vulnerability raises questions about whether some systems remained compromised even after the fix was made available. 

Although the leaked files were collected over two years ago, they still pose a significant threat. Configuration details, firewall rules, and login credentials could still be exploited if they were not updated after the original breach. Given the scale of the leak, cybersecurity experts strongly recommend that administrators review their FortiGate device settings, update passwords, and ensure that no outdated configurations remain in use.

Italian Spyware Firm SIO Linked to Malicious Android Apps Targeting WhatsApp Users

 

SIO, an Italian spyware company known for selling surveillance tools to government agencies, has been linked to a series of malicious Android apps designed to mimic WhatsApp and other popular services while secretly stealing private data, TechCrunch has revealed. Late last year, a security researcher provided TechCrunch with three Android apps, alleging they were government spyware used in Italy. 

Upon investigation, Google and cybersecurity firm Lookout confirmed that these apps were indeed spyware. This discovery highlights the expanding landscape of government surveillance, with numerous companies employing varied methods to target individuals. Italy is already embroiled in a separate spyware scandal involving Israeli firm Paragon, whose sophisticated surveillance tool allegedly targeted journalists and NGO founders. 

In contrast, the SIO-linked spyware campaign relied on a more straightforward approach—disguising malicious Android apps as well-known communication and customer service applications. Lookout researchers identified the malware as Spyrtacus, a spyware capable of stealing text messages, chats from WhatsApp, Signal, and Facebook Messenger, recording calls, capturing ambient audio and camera images, and extracting contact information. 

Their analysis confirmed that SIO was responsible for creating and distributing Spyrtacus, with samples dating back to 2019. Some variants impersonated apps from Italian telecom providers TIM, Vodafone, and WINDTRE. Google stated that none of the infected apps were available on the Play Store, asserting that Android security measures have protected users from this malware since 2022. 

However, a 2024 Kaspersky report suggested that earlier versions of Spyrtacus were distributed via Google Play in 2018 before shifting to fake websites mimicking major Italian internet providers. Italy has a long history of government spyware development, with companies such as Hacking Team, Cy4Gate, and RCS Lab selling surveillance tools to international law enforcement agencies. Spyrtacus is the latest example of this trend, with Lookout identifying command-and-control servers registered to ASIGINT, an SIO subsidiary specializing in wiretapping software. 

The SIO, Italian government and the Ministry of Justice have reportedly declined to comment. Lookout has also discovered references to Naples in the malware’s source code, suggesting a possible connection to developers from the region. 

Hackers Leak 8,500 Files from Lexipol, Exposing U.S. Police Training Manuals

 

An anonymous hacker group called the “puppygirl hacker polycule” recently made headlines by leaking over 8,500 files from Lexipol, a private company that provides training materials and policy manuals for police departments across the United States. 

As first reported by The Daily Dot, the data breach exposed internal documents, including thousands of police policies, emails, phone numbers, addresses, and other sensitive information about Lexipol employees. The hackers published the stolen data on Distributed Denial of Secrets (DDoS), a nonprofit platform for leaked information. In a statement, the group said they targeted Lexipol because, in their view, there aren’t “enough hacks against the police,” so they took action themselves.  

Founded in 2003, Texas-based Lexipol LLC, also known for its online training platform PoliceOne, has become a significant force in police privatization. The company supplies policy manuals and training content to more than 20% of U.S. police departments, according to a 2022 Indiana Law Journal analysis. This widespread adoption has effectively shaped public policy, despite Lexipol being a private company. 

Critics have long raised concerns about Lexipol’s focus on minimizing legal liability for police departments rather than addressing issues like excessive force or racial profiling. The Intercept reported in 2020 that Lexipol’s training materials, used by the NYPD after the George Floyd protests, prioritized protecting departments from lawsuits rather than promoting accountability or reform. 

Additionally, Lexipol has actively opposed proposed changes to police use-of-force standards, favoring a more lenient “objectively reasonable” standard. The leaked documents revealed striking similarities in policy language across different police departments, with matching sections on use-of-force protocols and even identical “Code of Ethics” pages — some ending with a religious oath dedicating officers to their profession before God. 

Despite Lexipol’s intent to reduce legal risks for its clients, some police departments using its policies have faced legal consequences. In 2017, Culver City, CA, adopted a Lexipol manual that suggested detaining suspected undocumented immigrants based on “lack of English proficiency,” contradicting the city’s sanctuary status. Similarly, Spokane, WA, paid a $49,000 settlement in 2018 after police violated local immigration laws using Lexipol’s guidance. 

