Dell has shipped security fixes for six critical vulnerabilities in its Container Storage Modules (CSM) that could allow unauthenticated attackers to seize full administrative control over an organization's storage infrastructure and every node in a Kubernetes cluster. Four of the six flaws carry CVSS scores of 9.6 or higher, two of which hit the maximum possible rating of 10.0.
The bugs affect every version of CSM prior to 1.17.0, and Dell patched them in version 1.18.0. The company says no workarounds or interim mitigations exist, which means organizations running the affected software are down to one option: update now.
What CSM Does, and Why These Bugs Matter
Dell Container Storage Modules are Kubernetes-native extensions that manage persistent storage for containerized workloads across Dell's storage product families, including PowerFlex, PowerStore, PowerMax, PowerScale, and Unity XT. Because CSM sits at the intersection of storage credentials and cluster-level access controls, vulnerabilities in the platform carry a particularly high blast radius. An attacker who compromises CSM does not just gain access to data; they gain the ability to manipulate who can access what across every tenant connected to the system.
A closer look at the Six Vulnerabilities
The most severe of the six, CVE-2026-63688, scored a perfect 10.0. The flaw lives in the csm-authorization-storage gRPC server and requires no authentication to exploit. An attacker on the network can send requests directly to this endpoint and pull the backend administrator credentials for every storage array registered with the system. Dell's own advisory described it as enabling "a complete bypass of the csm-authorization security model," handing an attacker full administrative control over storage spanning all five supported Dell storage product families.
The second maximum-severity flaw, CVE-2026-63692, also a 10.0, targets the authorization proxy and tenant service. Like its counterpart, it requires zero credentials to exploit. A successful attack gives an adversary administrative control over the entire authorization service and the ability to access or manipulate storage resources across all connected tenants.
CVE-2026-67269 scored 9.9 and introduces a different threat model. It is a privilege escalation flaw in the ContainerStorageModule Custom Resource reconciler. A low-privilege attacker, not even a full admin, can submit a single maliciously crafted custom resource to the cluster and walk away with root-level access on every node in the environment. The attack surface is as small as one API call; the damage is cluster-wide.
Two of the remaining flaws center on hardcoded secrets. CVE-2026-54472 (CVSS 9.8) buries a static set of credentials inside the CSM Authorization module, allowing any remote attacker to forge cryptographically valid administrative tokens and seize control of the Authorization proxy. CVE-2026-61421 (also 9.8) compounds the problem: the JWT authentication component in karavi-authorization uses a hardcoded signing key. Because the signing secret is publicly available, anyone who locates it, something that is not especially difficult when code repositories are involved, can mint valid authentication tokens and claim administrative privileges without going through any login flow whatsoever.
The final flaw, CVE-2026-67273, scored 9.6 and is a template injection vulnerability. A low-privilege attacker with remote access can manipulate input fed through the template engine to escalate their own privileges, read sensitive information, and tamper with role-based access controls at the cluster scope. Dell's advisory noted that exploitation yields the ability to "create cluster-scoped RBAC resources, effectively bypassing the intended Kubernetes access controls."
Context: Dell's Track Record With Exploited Flaws
This batch of CSM vulnerabilities does not arrive in isolation. Dell has faced repeated problems with critical infrastructure flaws being turned against real targets in the field. Earlier this year, researchers at Mandiant and Google's Threat Intelligence Group documented how CVE-2026-22769, a hardcoded-credential flaw in Dell RecoverPoint for Virtual Machines carrying a CVSS score of 10.0, had been actively exploited as a zero-day since mid-2024 before Dell published a fix in February 2026. CISA added it to its Known Exploited Vulnerabilities catalog the following day. Years earlier, CVE-2021-21551, an access control flaw in Dell's dbutil driver, made the same list after evidence of active exploitation emerged in the wild.
The pattern here is consistent: attackers increasingly go after enterprise infrastructure components that security teams tend to treat as inherently trusted. Storage management platforms and low-level system utilities rarely face the same scrutiny as public-facing applications, and that blind spot has proven to be consequential.
