Agentic AI is making headlines worldwide for its potential force-multiplying capabilities, and organizations are understandably intrigued by how it can improve throughput and capabilities. However, as with any technological revolution, unforeseen issues are inevitable, and agentic AI is no exception. In organizations, these issues often arise from deploying personal assistants like OpenClaw or AI agents designed to optimize business and IT processes. Additionally, when personal assistants interact with “social networks” such as Moltbook, they introduce many hidden threats for organizations. These specific risks fall beyond the scope of this article, and will be addressed in a future blog.

This article will concentrate on agentic AI’s use within organizations and explore how these systems could potentially be used against them. There are two perspectives that must be taken into consideration when thinking about agentic AI: 

• The perspective of organizations deploying agentic AI technologies to streamline their business and organizational processes 
• The perspective focused on potential impacts of malicious agentic AI in the future

Both perspectives will be addressed, but let’s start with the first, which encompasses cybersecurity defense processes already in place, as well as the ways agentic AI can enhance those defenses.

What is agentic AI, how can it benefit organizations, and what are the dangers?

At its core, agentic AI is an autonomous system tasked with an objective, equipped with specific tools and resources. This system is typically powered by large language models (LLMs) with advanced reasoning capabilities. These capabilities allow the agent to plan how to achieve its objective, implement that plan, and, most importantly, verify results and try different approaches if errors occur. 

There are four questions an organization must ask when delegating a task to an AI agent:

• Traceability: Can I track all agent actions, regardless of whether the outcomes are global or intermediate? 
• Auditability: Is the task subject to regulatory oversight? Who is accountable for the outcomes produced by the agent? 
• Business risk management: Have I conducted a business risk assessment on the AI agent’s possible actions? 
• Cybersecurity threat management: Does the agent have guardrails to prevent malicious or disruptive actions during execution, regardless of its intent? 

AI agents can be incredibly powerful and task-oriented, so their actions must be scrutinized independently of intent. An agent may inadvertently destroy or expose data, while still successfully completing its task.  

An AI agent needs to adhere to basic cybersecurity and risk management principles. Just as you wouldn’t hand a new employee keys to all the data in your enterprise, AI agent access should be tailored for its specific role. Following good practices like threat modeling and risk management provides a solid foundation for successfully deploying AI agents. The optimal approach is to apply existing organizational roles to AI agents and adjust the data access accordingly.  The goal should be to ensure that the exposure from a compromised AI agent is no greater than from a compromised user; this is achievable only through strong access control. 

AI agents are not immune to external interference or direct attacks. Agents can search the internet to determine the best actions to achieve their goals. These actions could be manipulated, leading the agent to run a tool with an undesired consequence. At the same time, the act of making queries to the internet can result in information leaks.

When addressing these kinds of issues, it’s important to recognize that LLMs are not deterministic in nature, meaning that the execution of an agent to solve a task may vary each time, even if the task is consistently completed. This means that the traditional allow/deny approach may not be enough to provide the necessary safety and security boundaries. It is crucial to evaluate the potential outcomes of an action before execution — not from the perspective of the task at hand, but from a safety and security standpoint, free from goal-related bias. 

This oversight can be performed by a human operator, who authorizes critical steps in task resolution. It can also be provided by a separate model/agent tasked with evaluating the consequences of actions without regard to the overall objective. These evaluations can even be scored, triggering human review if a certain threshold is met. There may also be compliance requirements to track and log the actions agent actions, similar to those required for a user. 

Just as no system is 100% secure, no agent is 100% safe, especially given their non-deterministic and try-error reasoning features. However, this is not a new challenge. This is a threat modeling and risk management problem, which organizations have been facing for several years now.  

Organizations with mature cybersecurity practices model threat scenarios and prepare for incident response. They conduct business, information security, and cybersecurity risk evaluations for these scenarios and determine how each risk is managed. Using agentic AI should follow the same process: First, model threats based on agent privileges and capabilities, then evaluate the risks, and finally determine how to mitigate them.

Ultimately, we need to apply what we already know to this new context, drawing the appropriate parallels.

Near and not-so-far impacts of malicious agentic AI 

Agentic AI is already being used by malicious actors, as seen in cases like VoidLink. Nevertheless, this is just the tip of the iceberg, and defenders should be prepared for much more.