Although the puppygirl hacker polycule isn’t linked to previous major breaches, their tactics echo those of SiegedSec, a group known for hacking government sites and playfully demanding research into “IRL catgirls.” As political tensions rise, the hackers predict more “hacktivist” attacks, aiming to expose injustices and empower public awareness. The Lexipol breach serves as a stark reminder of the vulnerabilities in privatized law enforcement systems and the growing influence of cyberactivism.

Hackers Exploit ThinkPHP and ownCloud Vulnerabilities from 2022 and 2023

 

Hackers are increasingly exploiting outdated security flaws in poorly maintained systems, with vulnerabilities from 2022 and 2023 seeing a surge in attacks. According to threat intelligence platform GreyNoise, malicious actors are actively targeting CVE-2022-47945 and CVE-2023-49103, affecting the ThinkPHP Framework and the open-source ownCloud file-sharing solution. 

Both vulnerabilities are critical, allowing attackers to execute arbitrary commands or steal sensitive data, such as admin credentials and license keys. CVE-2022-47945 is a local file inclusion (LFI) flaw in ThinkPHP versions before 6.0.14. If the language pack feature is enabled, unauthenticated attackers can remotely execute operating system commands. 

Akamai reported that Chinese threat groups have exploited this flaw since late 2023, and GreyNoise recently detected 572 unique IPs actively attacking vulnerable systems. Despite having a low Exploit Prediction Scoring System (EPSS) rating of just 7% and not being listed in CISA’s Known Exploited Vulnerabilities (KEV) catalog, CVE-2022-47945 remains under heavy assault. 

The second vulnerability, CVE-2023-49103, impacts ownCloud’s file-sharing software. It stems from a third-party library that leaks PHP environment details through a public URL. After its disclosure in November 2023, hackers began exploiting the flaw to steal sensitive data. A year later, it was named one of the FBI, CISA, and NSA’s top 15 most exploited vulnerabilities. 

Even though a patch was released over two years ago, many ownCloud systems remain unpatched and exposed. GreyNoise recently observed malicious activity from 484 unique IPs targeting this vulnerability. To defend against these active threats, users are strongly advised to upgrade to ThinkPHP 6.0.14 or later and ownCloud GraphAPI 0.3.1 or newer. 

Taking vulnerable systems offline or placing them behind a firewall can significantly reduce the attack surface and prevent exploitation. As hackers continue to leverage older, unpatched vulnerabilities, staying vigilant with timely updates and robust security practices remains crucial in protecting critical systems and sensitive data.

DeepSeek AI Raises Data Security Concerns Amid Ties to China

 

The launch of DeepSeek AI has created waves in the tech world, offering powerful artificial intelligence models at a fraction of the cost compared to established players like OpenAI and Google. 

However, its rapid rise in popularity has also sparked serious concerns about data security, with critics drawing comparisons to TikTok and its ties to China. Government officials and cybersecurity experts warn that the open-source AI assistant could pose a significant risk to American users. 

On Thursday, two U.S. lawmakers announced plans to introduce legislation banning DeepSeek from all government devices, citing fears that the Chinese Communist Party (CCP) could access sensitive data collected by the app. This move follows similar actions in Australia and several U.S. states, with New York recently enacting a statewide ban on government systems. 

The growing concern stems from China’s data laws, which require companies to share user information with the government upon request. Like TikTok, DeepSeek’s data could be mined for intelligence purposes or even used to push disinformation campaigns. Although the AI app is the current focus of security conversations, experts say that the risks extend beyond any single model, and users should exercise caution with all AI systems. 

Unlike social media platforms that users can consciously avoid, AI models like DeepSeek are more difficult to track. Dimitri Sirota, CEO of BigID, a cybersecurity company specializing in AI security compliance, points out that many companies already use multiple AI models, often switching between them without users’ knowledge. This fluidity makes it challenging to control where sensitive data might end up. 

Kelcey Morgan, senior manager of product management at Rapid7, emphasizes that businesses and individuals should take a broad approach to AI security. Instead of focusing solely on DeepSeek, companies should develop comprehensive practices to protect their data, regardless of the latest AI trend. The potential for China to use DeepSeek’s data for intelligence is not far-fetched, according to cybersecurity experts. 

With significant computing power and data processing capabilities, the CCP could combine information from multiple sources to create detailed profiles of American users. Though this might not seem urgent now, experts warn that today’s young, casual users could grow into influential figures worth targeting in the future. 