What to Do
Dell is directing all customers to upgrade CSM to version 1.18.0 immediately. For systems affected by CVE-2026-61421, the company is additionally recommending that JWT signing secrets be rotated post-upgrade, since those secrets were embedded in code that has been publicly accessible and should be treated as already compromised. No partial mitigations apply. The fix is available, and for organizations still running pre-1.17.0 versions, the exposure is active.
The campaign has targeted organizations in Taiwan, India, the Philippines, Cambodia, Pakistan, Thailand, Myanmar and Syria. By July 2026, Talos had identified at least 16 affected or targeted institutional environments and approximately 350 compromised endpoints.
The campaign's lure theme and targeting provide additional contextual support. Its lures and observed targets include Taiwanese political, legislative, civil defense, and policy research subjects, together with regional government, maritime, diplomatic, and security themes. This collection focus is consistent with China-nexus actor interests,” Talos said.
The most notable feature of Antino is its use of legitimate Microsoft 365 services as command-and-control (C2) infrastructure. Instead of relying on a traditional attacker-controlled server, the malware communicates through Microsoft Outlook and OneDrive using Microsoft Graph.
Antino is a Rust-compiled Windows backdoor capable of gathering information about infected systems, executing commands through Windows shell and PowerShell, transferring files, loading shellcode directly into memory and maintaining persistence.
The infection generally begins with a carefully prepared spear-phishing email. Attackers used government, diplomatic, maritime, legislative and foreign-policy themes designed to appear relevant to their intended victims.
In some cases, the attackers recreated Gmail’s attachment-preview interface inside the email. When victims interacted with the fake attachment, they were directed to attacker-controlled infrastructure.
The attack then proceeds through multiple stages involving HTA or WSF files, JavaScript and a .NET-based downloader before ultimately installing Antino. The malware has also been deployed through DLL sideloading, using a legitimate Microsoft-signed executable to load the malicious DLL.
Once installed, Antino uses Microsoft Graph to communicate with Microsoft 365. Outlook is used for receiving commands, while OneDrive handles heartbeat communications and file transfers. This allows malicious traffic to terminate at legitimate Microsoft infrastructure, potentially making conventional network-based detection more difficult.
A successful Antino infection can provide attackers with persistent access to a Windows system, allowing them to conduct reconnaissance, execute commands, run PowerShell, access files and transfer data.
The targeting of government agencies, diplomatic organizations, universities, think tanks and policy groups suggests that the campaign is focused primarily on intelligence gathering and espionage rather than ordinary financial cybercrime.
Cisco Talos assessed UAT-11587 as China-nexus with high confidence, citing technical, language, infrastructure and targeting indicators. However, researchers noted that attribution to a specific Chinese group remains more complicated.
Google is tightening restrictions on one of mobile malware's most persistent entry points. With Android 17, the company is limiting access to its AccessibilityService API to verified Accessibility Tools only, a change that takes effect the moment a user switches on Advanced Protection.
The move, announced Thursday, targets a problem that has haunted Android security for years. The AccessibilityService API was built to help people with disabilities use their smartphones. Screen readers, voice control apps, and motor-assistance tools all rely on it. But the privileges it carries are significant. Apps that tap into the API can run in the background, observe what appears on screen, intercept UI events, and take actions inside other applications on a user's behalf. That set of capabilities made it a target for malware developers almost immediately after it was introduced.
Google stated in its announcement that the new version automatically restricts AccessibilityService access to verified Accessibility Tool applications, closing off a major attack avenue while keeping genuine assistive technology functional.
A Clichéd Attack Path
Malware families have been weaponizing Android's accessibility services since at least 2017. The list of known offenders runs long: Vultur, SharkBot, Xenomorph, BianLian, Anatsa (also tracked as TeaBot), and more recently BTMOB RAT, a remote access trojan documented attacking banking customers across Brazil, Argentina, Spain, Portugal, and Mexico through 2025 and 2026. According to Kaspersky data, trojans accounted for 40 percent of Android malware infections in Q1 2025, with nearly 12 percent of malicious apps falling into the banking trojan category that specifically abused the Accessibility API, totaling around 154,000 apps.