Agentic AI integration with attack frameworks is inevitable, and likely already underway; we just haven’t seen it yet. It may provide malicious operators with capabilities that could outpace defenders unless defenders also leverage agentic AI. 

Our tracking of attack frameworks and their evolution provides clues on what the next steps may look like.

The next stage for these attack frameworks could easily be an agent that runs on the backend, awaiting operator requests. These requests might include searching for, compiling, and locally testing exploits for software the operator found on the target system.

But this is just the beginning. The list below illustrates other developments likely to be adopted by malicious operators:

• To accelerate operations, an agent may analyze the operator’s console and suggest actions based on console inputs. This would both allow the agent to infer the operator’s preferences and retain memories of the target environment — details the operator could otherwise miss.
• More efficient use of an agent would involve the delegation of routine tasks, like environment exploration, system role recognition, and data exfiltration.
• Eventually, an agent could be deployed directly in the victim environment to handle specific tasks, contacting the backend for inference. In this scenario, the operator simply assigns the agent a task and waits for a result, with the agent using covert channels, that don’t need to be synchronous.
• The ultimate threat is a fully autonomous agent deployed and assigned a specific objective, using local inference and only contacting the backend upon task completion. Local inference reduces the risk of detection, as backend communications are kept to a minimum. Additionally, in long-term operations, the agent can perform tasks slowly, adapt its tactics from system to system, and even be instructed to use only living-off-the-land binaries (LOLBins).

These scenarios can be adapted by defenders to automate threat hunting and response, but all strategies must account for the risks and guardrails discussed earlier.

Cisco Talos Blog – ​Read More

Microsoft has released its monthly security update for March 2026 which includes 79 vulnerabilities, including three that Microsoft marked as “critical.” The remaining vulnerabilities listed are classified as “important.” Microsoft assessed that exploitation of the three “critical” vulnerabilities is “less likely.”  

CVE-2026-26110 and CVE-2026-26113 are “critical” Microsoft Office Remote Code Execution Vulnerabilities that could allow an unauthorized attacker to execute code locally; the former is a type confusion issue caused by access to a resource using an incompatible type, and the latter is an untrusted pointer dereference. 

CVE-2026-26144 is a “critical” information disclosure vulnerability affecting Microsoft Excel. This vulnerability is due to improper neutralization of input in Microsoft Excel which could enable an unauthorized attacker to disclose information on affected systems. This vulnerability has not been previously publicly disclosed or exploited, and Microsoft has rated it as “exploitation unlikely.” 

CVE-2026-26109 is an “important” vulnerability in Microsoft Office Excel that allows an unauthorized attacker to execute code locally due to an out-of-bounds read. This issue could enable an attacker to compromise the affected system. vulnerability in Microsoft Office Excel that allows an unauthorized attacker to execute code locally due to an out-of-bounds read. This issue could enable an attacker to compromise the affected system. 

CVE-2026-26106 and CVE-2026-26114 are “important” remote code execution vulnerabilities affecting Microsoft SharePoint Server. CVE-2026-26106 is caused by improper input validation in Microsoft Office SharePoint, while CVE-2026-26114 results from deserialization of untrusted data. In both cases, an authenticated attacker with at least Site Member permissions (PR:L) can execute code remotely over a network on the SharePoint Server. 

CVE-2026-26115, CVE-2026-26116, and CVE-2026-21262 are “important” elevation of privilege vulnerabilities in SQL Server, each with a CVSS v3.1 highest base score of 8.8. CVE-2026-26115 is caused by improper input validation in SQL Server, while CVE-2026-26116 is due to improper neutralization of special elements used in a SQL command (‘sqlinjection’). CVE-2026-21262 results from improper access control in SQL Server. In each case, an authorized attacker could exploit the vulnerability over a network to elevate privileges, potentially gaining administrator privileges. CVE-2026-21262 has also been publicly disclosed. 