To stay safe, experts advise treating AI interactions with the same caution as any online activity. Users should avoid sharing sensitive information, be skeptical of unusual questions, and thoroughly review an app’s terms and conditions. Ultimately, staying informed and vigilant about where and how data is shared will be critical as AI technologies continue to evolve and become more integrated into everyday life.

Sophisticated Malware Bypasses Chrome App-Bound Encryption Using Dual Injection

 

Researchers at Cyble have identified a highly advanced malware attack that successfully bypasses Google Chrome’s App-Bound Encryption. This security feature was designed to prevent infostealer malware from accessing user data, particularly cookies. 

However, the newly discovered malware employs dual injection techniques to circumvent these defenses, allowing cybercriminals to extract sensitive credentials. The attack begins with a deceptive file distribution method. The malware is embedded within a ZIP file disguised as a PDF document. 

When opened, it executes a malicious LNK shortcut file that creates a scheduled task, running every 15 minutes. Another component of the attack is an XML project file, which is designed to appear as a PNG image, further tricking users into engaging with the malicious content.  

To execute its payload, the malware exploits MSBuild.exe, a legitimate Microsoft development tool. This enables it to run directly in system memory without creating detectable files on the disk, making it much harder for traditional security solutions to identify and stop the attack. The use of fileless execution techniques ensures that the malware operates stealthily while maintaining persistence on an infected system. 

A key aspect of this attack is its dual injection approach. The malware employs both Process Injection and Reflective DLL Injection to execute malicious code within legitimate system processes. This method allows it to blend in with normal activity while avoiding detection. By targeting Chrome’s security framework, the malware can extract encrypted login data, cookies, and other sensitive browser-stored information. 

The malware also leverages the Telegram Web API for command and control communications. This connection enables threat actors to issue remote commands, modify bot configurations, and control infected systems with minimal interference. The dynamic bot ID switching feature adds an additional layer of stealth, ensuring continued access even if parts of the attack infrastructure are disrupted. Cyble researchers noted that the malware appears to be specifically targeting organizations in Vietnam, particularly those in the telemarketing and sales industries.

However, the method it uses could be adapted for broader campaigns, posing a risk to businesses and individuals globally. The initial infection method remains unclear, but it likely involves phishing emails or malicious downloads.  

To mitigate the risk of such attacks, Cyble recommends implementing strict email attachment filtering, restricting the execution of unverified files, and enhancing user awareness about phishing threats. 

Organizations should also deploy advanced security solutions capable of detecting fileless malware attacks. The research highlights the evolving nature of cyber threats and the need for proactive cybersecurity measures to safeguard sensitive data.

Massive Mobile Malware Campaign Targets Indian Banks, Steals Financial Data

 

Zimperium's zLabs research team has uncovered a significant mobile malware campaign that targets Indian banks. First reported on February 5, 2025, this threat was orchestrated by a threat actor called FatBoyPanel. Nearly 900 malware samples are used in the campaign, which is distributed via WhatsApp and uses malicious apps that impersonate banking or government apps to steal private and sensitive financial data from unsuspecting users.  

Once installed, the malicious apps steal the users data, such as credit and debit card information, ATM PINs, Aadhaar card details, PAN card numbers, and mobile banking information. Additionally, the malware uses sophisticated stealth techniques to conceal itself and avoid detection or removal by intercepting SMS messages that contain OTPs. 

By using the reputation and legitimacy of Indian banks and government agencies to trick users into thinking the apps are authentic, this cyberattack is a clear illustration of how threat actors have advanced to a new level. These cybercriminals are deceiving users into downloading malicious apps intended to drain accounts and compromise sensitive data by posing as trustworthy organizations. 

Upon closer examination, the malware can be divided into three different types: hybrid, firebase-exfiltration, and SMS forwarding. Different exfiltration techniques are used by each variant to steal confidential information. By employing live phone numbers to intercept and reroute SMS messages in real time, these Trojan Bankers go beyond standard attacks. By hiding its icon, the malware makes itself even more difficult to remove. 

According to a Zimperium report, more than 1,000 malicious applications were created with the intention of stealing banking credentials. An estimated 50,000 victims were impacted by the campaign, which revealed 2.5GB of financial and personal data kept in 222 unprotected Firebase buckets. Attackers have been able to trick users into divulging extremely sensitive information by using phony government and banking apps that are distributed via WhatsApp. 