The attack chain is well understood. A malicious app, typically distributed through sideloaded APKs or disguised as something routine, tricks a user into granting accessibility permissions. The Anatsa trojan, for instance, slipped onto Google Play as a PDF viewer update as recently as July 2025. Once the permission is granted, the malware operates without root access. It can monitor keystrokes, layer fake login pages on top of legitimate banking apps, approve system dialogs silently, and initiate fraudulent fund transfers from financial applications without the user noticing anything unusual on screen. Google noted in its announcement that this access also allows malware to block its own uninstallation, locking users out of any easy remedy.
What Changes in Android 17
The new restriction applies specifically when Advanced Protection is active, a device-level security mode introduced with Android 16 that consolidates multiple hardening features under a single toggle. When a user enables it, the system now automatically enforces that only verified, legitimate accessibility apps can request AccessibilityService access. Everything else is denied.
This is part of a gradual tightening that has been underway for several years. Android 13 made it significantly harder for sideloaded apps to acquire accessibility permissions. In-call protections, rolled out more recently, prevent users from granting those permissions during a phone call, cutting off a common social engineering scenario. Google also introduced the `accessibilityDataSensitive` flag to let developers mark UI elements as off-limits to third-party accessibility readers.
The Rest of Android 17's Security Updates
The accessibility change is one piece of a wider hardening effort in Android 17. Intrusion Logging, developed in collaboration with Amnesty International's Security Lab and other civil society organizations, creates a persistent, privacy-preserving forensic record of sensitive system events. Amnesty's team simultaneously updated AndroidQF and its Mobile Verification Toolkit to process the new log format, making it immediately useful for researchers investigating suspected spyware infections.
USB Protection blocks new data connections over a USB port while the device is locked, preventing physical access attacks where an attacker might attempt to extract data or push commands through a connected cable. Google has also included an option to disable WebGPU, a graphics API that has surfaced in sophisticated browser-based exploit chains. Failed Authentication Lock responds to repeated incorrect login attempts by locking the device entirely, making brute-force attempts against a stolen or seized phone substantially harder.
A fifth addition, View Supporting Apps, gives users a clear window into which installed applications have checked whether Advanced Protection is active on the device.
For developers, Google confirmed that applications can receive a notification when a user enables Advanced Protection, allowing them to switch on their own high-security features automatically for that audience.
Existing Advanced Protection users will receive a notification when the new capabilities land on their device. Intrusion Logging is not switched on by default and must be enabled manually from the Advanced Protection settings page.
One of the most unusual features of the malware is its use of zero-width Unicode characters to hide information about a stolen password inside what appears to be a normal configuration file.
CloudSyncD is distributed through a malicious disk image designed to look like a legitimate Zoom installer. The installer includes instructions telling users to bypass macOS Gatekeeper by going to System Settings and manually allowing the application to run.
Once the fake installer is launched, the first-stage program, called app_installer, displays a fake authorization window asking for the user’s administrator password. It checks the entered password locally using macOS’s dscl command. If the password is incorrect, the malware can continue prompting the victim.
The stolen password is not immediately sent to the attackers. Instead, the malware stores it inside a file called data.json. The password is Base64-encoded and placed inside a larger string containing random characters.
The malware then uses U+200B ZERO WIDTH SPACE and U+200C ZERO WIDTH NON-JOINER characters. These characters are invisible during normal viewing and encode the location and length of the hidden password. This technique allows malicious information to be concealed without obviously changing the appearance of the file.
The second stage is an embedded Mach-O executable capable of running on both Intel-based and Apple Silicon Macs. The malware attempts to execute the payload without initially writing it to disk. When that approach fails because of macOS security protections, it can create a temporary file and use the captured password with sudo to execute the backdoor with elevated privileges.
After execution, CloudSyncD collects information about the infected Mac, including hardware and operating-system details, account information and network-related data. It communicates with a command-and-control server and can periodically check for additional instructions.