CVE-2026-26118 is an elevation of privilege vulnerability in Azure MCP Server Tools with a CVSS v3.1 highest base score of 8.8. It has been rated “important” by Microsoft. This vulnerability is caused by server-side request forgery (SSRF) in Azure MCP Server, which allows an authorized attacker to elevate privileges over a network. An attacker could exploit this issue by sending specially crafted input to an Azure Model Context Protocol (MCP) Server tool that accepts user-provided parameters. If the attacker can interact with the MCP-backed agent, they may submit a malicious URL instead of a standard Azure resource identifier. The MCP Server then sends an outbound request to that URL, possibly includingits managed identity token. The attacker can capture this token without requiring administrative access. A successful attacker could obtain the permissions associated with the MCP Server’s managed identity, enabling access or actions on any resources authorized for that identity. However, the attacker does not gain broader tenant-level or administrator permissions—only those linked to the compromised managed identity.  

CVE-2026-26128 is an elevation of privilege vulnerability in Windows SMB Server that has been rated “important” by Microsoft. This vulnerability is caused by improper authentication in Windows SMB Server, allowing an authorized attacker to elevate privileges over a network. An attacker who successfully exploits this vulnerability could gain SYSTEM privileges. 

Cisco Talos would also like to highlight several vulnerabilities that are only rated as “important,” but Microsoft lists as “more likely” to be exploited:  

• CVE-2026-23668 – Windows Graphics Component Elevation of Privilege Vulnerability 
• CVE-2026-24289 – Windows Kernel Elevation of Privilege Vulnerability 
• CVE-2026-24291 – Windows Accessibility Infrastructure (ATBroker.exe) Elevation of Privilege Vulnerability 
• CVE-2026-24294 – Windows SMB Server Elevation of Privilege Vulnerability 
• CVE-2026-25176 – Windows Ancillary Function Driver for WinSock Elevation of Privilege Vulnerability 
• CVE-2026-25187 – Winlogon Elevation of Privilege Vulnerability 

A complete list of all the other vulnerabilities Microsoft disclosed this month is available on its update page. In response to these vulnerability disclosures, Talos is releasing a new Snort rule set that detects attempts to exploit some of them. Please note that additional rules may be released at a future date and current rules are subject to change pending additionalinformation. Cisco Security Firewall customers should use the latest update to their ruleset by updating their SRU. Open-source Snort Subscriber Rule Set customers can stay up to date by downloading the latest rule pack available for purchase on Snort.org.  

The rules included in this release that protect against the exploitation of many of these vulnerabilities are: 66089 – 66092, 66096, 66097, 66101 – 66104. 

The following Snort 3 rules are also available: 301442 – 301446. 

Cisco Talos Blog – ​Read More

ANY.RUN’s analysts are observing a sharp increase in phishing activity abusing Microsoft’s OAuth Device Code flow, with more than 180 phishing URLs detected in just one week.

This technique represents a shift from credential phishing to token-based account takeover, making detection significantly harder for many SOC teams. 

Key Takeaways 

• OAuth Device Code phishing is rising rapidly. Campaigns abusing Microsoft’s Device Authorization Grant are increasing, with hundreds of phishing URLs appearing in short timeframes. 

• Account takeover can occur without credential theft. Victims authenticate on legitimate Microsoft pages, yet attackers still receive OAuth tokens that grant account access. 

• The attack abuses legitimate authentication flows. Threat actors initiate the device authorization process themselves and trick victims into approving it. 

• Token abuse replaces password theft. Access tokens and refresh tokens allow attackers to operate within Microsoft 365 without needing stolen credentials. 

• Encrypted HTTPS traffic hides attack signals. Because activity happens on legitimate domains and encrypted channels, detection using traditional indicators becomes harder. 

• Automatic SSL decryption improves detection speed. ANY.RUN Sandbox extracts SSL keys from process memory to decrypt HTTPS traffic, revealing hidden scripts and network activity that enable faster investigations and reduced MTTD and MTTR. 

How the Attack Works 

In this campaign, attackers abuse Microsoft’s device login process, which is normally used to sign in on devices that cannot display a full login page. 

The attacker first initiates a login request with Microsoft. This generates two values: 

• user_code — a short, human-readable code (e.g., EL4BGRHUZ) displayed on the fake page as a “verification code;” 

• device_code — an internal session identifier held only by the attacker, never shown to the victim. This is the ‘claim ticket’ the attacker uses to poll Microsoft’s token endpoint. 

The victim is then shown the user_code on a phishing page, often disguised as a document verification step (for example, a fake DocuSign notification). The page instructs the user to copy the code and enter it at microsoft[.]com/devicelogin. 

From the user’s perspective, everything appears legitimate. They are redirected to a real Microsoft page, where they enter their credentials and complete MFA. 