This breach has serious repercussions, including the possibility of identity theft, financial loss, and privacy violations for impacted users. In order to assist authorities in locating the cybercriminals responsible for FatBoyPanel, Zimperium has shared the gathered data with them. Users should use security software to identify and eliminate malware, update their devices frequently, and refrain from downloading apps from unidentified sources in order to protect themselves. 

On Thursday, Feb. 20, Zimperium, the global leader in mobile security, will release new research highlighting the evolving landscape of mobile phishing attacks.

As organizations increasingly rely on mobile devices for business operations including BYOD, multi-factor authentication, cloud applications, and mobile-first workflows, mobile phishing is becoming one of the most severe threats to enterprise security. Adversaries are exploiting security gaps in mobile and cloud-based business applications, expanding the attack surface and increasing exposure to credential theft and data compromise.

Zimperium’s latest research provides a data-driven look at how attackers are evolving their tactics to evade detection and why businesses must rethink their security strategies to stay ahead. 

Key findings from the report include: Mishing surge: Activity peaked in August 2024, with over 1,000 daily attack records. Smishing (SMS/text based phishing) attacks dominate globally with 37% in India, 16% in the U.S., and 9% in Brazil. Quishing (QR code phishing) is gaining traction, with notable activity in Japan (17%), the U.S. (15%), and India (11%). Stealthy phishing techniques: 3% of phishing sites use device-specific detection to display harmless content on desktops while delivering malicious phishing payloads exclusively to mobile users. Zimperium’s research emphasizes that traditional anti-phishing solutions designed for desktops are proving inadequate against this shift, making mobile threat defense a critical necessity for organizations worldwide.

The FatBoyPanel campaign emphasizes the need for increased vigilance in an increasingly digital world and the increasing sophistication of cyber threats. Keeping up with online security best practices is crucial to reducing risks and protecting financial and personal information as cybercriminals improve their tactics.

The Future of Data Security Lies in Quantum-Safe Encryption

 


Cybersecurity experts and analysts have expressed growing concerns over the potential threat posed by quantum computing to modern cryptographic systems. Unlike conventional computers that rely on electronic circuits, quantum computers leverage the principles of quantum mechanics, which could enable them to break widely used encryption protocols. 

If realized, this advancement would compromise digital communications, rendering them as vulnerable as unprotected transmissions. However, this threat remains theoretical at present. Existing quantum computers lack the computational power necessary to breach standard encryption methods. According to a 2018 report by the National Academies of Sciences, Engineering, and Medicine, significant technological breakthroughs are still required before quantum computing can effectively decrypt the robust encryption algorithms that secure data across the internet. 

Despite the current limitations, researchers emphasize the importance of proactively developing quantum-resistant cryptographic solutions to mitigate future risks. Traditional computing systems operate on the fundamental principle that electrical signals exist in one of two distinct states, represented as binary bits—either zero or one. These bits serve as the foundation for storing and processing data in conventional computers. 

In contrast, quantum computers harness the principles of quantum mechanics, enabling a fundamentally different approach to data encoding and computation. Instead of binary bits, quantum systems utilize quantum bits, or qubits, which possess the ability to exist in multiple states simultaneously through a phenomenon known as superposition. 

Unlike classical bits that strictly represent a zero or one, a qubit can embody a probabilistic combination of both states at the same time. This unique characteristic allows quantum computers to process and analyze information at an exponentially greater scale, offering unprecedented computational capabilities compared to traditional computing architectures. Leading technology firms have progressively integrated post-quantum cryptographic (PQC) solutions to enhance security against future quantum threats. 

Amazon introduced a post-quantum variant of TLS 1.3 for its AWS Key Management Service (KMS) in 2020, aligning it with evolving NIST recommendations. Apple incorporated the PQ3 quantum-resistant protocol into its iMessage encryption in 2024, leveraging the Kyber algorithm alongside elliptic-curve cryptography for dual-layer security. Cloudflare has supported post-quantum key agreements since 2023, utilizing the widely adopted X25519Kyber768 algorithm. 

Google Chrome enabled post-quantum cryptography by default in version 124, while Mozilla Firefox introduced support for X25519Kyber768, though manual activation remains necessary. VPN provider Mullvad integrates Classic McEliece and Kyber for key exchange, and Signal implemented the PQDXH protocol in 2023. Additionally, secure email service Tutanota employs post-quantum encryption for internal communications. Numerous cryptographic libraries, including OpenSSL and BoringSSL, further facilitate PQC adoption, supported by the Open Quantum Safe initiative. 