Researchers observed check-ins occurring approximately every 8 to 16 seconds in analyzed samples. The backdoor can receive executable files or compressed archives, potentially allowing attackers to deploy additional malware on an infected system.
Most organizations around the world are spending more on cybersecurity than at any point in their history. Very few are spending it on the threats that are actually coming for them. That is the central tension running through PwC's 2027 Global Digital Trust Insights report, which drew responses from nearly 4,000 business and technology leaders spanning more than 70 countries.
Artificial intelligence sits at the core of the report's findings, and not in the way most organizations would prefer. Leaders surveyed identified attacks targeting their own AI systems as the single cyber threat they feel least prepared to handle. Over half of respondents, 53 percent, said they are not adequately defended against autonomous botnet attacks, where AI drives the probe and compromise of networks faster than human teams can respond. Adversarial attacks and data poisoning followed at 52 percent each, pointing to a defensive gap that has widened as attackers have adopted the same tools organizations are still trying to implement on the defense side.
Prompt injection sits squarely at the heart of this problem. Unlike conventional exploits that target code vulnerabilities, prompt injection manipulates the AI model itself, tricking it into leaking data, executing unauthorized commands, or acting entirely outside its designed purpose. OpenAI acknowledged in late 2025 that prompt injection, much like social engineering before it, is a problem that cannot be fully engineered away. The Open Worldwide Application Security Project has ranked it number one on its threat list for LLM applications for three consecutive updates, a position it has held since the list first debuted. The persistence of that ranking reflects not a shortage of incidents, but the structural difficulty of closing an attack surface that is, in effect, the model's own reasoning process.
Despite all of this, AI is simultaneously the security tool leaders trust most. The survey found it ranked first for threat detection and alerting across the respondent pool. The contradiction is in what comes next. Only 22 percent of leaders said they would let AI agents operate in cyber defense without requiring human sign-off on their actions. Fifty-five percent attributed this reluctance to reliability and maturity concerns, while 44 percent pointed to a skills shortage in AI oversight and governance.
That hesitation is not irrational, but it carries a cost. AI-driven attacks operate at a pace that leaves human response cycles behind. Requiring manual approval for every automated defensive action is, in practice, fighting a faster adversary at a slower speed. At some point, fully autonomous defense may not be optional. What makes that shift harder is that organizations have not settled on who would be accountable for it. The survey found that 29 percent of leaders placed AI security accountability with the CIO or CTO, 26 percent with a dedicated AI leadership role, and only 17 percent with the CISO. Eleven percent said responsibility was shared across multiple functions, which in most organizations means it belongs to no one in particular.
Budget signals at least suggest that leaders recognize the scale of the problem. Eighty-four percent of security and finance leaders said they expect cyber budgets to increase, with 58 percent naming AI as their top spending priority for the coming year.
The second major warning in PwC's report concerns quantum computing, and the picture there is, if anything, more concerning. Quantum computers capable of breaking the encryption that currently secures financial records, government communications, and enterprise data are not yet commercially operational. But the attack strategy does not require them to be. State-sponsored threat groups and other sophisticated actors are already collecting encrypted data now, banking on the ability to decrypt it once quantum capability matures. Most cryptography researchers put that window between 2030 and 2035, and the timeline for migrating large-scale cryptographic infrastructure is measured in years, not months. The National Institute of Standards and Technology finalized its first three post-quantum cryptography standards in August 2024, covering quantum-resistant key exchange and digital signatures, and told organizations explicitly that there is no reason to delay. PwC's survey found that only 21 percent of respondents are currently implementing those standards.