However, by entering the verification code, the user is unknowingly approving a login request that was initiated by the attacker. While the victim sees only the user_code, the attacker uses the associated device_code to collect authentication tokens from Microsoft once the approval is completed. 

Microsoft then issues access tokens to the attacker’s session, allowing them to access the victim’s Microsoft 365 account. Because the login happens through legitimate Microsoft infrastructure, no credentials are stolen on the phishing page and no fake login form is required.  

Why This Attack Poses a Critical Risk and Is Harder for SOC Teams to Detect 

OAuth Device Code phishing changes how account compromise happens. This campaign represents a structural shift:  

• The victim interacts with legitimate Microsoft domains;  

• Credentials and MFA are entered on authentic pages;  

• The attack runs entirely over encrypted HTTPS;  

• Traditional phishing indicators may not trigger.  

As a result, token abuse replaces password theft. Detection relies heavily on visibility into encrypted network traffic and behavioral artifacts rather than domain reputation alone.  

For SOC teams, this means:  

• Delayed detection: Account compromise may only be noticed after suspicious activity appears. 

• Longer investigations: Analysts must reconstruct token-based access rather than analyze credential theft. 

• Higher incident impact: Attackers can operate inside Microsoft 365 immediately after token issuance. 

For organizations, this creates a critical risk: attackers can immediately access corporate email, internal documents, and shared resources, impersonate employees in business email compromise schemes, and potentially maintain persistent access through refresh tokens, turning a single phishing interaction into data exposure, financial fraud, or broader account compromise. 

OAuth Device Code Phishing Example: Full Attack Analysis 

View sample analysis in ANY.RUN Interactive Sandbox 

The attack often begins with a landing page impersonating DocuSign, prompting the user to “Review Document.” The victim is shown a verification code and instructed to copy it. 

Key red flag: this is not a real DocuSign signing workflow. It is a scripted sequence: 

• Copy the verification code, 

• Click “Continue to Microsoft”, 

• Paste the code into Microsoft’s device login page. 

The address bar typically shows a *.workers.dev domain instead of a legitimate DocuSign domain. 

A Microsoft window then opens at login.microsoftonline.com/…/deviceauth, showing the form “Enter code to allow access.” The user enters the same code they were shown on the fake page.

This action takes place on a legitimate Microsoft domain, even displaying Microsoft’s own warning: “Do not enter codes from sources you don’t trust.” 

The following screen states: “You’re signing in to Microsoft Office on another device…” From the victim’s perspective, the process still appears legitimate. In reality, they are approving access for an external client controlled by the attacker, not verifying the document they originally clicked. 

The key point is: the user never enters their password on a fake site. Instead, they are guided through legitimate Microsoft infrastructure and manually transfer a code. 

How Automatic SSL Decryption Ensures Instant Detection  

From an investigation standpoint, these phishing pages often rely on JavaScript loaders and encrypted HTTPS traffic to hide the real workflow from traditional scanners.  

This is where SSL decryption in the ANY.RUN Sandbox becomes critical. By extracting TLS encryption keys directly from process memory and decrypting HTTPS traffic during execution, the sandbox reveals the hidden scripts, API requests, and attacker infrastructure involved in the phishing flow. 

In this case, SSL decryption exposed the malicious JavaScript responsible for orchestrating the device authorization process and revealed high-confidence network indicators used by the phishing kit. Among them were specific API requests such as /api/device/start and /api/device/status/, along with a distinctive X-Antibot-Token header used in communication with the backend. 

When these artifacts appear in HTTP requests to non-legitimate hosts, they become high-signal network IOCs that analysts can use to detect related phishing infrastructure and pivot to other campaign assets during investigation. 

Protecting Business from Device Code Phishing Attacks 

Because OAuth Device Code phishing abuses legitimate authentication flows and trusted infrastructure, traditional phishing detection often fails. Preventing account takeover requires strengthening the SOC processes responsible for early detection, fast triage, and proactive hunting. 

Security leaders can reduce exposure by improving three key SOC processes. 

Expand Threat Coverage with Real-Time Intelligence 

Early visibility is critical for detecting phishing infrastructure before users interact with it. Without fresh threat signals, SOC teams often discover campaigns only after accounts are already compromised. 