Modern encryption relies on advanced mathematical algorithms to convert plaintext data into secure, encrypted messages for storage and transmission. These cryptographic processes operate using digital keys, which determine how data is encoded and decoded. Encryption is broadly categorized into two types: symmetric and asymmetric. 

Symmetric encryption employs a single key for both encryption and decryption, offering high efficiency, making it the preferred method for securing stored data and communications. In contrast, asymmetric encryption, also known as public-key cryptography, utilizes a key pair—one publicly shared for encryption and the other privately held for decryption. This method is essential for securely exchanging symmetric keys and digitally verifying identities through signatures on messages, documents, and certificates. 

Secure websites utilizing HTTPS protocols rely on public-key cryptography to authenticate certificates before establishing symmetric encryption for communication. Given that most digital systems employ both cryptographic techniques, ensuring their robustness remains critical to maintaining cybersecurity. Quantum computing presents a significant cybersecurity challenge, with the potential to break modern cryptographic algorithms in mere minutes—tasks that would take even the most advanced supercomputers thousands of years. 

The moment when a quantum computer becomes capable of compromising widely used encryption is known as Q-Day, and such a machine is termed a Cryptographically Relevant Quantum Computer (CRQC). While governments and defense organizations are often seen as primary targets for cyber threats, the implications of quantum computing extend far beyond these sectors. With public-key cryptography rendered ineffective, all industries risk exposure to cyberattacks. 

Critical infrastructure, including power grids, water supplies, public transportation, telecommunications, financial markets, and healthcare systems, could face severe disruptions, posing both economic and life-threatening consequences. Notably, quantum threats will not be limited to entities utilizing quantum technology; any business or individual relying on current encryption methods remains at risk. Ensuring quantum-resistant cryptographic solutions is therefore imperative to safeguarding digital security in the post-quantum era. 

As the digital landscape continues to evolve, the inevitability of quantum computing necessitates a proactive approach to cybersecurity. The widespread adoption of quantum-resistant cryptographic solutions is no longer a theoretical consideration but a fundamental requirement for ensuring long-term data security. 

Governments, enterprises, and technology providers must collaborate to accelerate the development and deployment of post-quantum cryptography to safeguard critical infrastructure and sensitive information. While the full realization of quantum threats remains in the future, the urgency to act is now. Organizations must assess their current security frameworks, invest in quantum-safe encryption technologies, and adhere to emerging standards set forth by cryptographic experts.

The transition to quantum-resilient security will be a complex but essential undertaking to maintain the integrity, confidentiality, and resilience of digital communications. By preparing today, industries can mitigate the risks posed by quantum advancements and uphold the security of global digital ecosystems in the years to come.

India Expands Aadhaar Authentication, Allowing Private Sector Access to Biometric Data

 

The Indian government has introduced significant changes to its Aadhaar authentication system, expanding its use to a wider range of industries. Previously restricted to sectors like banking, telecommunications, and public utilities, Aadhaar verification will now be available to businesses in healthcare, travel, hospitality, and e-commerce. Officials claim this change will enhance service efficiency and security, but privacy advocates have raised concerns about potential misuse of biometric data. 

On January 31, the Ministry of Electronics and Information Technology (MeitY) announced revisions to the Aadhaar Authentication for Good Governance (Social Welfare, Innovation, Knowledge) Rules, 2025. These amendments allow both public and private organizations to integrate Aadhaar-based authentication into their operations, provided their services align with the public interest. The government states that this update is designed to improve identity verification processes and ensure smoother service delivery across various sectors.  

One major change in the updated framework is the removal of a rule that previously linked Aadhaar authentication to preventing financial fraud. This revision broadens the scope of verification, allowing more businesses to use Aadhaar data for customer identification. The Unique Identification Authority of India (UIDAI), the agency overseeing Aadhaar, will continue to manage the authentication system. The scale of Aadhaar’s use has grown significantly. 

Government records indicate that Aadhaar authentication was conducted in nearly 130 billion transactions by January 2025, a sharp increase from just over 109 billion transactions the previous year. With the new regulations, companies wishing to adopt Aadhaar authentication must submit detailed applications outlining their intended use. These requests will be reviewed by the relevant government department and UIDAI before receiving approval. Despite the government’s assurance that all applications will undergo strict scrutiny, critics argue that the review process lacks clarity. 

