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There probably isn’t anything to be said about AI that hasn’t been said. One thing is certain, though: if the cyber threat landscape wasn’t moving fast enough before AI, it now seems that every other day we are witnessing new, frightening developments. Take AI-generated phishing, for example. We’re moving so fast that it’s already become yesterday’s news. While the industry was distracted by the quality of LLM-written emails, sophisticated threat actors moved on to the operational core of cyber warfare: speed and orchestration.
Threat actors are now leveraging AI to discover and weaponize exploits, as well as orchestrate attacks faster than ever. Traditional security models are being challenged by a new paradigm, one in which AI not only assists attackers but performs key offensive tasks autonomously. That shift is redefining what it means to be secure. It’s no longer enough to know where your vulnerabilities are. You need to know exactly which to remediate first, and you need proof of whether they can actually be exploited, so you can preemptively close breaches before they even happen.
Security leaders must accept a new, harsh reality: the time window between vulnerability disclosure and active exploitation is rapidly shrinking, and the attackers navigating your network are no longer just human, but often autonomous agents operating at machine speed. In this blog, we will provide a technical breakdown of this shift and why Continuous Threat Exposure Management (CTEM) is the strategic advantage defenders need.
The Weaponization of Zero-Days is Faster Than Ever
The traditional vulnerability lifecycle offered defenders a grace period between the disclosure of a CVE and the development of a reliable exploit, which makes it exploitable in the wild. That gap has effectively evaporated with AI significantly cutting down time-to-exploitation.
Recent analysis of HexStrike-AI by Check Point Research illustrates this collapse. HexStrike is not a benign chatbot; it is an offensive framework that bridges Large Language Models (LLMs) with established security tools. It utilizes an MCP (Model Context Protocol) orchestration layer to translate high-level intent into executable code.
The Technical Reality:
- Intent-to-Execution Translation: An attacker can issue a high-level command like “exploit NetScaler.” The AI orchestration brain interprets this, selects the correct sequence of tools, and executes the attack.
- Rapid Adaptation: In the case of Citrix NetScaler vulnerabilities, HexStrike reduced the exploitation timeline from days or weeks of manual research to less than 10 minutes.
- Auto-Retrying: If an exploit fails, the AI agent autonomously adjusts parameters and retries until successful, increasing the yield of exploitation without human fatigue.
This represents a fundamental change in the threat landscape: the barrier to entry for sophisticated zero-day exploitation has been lowered to a prompt.
The Rise of AI-Orchestrated Campaigns
While HexStrike highlights the speed of entry, recent disclosures by Anthropic regarding a Chinese state-sponsored campaign (GTG-1002) reveal the scale of post-breach orchestration.
Anthropic reports that a threat actor utilized their tools to autonomously execute 80-90% of the intrusion lifecycle, acting as a “human-on-the-loop” operation. Some industry experts argue that this may be “fancy automation” rather than true AI agency.
However, for the defender, this distinction is academic. Whether the attacker is using a Large Language Model (LLM) to make decisions or a hyper-optimized automation script to execute tasks, the operational reality for your SOC is the same.
The Technical Reality:
- Inhuman Velocity: The campaign generated thousands of requests at a cadence “physically impossible” for human operators.
- Relentless Consistency: Unlike humans who get tired or sloppy, these automated systems (AI or otherwise) maintain a “campaign state,” documenting steps and retrying exploits with perfect recall.
- Collapsed Response Windows: If an attacker can execute reconnaissance, scanning, and lateral movement in seconds, the “dwell time” metrics we rely on are obsolete.
What this means is that defenders are no longer competing against human reaction times; they are competing against API latency.
Why Traditional Vulnerability Management Fails
When AI agents are cutting down time-to-exploitation and traversing your network at machine speed, relying on list-based vulnerability management is futile. The average organization faces over 15,000 exposures each month, and traditional siloed tools force teams to waste resources on fixing exposures that end up leading to dead ends. You cannot patch everything instantly, and AI agents are specifically designed to find the gaps you miss.
A typical AI-driven attack path might look like this:
- Exploit a “Medium” severity CVE on a peripheral web server.
- Leverage a misconfigured identity (non-CVE) to pivot.
- Utilize a weak cloud entitlement to reach critical assets.