What makes this more urgent than a theoretical risk is that the harvesting is already underway. The FBI confirmed in August 2025 that a Chinese state-sponsored group tracked as Salt Typhoon had compromised more than 200 organizations spanning more than 80 countries, with nine major US telecommunications carriers among the confirmed victims. In at least one documented case, the group maintained undetected access to a telecom network for three years, collecting communications data throughout. That data, encrypted under today's standards, sits in storage waiting for the decryption capability that quantum hardware will eventually provide. Governments are beginning to respond with deadlines rather than guidelines. In June 2026, President Trump signed executive orders requiring federal agencies to migrate high-value systems to NIST-approved post-quantum cryptography standards by 2030 and 2031 respectively, with government contractors expected to follow. The private sector has no equivalent mandate, and PwC's survey makes clear that most organizations are not filling that gap on their own.
"Technology is moving incredibly fast, but the fundamentals of cybersecurity haven't changed," said Morgan Adamski, PwC's cyber, data and technology risk leader. "You can invest heavily in AI and the latest security tools, but if you don't have secure data, operational continuity, clear accountability and strong cyber hygiene underneath them, you're building on a weak foundation. The goal isn't to slow innovation down. It's to make sure your organization is resilient enough to keep up with it."
What the survey documents, across both AI and quantum, is the distance between knowing what needs to be done and actually doing it. The tools exist. The standards are published. The gap is operational, and the cost of that gap is rising by the month.

A new frontier artificial intelligence model, Gemini 4 Argon, has been introduced by Google through its Fairwind Program for initial distribution to trusted cybersecurity defenders. In addition to internal security teams using this model, the company expects wider access as it collects feedback from early users.
As a software engineering, enterprise knowledge work, and cybersecurity operations solution, Argon is designed to handle complex software engineering and knowledge management tasks. A model developed by Google will be able to identify, validate and patch critical vulnerabilities independently in security environments, thereby expanding the use of artificial intelligence for vulnerability research and remediation.
Argon will be available to trusted defenders and the company's own teams without cyber-specific guardrails, according to the company. As part of this approach, vetted security professionals will be given full access to the model's capabilities when investigating and addressing threats. In September, Fairwind, a limited access AI security tool for governments, Google Cloud customers and cybersecurity partners, launched.
A significant finding has already been made as a result of its early deployment, Wiz, which is using Argon as part of its Scan for Good initiative, reported that it identified a previously unknown critical vulnerability in healthcare software used by hospitals worldwide. The vulnerability may expose sensitive personal information, although Google has not disclosed the name of the affected software or whether the issue has been resolved.
Google also reports significantly improved vulnerability detection performance compared with Gemini 3.8 Flash Cyber. A security test conducted by Argon on complex codebases identified security weaknesses, while a test conducted by Wiz on live web applications demonstrated improvements in attack surface discovery, vulnerability identification, and proof-of-concept generation.
A phased approach is being taken by Google to the wider release, with the model currently restricted to internal teams and vetted defenders. Moreover, the company is participating in the U.S. government's voluntary pre-release process and will refine its safeguards after receiving feedback from early testers in order to broaden the availability to developers, enterprises, and individuals.
Argon will be designed to reject requests attempting to support cyber or chemical, biological, radiological, and nuclear attacks as part of its broader rollout, while also preserving the support of legitimate dual-purpose research as part of its broader rollout. Additionally, Google is monitoring the model's internal activity for signs of misuse. Indirect prompt injection is also being investigated.
In Google's opinion, Argon is protected against attempts to manipulate it through malicious instructions or external content. The Fairwind program provides another layer of control around access by monitoring the model’s reasoning and actions, and stopping execution when behavior goes beyond the intended task.
Organizations participating in the program have been vetted and their use has been restricted to authorized defense activities such as threat simulation, reverse engineering, and malware analysis for research or security purposes. Partners are not permitted to share or distribute access to the model. Google has not provided a date of general availability yet.
Upon initial deployment of Argon Defender, API customers and Google AI Ultra subscribers should have access, although the broader deployment of Argon will be dependent on the results of ongoing safety and security evaluations.
Researchers at Truffle Security tested 543,699 API keys, database passwords, and access tokens found in public GitHub repositories last July. Every single one authenticated. The median credential had been sitting in publicly readable code for 784 days.