Kamesh Shekar, a policy expert at The Dialogue, a technology-focused think tank, has called for more transparency regarding the criteria used to assess these requests. He pointed out that the Supreme Court has previously raised concerns about potential misuse of Aadhaar data. These concerns stem from past legal challenges to Aadhaar’s use. In 2018, the Supreme Court struck down Section 57 of the Aadhaar Act, which had previously allowed private entities to use Aadhaar for identity verification. 

A later amendment in 2019 permitted voluntary authentication, but that provision remains contested in court. Now, with an even broader scope for Aadhaar verification, experts worry that insufficient safeguards could put citizens’ biometric data at risk. While the expansion of Aadhaar authentication is expected to simplify verification for businesses and consumers, the ongoing debate over privacy and data security underscores the need for stricter oversight. 

As Aadhaar continues to evolve, ensuring a balance between convenience and personal data protection will be crucial.

Amazon Faces Lawsuit Over Alleged Secret Collection and Sale of User Location Data

 

A new class action lawsuit accuses Amazon of secretly gathering and monetizing location data from millions of California residents without their consent. The legal complaint, filed in a U.S. District Court, alleges that Amazon used its Amazon Ads software development kit (SDK) to extract sensitive geolocation information from mobile apps. According to the lawsuit, plaintiff Felix Kolotinsky of San Mateo claims 

Amazon embedded its SDK into numerous mobile applications, allowing the company to collect precise, timestamped location details. Users were reportedly unaware that their movements were being tracked and stored. Kolotinsky states that his own data was accessed through the widely used “Speedtest by Ookla” app. The lawsuit contends that Amazon’s data collection practices could reveal personal details such as users’ home addresses, workplaces, shopping habits, and frequented locations. 

It also raises concerns that this data might expose sensitive aspects of users’ lives, including religious practices, medical visits, and sexual orientation. Furthermore, the complaint alleges that Amazon leveraged this information to build detailed consumer profiles for targeted advertising, violating California’s privacy and computer access laws. This case is part of a broader legal pushback against tech companies and data brokers accused of misusing location tracking technologies. 

In a similar instance, the state of Texas recently filed a lawsuit against Allstate, alleging the insurance company monitored drivers’ locations via mobile SDKs and sold the data to other insurers. Another legal challenge in 2024 targeted Twilio, claiming its SDK unlawfully harvested private user data. Amazon has faced multiple privacy-related controversies in recent years. In 2020, it terminated several employees for leaking customer data, including email addresses and phone numbers, to third parties. 

More recently, in June 2023, Amazon agreed to a $31 million settlement over privacy violations tied to its Alexa voice assistant and Ring doorbell products. That lawsuit accused the company of storing children’s voice recordings indefinitely and using them to refine its artificial intelligence, breaching federal child privacy laws. 

Amazon has not yet issued a response to the latest allegations. The lawsuit, Kolotinsky v. Amazon.com Inc., seeks compensation for affected California residents and calls for an end to the company’s alleged unauthorized data collection practices.

Federal Employees Sue OPM Over Alleged Unauthorized Email Database

 

Two federal employees have filed a lawsuit against the Office of Personnel Management (OPM), alleging that a newly implemented email system is being used to compile a database of federal workers without proper authorization. The lawsuit raises concerns about potential misuse of employee information and suggests a possible connection to Elon Musk, though no concrete evidence has been provided. The controversy began when OPM sent emails to employees, claiming it was testing a new communication system. Recipients were asked to reply to confirm receipt, but the plaintiffs argue that this was more than a routine test—it was an attempt to secretly create a list of government workers for future personnel decisions, including potential job cuts.

Key Allegations and Concerns

The lawsuit names Amanda Scales, a former executive at Musk’s artificial intelligence company, xAI, who now serves as OPM’s chief of staff. The plaintiffs suspect that her appointment may be linked to the email system’s implementation, though they have not provided definitive proof. They claim that an unauthorized email server was set up within OPM’s offices, making it appear as though messages were coming from official government sources when they were actually routed through a separate system.

An anonymous OPM employee’s post, cited in the lawsuit, alleges that the agency’s Chief Information Officer, Melvin Brown, was sidelined after refusing to implement the email list. The post further claims that a physical server was installed at OPM headquarters, enabling external entities to send messages that appeared to originate from within the agency. These allegations have raised serious concerns about transparency and data security within the federal government.

The lawsuit also argues that the email system violates the E-Government Act of 2002, which requires federal agencies to conduct strict privacy assessments before creating databases containing personal information. The plaintiffs contend that OPM bypassed these requirements, putting employees at risk of having their information used without consent.