ANY.RUN’s Threat Intelligence Feeds help organizations improve monitoring by delivering continuously updated indicators derived from live sandbox investigations performed by thousands of security teams worldwide. 

For SOC operations, this means: 

• Earlier detection of emerging phishing infrastructure 

• Faster identification of campaigns targeting similar industries 

• Higher-quality detection signals entering SIEM, EDR, and network monitoring tools 

For the business, earlier signals reduce the likelihood of successful account takeover and lower the probability of incidents escalating into financial fraud or data exposure. 

Accelerate Triage to Drive Down MTTD 

When a suspicious link or domain appears in an alert, SOC teams must quickly determine whether it is part of a real attack campaign. Slow validation creates backlogs, analyst fatigue, and delayed response. 

ANY.RUN’s Interactive Sandbox helps analysts investigate suspicious URLs and files in a controlled environment where the full phishing workflow becomes visible.  

With automatic SSL decryption, the sandbox extracts encryption keys directly from process memory and reveals the contents of HTTPS sessions without altering the traffic. 

For organizations, this translates into faster investigation cycles, quicker escalation decisions, and reduced dwell time, limiting the impact of compromised accounts. 

Improve Threat Hunting and Campaign Correlation 

Even after a phishing page is discovered, identifying related infrastructure across the campaign is essential for preventing further compromise. 

ANY.RUN’s Threat Intelligence Lookup allows analysts to quickly verify whether indicators are linked to known campaigns and explore related artifacts across previous investigations. 

This supports SOC teams by enabling them to: 

• connect alerts to active phishing campaigns 

• identify related domains, files, and infrastructure 

• prioritize investigations based on real attack activity 

For security leaders, this improves operational efficiency and ensures that analyst time is focused on the threats most likely to impact the business. 

For example, indicators associated with this campaign can be queried directly in TI Lookup using the threat name: 

threatName:”oauth-ms-phish” 

TI Lookup instantly shows the attack landscape.  

Recently, the industries most at risk include Technology, Education, Manufacturing, and Government & Administration; primarily in the United States and India, though other countries are also affected. 

There are also complete sandbox analyses of these attacks with detailed IOCs and TTPs that the SOC analysts can use to build strong detection rules and prevent similar attacks in the future. 

This approach helps CISOs move beyond reactive security and establish a proactive defense strategy that aligns with business priorities: minimizing operational disruption, reducing incident response costs, and protecting sensitive corporate identities. 

Conclusion 

OAuth Device Code Phishing represents an evolution in account takeover tactics. It bypasses traditional credential harvesting and exploits trust in legitimate authentication flows. The compromise happens through approved token issuance rather than stolen passwords. 

Defending against it requires deep visibility into encrypted sessions, behavioral pivoting, and rapid confirmation workflows. 

With automatic SSL decryption in ANY.RUN Sandbox, SOC teams gain the ability to see inside encrypted phishing infrastructure without disrupting traffic. What was previously hidden becomes actionable intelligence. 

About ANY.RUN   

ANY.RUN supports over 15,000 organizations across industries such as banking, manufacturing, telecommunications, healthcare, retail, and technology, helping them build stronger and more resilient cybersecurity operations.    
  
With our cloud-based Interactive Sandbox, security teams can safely analyze and understand threats targeting Windows, Linux, and Android environments in less than 40 seconds and without the need for complex on-premise systems. Combined with TI Lookup, YARA Search, and TI Feeds, we equip businesses to speed up investigations, reduce security risks, and improve teams’ efficiency. 

IOCs:  

• singer-bodners-bau-at-s-account[.]workers[.]dev 

• dibafef289[.]workers[.]dev 

• ab-monvoisinproduction-com-s-account[.]workers[.]dev 

• subzero908[.]workers[.]dev 

• sandra-solorzano-duncanfamilyfarms-net-s-account[.]workers[.]dev 

• tyler2miler-proton-me-s-account[.]workers[.]dev 

• aarathe-ramraj-tipgroup-com-au-s-account[.]workers[.]dev 

• andy-bardigans-com-s-account[.]workers[.]dev 

• dennis-saltertrusss-com-s-account[.]workers[.]dev 

• rockymountainhi[.]workers[.]dev 

• workspace1717-outlook-com-s-account[.]workers[.]dev 

• aiinnovationsfly[.]com 

• astrolinktech[.]com 

FAQ

The post OAuth Device Code Phishing: A New Microsoft 365 Account Breach Vector appeared first on ANY.RUN’s Cybersecurity Blog.