The findings come from a scan of The Stack v3, a 224-million-repository snapshot of public GitHub code assembled to train large language models. The crawl closed on August 7, 2025. Eleven months later, when Truffle Security ran live verification against each issuing provider, more than half a million credentials still worked. That number is more than double the 221,303 live credentials the company found when it ran a similar scan against 7.6 petabytes of Hugging Face training data earlier this year.
The oldest credential in the dataset was last touched on June 13, 2009. It lives inside an Erlang web server configuration file, and it was still valid 16.1 years after it was committed. Behind it: an FTP login inside a GPS logger's C source code from September 2009, replicated across 62 repositories, and an AWS key tucked inside a Rails S3 config from November of that same year. Truffle Security declined to name the repositories because the credentials in them still work.
A Protection That Only Faces Forward
GitHub has progressively tightened its defenses around exposed credentials. The platform made secret scanning alerts free for all public repositories in February 2023. Push protection, which blocks a commit before it reaches the remote branch if it carries a recognised secret, became generally available in May 2023 and was switched on by default for all public repositories on February 29, 2024.
GitHub's secret scanning covers more than 200 token types and patterns from over 180 service providers. The rollout had a measurable effect on new leaks. Among credential shapes the system recognises and blocks, Truffle Security found a 53 percent drop in the rate of fresh exposures across the twelve months following the default rollout, compared to the twelve months before it. Slack tokens fell 64 percent, GitHub's own tokens and AWS access keys each fell 59 percent.
But push protection has no mechanism to reach the credentials already there. Of the 543,699 live credentials, 199,843 landed after push protection became the default in February 2024. Developers either bypassed the block or committed credential types the system does not recognise.
That second category is the larger problem. Truffle Security found that 51.8 percent of every live credential in the dataset is a shape that a default-configured public repository will accept without objection. Database connection strings, private keys, and Google API keys all fall outside the default block list. Push protection focuses on specific, highly identifiable secrets and misses generic ones. Connection strings and private keys are classified as generic patterns, and blocking them requires an organisation to go into settings and explicitly opt in.
The Gemini Problem
The Google API key situation illustrates the limits of pattern-based blocking in particularly sharp terms. The 33,343 live Google API keys in Truffle Security's dataset include 31,374 that authenticate specifically to Gemini, Google's AI model platform. Their median leak date is February 2025, meaning the entire population is younger than the push protection rollout.
Google API keys carry the prefix `AIzaSy` whether they were created for Google Maps, Firebase, or Gemini. GitHub's pattern list recognises the prefix but marks it as not push-protected, because a Maps key sitting in client-side JavaScript is not a secret by design. Google's own approach to API keys was historically built around the assumption that these keys would live in client-side code, exposed to anyone who opened a browser's developer tools. The problem is that Gemini runs on the same key format, turning what developers were trained to treat as a non-sensitive identifier into a billable AI credential. One pattern cannot distinguish between the two uses, so nothing gets blocked, and the keys that matter arrive alongside the keys that do not.
Revocation is the Deciding Variable
The most instructive comparison in the data is between providers that automatically revoke leaked tokens and those that do not.
npm committed 101,886 tokens to public code. One remains live. GitHub committed 73,048 tokens; 260 survived. Hugging Face committed 30,437; 15 are still valid. Each of these platforms runs an automated pipeline that kills a token the moment it is detected in public code.
The contrast with database credentials is stark. Of 12,985 Postgres connection strings in the dataset, 11,465 are still live, an 88 percent survival rate. MySQL connection strings survive at 75 percent. MongoDB, where the detector only reports a URI it successfully connected to, returned all 51,067 live.
Push protection blocks secrets at the door. Automated revocation kills them wherever they are. The Truffle Security data shows that the second mechanism is the one that changes the outcome, and for the majority of credential types sitting in public repositories right now, no provider is running it.
The practical guidance from the researchers: treat any committed credential as compromised regardless of whether anything flagged it, scan your own repository history rather than assuming the push-time block was sufficient, and favour credentials that expire automatically. Most of what Truffle Security found would have been harmless long ago if it had ever been given a finite lifetime.