Broader Implications and Employee Anxiety

Beyond the legal issues, the case reflects growing anxiety among federal employees about potential restructuring under the new administration. Reports suggest that significant workforce reductions may be on the horizon, and the lawsuit implies that the email system could play a role in streamlining mass layoffs. If the allegations are proven true, it could have major implications for how employee information is collected and used in the future.

As of now, OPM has not officially responded to the allegations, and there is no definitive proof linking the email system to Musk or any specific policy agenda. However, the case has sparked widespread discussions about transparency, data security, and the ethical use of employee information within the federal government. The lawsuit highlights the need for stricter oversight and accountability to ensure that federal employees’ privacy rights are protected.

The lawsuit against OPM underscores the growing tension between federal employees and government agencies over data privacy and transparency. While the allegations remain unproven, they raise important questions about the ethical use of employee information and the potential for misuse in decision-making processes. As the case unfolds, it could set a precedent for how federal agencies handle employee data and implement new systems in the future. For now, the controversy serves as a reminder of the importance of safeguarding privacy and ensuring accountability in government operations.

New Apple Processor Vulnerabilities: FLOP and SLAP Exploit Speculative Execution

 

Security researchers have uncovered two new vulnerabilities in modern Apple processors, named FLOP and SLAP, which could allow attackers to remotely steal sensitive data through web browsers. Discovered by researchers from the Georgia Institute of Technology and Ruhr University Bochum, these flaws exploit speculative execution, a performance optimization feature in Apple’s processors, to extract private user data from browsers like Safari and Chrome.

How FLOP and SLAP Exploit Speculative Execution

Speculative execution is a technique used by modern processors to predict and execute instructions in advance, improving performance. However, flaws in its implementation have led to significant security issues in the past, such as the Spectre and Meltdown attacks. FLOP and SLAP build on these exploits, demonstrating how Apple’s latest chips can be manipulated to leak private information.

FLOP (False Load Output Prediction) affects Apple’s M3, M4, and A17 processors. These chips attempt to predict not only which memory addresses will be accessed but also the actual data values stored in memory. If a misprediction occurs, the CPU may use incorrect data in temporary computations. Attackers can exploit this by measuring cache timing differences, allowing them to extract sensitive information before the system corrects itself. Researchers demonstrated FLOP by stealing private user data, including email details from Proton Mail, Google Maps location history, and iCloud Calendar events.

SLAP (Speculative Load Address Prediction) impacts Apple’s M2 and A15 processors, along with later models. Unlike FLOP, which predicts data values, SLAP manipulates the processor’s ability to anticipate which memory address will be accessed next. By training the CPU to follow a specific pattern and then suddenly altering it, attackers can force the processor to read sensitive data. The CPU processes this information before realizing the mistake, leaving traces that hackers can analyze. Researchers used SLAP to extract Gmail inbox content, Amazon order history, and Reddit activity.

Implications and Mitigation Efforts

Both FLOP and SLAP are particularly concerning because they can be executed remotely. A victim only needs to visit a malicious website running JavaScript or WebAssembly code designed to exploit these vulnerabilities. The attack does not require malware installation or direct access to the device, making it difficult to detect or prevent.

The researchers disclosed the flaws to Apple in early 2024. While Apple has acknowledged the issues, security patches have not yet been released. Apple has stated that it does not consider the vulnerabilities an immediate risk but has not provided a timeline for fixes. In the meantime, users concerned about potential data exposure can disable JavaScript in their browsers, though this may break many websites.

These findings highlight the growing sophistication of web-based attacks and the need for stronger security measures in modern processors. As Apple works on mitigating these vulnerabilities, users should stay informed about security updates and exercise caution when browsing unfamiliar websites.

The discovery of FLOP and SLAP underscores the ongoing challenges in securing modern processors against advanced exploits. While speculative execution enhances performance, its vulnerabilities continue to pose significant risks. As cyber threats evolve, both hardware manufacturers and users must remain vigilant, adopting proactive measures to safeguard sensitive data and maintain digital security.

Subaru Starlink Security Flaw Exposes Risks of Connected Cars

 

As vehicles become increasingly connected to the internet, cybersecurity threats pose growing risks to drivers. A recent security flaw in Subaru’s Starlink system highlights the potential dangers, allowing hackers to remotely control vehicles and access sensitive data. This incident is part of a broader trend affecting the automotive industry, where weaknesses in connected car systems expose users to financial loss, privacy breaches, and safety concerns. 