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Back when ransomware was just a startup industry, the primary goal of the attackers was simple: encrypt data, then extort a ransom in exchange for decrypting it. Because of this, cybercriminals mostly targeted commercial enterprises — companies that valued their data enough to justify a hefty payout. Schools and colleges were generally left alone — hackers assumed educators didn’t have the kind of data worth paying a ransom for.

But times have changed, and so has the ransomware groups’ business model. The focus has shifted from payment for decryption, to extortion in exchange for non-disclosure of stolen data. Now, the “incentive” to pay isn’t just about restoring the company’s normal operations, but rather avoiding regulatory trouble, potential lawsuits, and reputational damage. And it’s this shift that’s put educational institutions in the crosshairs.

In this post, we discuss several cases of ransomware attacks on educational organizations, why they took place, and how to keep cybercriminals out of the classroom.

Attacks on educational institutions in 2025–2026

In February 2026, the Sapienza University of Rome, one of Europe’s oldest and largest higher education institutions, suffered a ransomware attack. Internal systems were down for three days. According to sources familiar with the incident, the cybercriminals sent the university’s administration a link leading to a ransom demand. Upon clicking the link, a countdown timer started on the site that opened — counting down from  72 hours: the time the attackers demands needed to be met. As of now, there’s still no word on whether the university administration paid up or not.

Unfortunately, this case isn’t an exception. At the very end of 2025, attackers targeted another Italian educational institution — a vocational training center in the small city of Treviso. Things aren’t looking much better in the UK, either: in the same year, Blacon High School was hit by ransomware. Its administration had to shut its doors for two days to restore its IT systems, assess the scale of the incident, and prevent the attack from spreading further through the network.

In fact, a UK government study suggests these incidents are just part of a broader trend. According to its 2025 data, cyberincidents hit 60% of secondary schools, 85% of colleges, and 91% of universities. Across the pond, American researchers also noted that in the first quarter of 2025, ransomware attacks in the global education sector surged by 69% year on year. Clearly, the trend is global.

Why schools and universities are becoming easy targets

The core of the problem is that modern educational organizations are rapidly incorporating digital services into their operations. A typical school or university infrastructure now manages a dizzying array of services:

• Electronic gradebooks and registers
• Distance learning platforms
• Admission systems and databases for storing applicants’ personal data
• Cloud storage for educational materials
• Internal staff and student portals
• Email for faculty, students, and the administration to communicate

While these systems make education more convenient and manageable, they also drastically expand the attack surface. Every new service and every additional user account is a potential doorway for a phishing campaign, access compromise, or a personal data leak.

According to a UK study, the primary vector for these attacks is basic phishing. But that’s not all that surprising: since the education sector was off the cybercriminals’ radar for so long, cybersecurity training for both staff and students was hardly a priority. As a result, even the most seasoned professors can find themselves falling for a fake email purportedly sent by the “dean” or the “school principal”.

But it’s not just the faculty. Students themselves often unwittingly act as mules for malware. In many institutions, students still frequently hand in assignments on USB flash drives. These drives travel across various home or public devices, picking up malicious digital hitchhikers along the way. All it takes is one infected USB drive plugged into a campus workstation to give an attacker a foothold in the internal network.

It’s worth noting that while USB drives aren’t as ubiquitous as they were a decade ago, they remain a staple in the educational environment. Dismissing the threats they carry isn’t a good idea.

How to ensure the cybersecurity of educational infrastructure

Let’s face it: training every literature and biology teacher to spot phishing emails is now easy, quick task. Similarly, the educational system isn’t going to cut down on USB usage overnight.

Fortunately, a robust security solution (such as Kaspersky Small Office Security) can do the heavy lifting for you. It’s ideal for schools and colleges that need set-it-and-forget-it protection without a steep learning curve. Plus, it’s affordable even for institutions operating on a tight budget, and doesn’t require constant management.

At the same time, Kaspersky Small Office Security addresses all the threats we’ve discussed above: it blocks clicks on phishing links, automatically scans USB drives the moment they’re plugged in, and prevents suspicious files from executing on devices connected to the school’s network.

Kaspersky official blog – ​Read More