Traditional VRM tools fail here because they are blind to the “interconnected logic” of the attack. They prioritize findings based on isolated severity scores rather than proving if they are truly exploitable or capable of reaching critical assets. To stop an AI agent, you must stop thinking in lists and start thinking in graphs.
How Continuous Threat Exposure Management (CTEM) can Help
To counter the velocity of AI, organizations must adopt Continuous Threat Exposure Management (CTEM). This is not a tool upgrade, but an operational shift designed to align security exposure with business risk.
CTEM moves beyond “patching everything” to a scoped, validated approach that focuses on preventing the compromise of critical assets. It consists of five distinct stages:
Stage 1: Scoping
Effective exposure management begins by defining what matters. Instead of trying to secure the entire ocean of IT assets equally, Scoping maps critical business processes to the underlying infrastructure. This ensures that security teams are prioritizing exposures based on the actual risk to business-critical assets, rather than technical severity alone.
Stage 2: Discovery
AI agents utilize every available vector, so your discovery process must be equally comprehensive. This stage involves identifying all CVEs and, crucially, non-CVEs across the hybrid surface. This includes identifying misconfigurations, identity risks, and over-permissions in cloud environments, ensuring no “shadow” risk remains invisible.
Stage 3: Prioritization
This is where the battle against AI speed is won or lost. Since you cannot fix 15,000 exposures instantly, you must identify the choke points that are the critical intersections where multiple attack paths converge. Attack graph analysis offers the most efficient way to prioritize these choke points. This method enables you to preemptively sever the route to a critical asset with just a single fix, effectively neutralizing the threat regardless of the speed or sophistication of an AI-driven attack agent.
Stage 4: Validation
An AI agent will endlessly retry exploits, so defenders cannot rely on theoretical risk. This stage involves validating whether an exposure is actually exploitable in your specific environment. This filters out the noise of theoretical vulnerabilities that cannot actually be leveraged to breach a critical asset, saving the operations team from chasing ghosts.
Stage 5: Mobilization
The final stage turns intelligence into action. Rather than throwing a ticket over the fence, Mobilization involves providing teams with guided, actionable remediation. This includes offering workflow-friendly alternatives when immediate patching isn’t an option, ensuring that the time to remediate keeps pace with the attacker’s time to exploit.
XM Cyber: The Only Complete Platform for CTEM
XM Cyber offers the industry’s most comprehensive approach to Continuous Exposure Management. As the only solution built from the ground up to address all five stages of CTEM in a single platform, we help organizations pivot from reactive patching to proactive, risk-based exposure management that aligns security operations with business goals.
Here’s how XM Cyber has been helping organizations facilitate the Continuous Threat Exposure Management (CTEM) framework:
- Scoping: XM Cyber maps your critical business processes to the underlying IT infrastructure. This ensures that exposure prioritization is determined by actual business risk, not just the technical severity of a CVE.
- Discovery: Our discovery engine covers the full spectrum of CVEs and non-CVEs, including misconfigurations, identity risks, and over-permissions, across your entire hybrid environment (on-prem and cloud) and both internal and external attack surfaces.
- Prioritization: Using our proprietary Attack Graph Analysis™, we analyze the complexity of attack paths and identify Choke Points, the shared intersections where multiple attack paths converge. By factoring in threat intelligence and the number of critical assets at risk, we allow you to sever access to high-value targets with a fraction of the effort.
- Validation: XM Cyber validates whether identified issues are actually exploitable in your specific environment and checks if your existing security controls are configured to block them. This moves you from “theoretical risk” to “proven reality.”
- Mobilization: We close the loop between Security and IT. Because we focus on Choke Points, the workload for remediation is significantly reduced. We provide remediation teams with context-based evidence, precise guidance, and workflow-friendly alternatives. With deep integrations into your existing ticketing, SIEM, and SOAR tools, we ensure remediation tracks the speed of discovery.
Conclusion
The introduction of AI into offensive operations has commoditized speed. HexStrike and autonomous agents have democratized the capabilities of state-sponsored actors, reducing attack times from weeks to minutes.
Traditional vulnerability management, which is slow, siloed, and list-based, cannot survive this shift. By adopting an exposure management platform that aligns with the CTEM framework, you can shift your focus from the “patch everything” mentality to “breaking critical paths.” You may not be able to outpace AI, but by methodically and proactively targeting choke points, you can decisively outsmart it.