Researchers found that with just a license plate number and basic owner details, attackers could exploit Subaru’s Starlink system to start or stop the car, lock or unlock doors, and track real-time locations. More alarmingly, hackers could extract personally identifiable information (PII), including billing details, emergency contacts, and historical location data accurate within five meters. The vulnerability stemmed from weak security in the Starlink admin portal, including an insecure password reset API and insufficient protection against two-factor authentication (2FA) bypass. 

Subaru quickly patched the issue within 24 hours of its discovery, but the incident underscores the risks associated with connected vehicles. This is not an isolated case. Other automakers have faced similar security lapses, such as a flaw in Kia’s dealer portal that allowed hackers to track and steal vehicles. Common security issues in connected car systems include weak authentication, improper encryption, centralized storage of sensitive data, and vulnerabilities in third-party integrations. Delayed responses from automakers further exacerbate these risks, leaving vehicles exposed for extended periods. 

Beyond direct system hacks, connected cars face a range of cybersecurity threats. Attackers could remotely hijack vehicle controls, steal onboard financial and personal data, or even deploy ransomware to disable vehicles. GPS spoofing could mislead drivers or facilitate vehicle theft, while compromised infotainment systems may leak personal details or spread malware. While automakers must strengthen security measures, consumers can take steps to protect themselves. Regularly updating vehicle firmware and connected apps can help prevent exploits. 

Using multi-factor authentication (MFA) for connected car accounts and avoiding weak passwords add an extra layer of security. Limiting the amount of personal data linked to vehicle systems reduces exposure. Disabling unnecessary connectivity features, such as remote start or location tracking, also minimizes risk. Additional precautions include avoiding public Wi-Fi for accessing connected car systems, using a virtual private network (VPN) when necessary, and carefully vetting third-party apps before granting permissions. Traditional security tools like steering wheel locks and GPS trackers remain valuable backup measures against cyber threats. 

As connected cars become more common, cybersecurity will play a crucial role in vehicle safety. Automakers must prioritize security by implementing robust encryption, strong authentication, and rapid vulnerability response. At the same time, consumers should stay informed and take proactive steps to safeguard their vehicles and personal data from evolving digital threats.

Willow Data Exposure Puts Over 240,000 Customer Records at Risk

 


Data Breach at Willow Exposes Over 240,000 Customer Records

A significant data exposure incident involving the Chicago-based financial technology firm Willow has left the personal details of more than 240,000 customers vulnerable. Willow, which offers a service to pay customer bills upfront and allows repayment in installments, reportedly left a large volume of sensitive data accessible online without password protection. The discovery was made by cybersecurity researcher Jeremiah Fowler, who uncovered an unsecured database containing approximately 241,970 files.

The exposed data included customer names, email addresses, phone numbers, transaction details, and partial banking information. Alarmingly, receipts uploaded to the database revealed additional sensitive details, such as partial credit card numbers and home addresses. Fowler also found a T-Mobile bill containing call and text message records, underscoring the severity of the breach. One particularly concerning file contained data on 56,864 individuals categorized as prospects, active customers, or former customers barred from using Willow’s services.

The scale of the exposure raises significant concerns about the risk of identity theft and financial fraud. While there is no evidence yet that the leaked data has been exploited, the breach highlights the potential for phishing scams and social engineering attacks. Fraudsters could use the exposed information to craft convincing schemes, such as fraudulent billing requests or identity verification scams, targeting affected individuals.

Fowler immediately attempted to notify Willow of the breach, but his outreach went unanswered. Shortly thereafter, the database was secured and removed from public access. However, it remains unclear whether the database was managed directly by Willow or a third-party contractor. The duration of the exposure also remains unknown, raising concerns about whether unauthorized parties may have accessed the data before it was secured.

Experts recommend that affected customers take proactive measures to protect themselves. These include closely monitoring financial accounts for unusual activity, changing passwords linked to Willow, and remaining vigilant against phishing attempts. Customers should be cautious of unsolicited communications requesting personal or financial information, as scammers may leverage the exposed data to appear legitimate.

Willow has yet to publicly address the breach or outline measures to prevent future incidents. This lack of transparency underscores the importance of stringent data protection protocols. Cybersecurity experts stress that companies handling sensitive financial information must regularly audit their systems to identify and mitigate vulnerabilities.

Until Willow provides clarity, customers must rely on their own vigilance to safeguard against potential misuse of their information. This incident serves as a stark reminder of the growing need for robust data security practices in today’s digital landscape.