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Everything AI promises for AppSec plus the secure design context needed to make it count.

Project Glasswing represents an important step forward for AI-assisted vulnerability discovery and remediation. ThreatModeler addresses the design-time side of the same problem: helping teams understand system intent, model threats in architectural context, place controls earlier, and create a governed system of record for secure-by-design decisions across the SDLC.

Together, ThreatModeler and Project Glasswing tell a more complete AppSec story: use AI to find and fix issues faster, and use threat modeling to make those fixes smarter, more relevant, and more aligned to the architecture you are actually trying to secure.

And with MCP, ThreatModeler can bring governed threat modeling context into AI-driven workflows and LLM experiences—so teams are not just remediating faster, but operating with stronger architectural understanding from the start.

AI is accelerating coding, not understanding

AI is reshaping application security.

Project Glasswing points to a future where vulnerability discovery, exploit, triage, and remediation can move faster than ever. That is a meaningful step forward—especially in large and complex software environments where the cost of finding and fixing issues has historically been high.

But a faster loop doesn’t create more secure code on its own. Without secure context, you risk building a token burning machine that is constantly fixing bugs, and ignoring flaws.

To find and fix architectural flaws, teams and agents need to understand:
  • What the system is supposed to do
  • Where trust boundaries exist
  • Which risks actually matter in context
  • How controls should be applied across the architecture

Faster remediation is most valuable when it is guided by that understanding.

Combining speed with understanding

Project Glasswing and the Mythos frontier model can help security teams find vulnerabilities faster. But as we’ve already seen, many vulnerabilities it is finding were already mitigated with security controls and countermeasures. Without the full picture, you’re left patching code that posed no real threat, and introducing more risk, not less.

ThreatModeler helps teams understand architecture and intent so those fixes can be prioritized, better informed, and connected to a broader secure-by-design practice.

AI gets stronger when threat modeling gives it context

The real opportunity is not choosing between AI and threat modeling. It is combining them.

ThreatModeler brings governed, architecture-aware context into AI-driven workflows so teams don’t just fix issues faster—they fix the right ones, the right way.
  • Architectural intent — understand what the system is supposed to do
  • Trust boundaries — identify where risk actually exists
  • Control logic — apply protections in the right places
  • Reusable decisions — standardize security across systems

Result: better AI output, stronger prioritization, less wasted remediation.

ThreatModeler operationalizes this with AI inside a deterministic framework, so security decisions are consistent, repeatable, and governed across the SDLC.

ThreatModeler + Glasswing

Different roles, stronger together
Bottom line: Project Glasswing and ThreatModeler solve different parts of the same security problem. One accelerates remediation. The other helps ensure remediation is grounded in architectural understanding and secure-by-design discipline.

Speed without context is the new risk

Project Glasswing highlights a real shift in AppSec: AI can help compress the time between discovery and remediation.
That is valuable. But speed alone is not enough.
  • Enterprise systems need architectural context

    When systems span cloud services, APIs, agents, data stores, identities, and infrastructure, teams need to understand how the system is supposed to work before they can decide which findings matter most.

  • Not every flaw has the same risk in context

    A vulnerability may be technically real but not equally meaningful across every architecture. We’ve already seen this with a large number of Mythos findings. Threat modeling helps teams evaluate findings in the context of trust boundaries, attacker paths, exposure, compensating controls, and business impact.

  • Secure design improves remediation quality

    When teams already know the intended design, the trust model, and the relevant control strategy, they can fix issues in ways that strengthen the system instead of just closing isolated findings.

  • Faster patching needs context

    AI can reduce the effort needed to generate fixes, but without architecture-aware context, it cannot choose which fix to implement, or if it should at all.

  • Secure-by-design creates a stronger long-term operating model

    The goal is not just to remediate faster. It is to continuously reduce preventable risk by improving architecture, standardizing security decisions, and creating a repeatable system of record.

Where ThreatModeler improves outcomes with AI

  • ThreatModeler starts with architecture and intent

    ThreatModeler captures how a system is designed, not just what code exists. That lets teams and agents identify threats, attacker paths, trust boundaries, and control gaps earlier, when they are cheaper and easier to address.

  • ThreatModeler improves the quality of downstream remediation

    When vulnerabilities are discovered, teams and agents can use ThreatModeler’s architectural context to understand which findings matter most, how to fix them in line with intended design, and where broader control improvements may be needed.

  • ThreatModeler operationalizes secure by design

    Threat modeling is how teams and agents translate architecture into security decisions. ThreatModeler turns that discipline into a scalable operating practice across the SDLC with workflow integrations, automation, reporting, and governance.

  • ThreatModeler combines AI with a deterministic framework

    Prompt-based AI is fast, but variable. ThreatModeler uses AI inside a deterministic threat modeling framework so outputs are structured, reusable, reviewable, and repeatable.

  • ThreatModeler creates a governed system of record

    ThreatModeler maintains the security ledger: the persistent record of architecture, threats, controls, decisions, updates, ownership, and rationale over time. This becomes your most valuable asset.

Get the ThreatModeler advantage with MCP


The rise of MCP changes the conversation.

ThreatModeler’s Model Context Protocol approach brings governed, deterministic threat intelligence into the AI tools teams already use. That means threat modeling can live inside AI-driven development workflows and can inform any LLM-based experience—including workflows that may eventually include tools like Glasswing.

So the decision is not “LLM or threat modeling.” The better model is:

Use AI wherever it adds speed. Use ThreatModeler to provide the architecture, governance, and deterministic threat context AI alone does not provide.

With MCP, teams can bring ThreatModeler into AI-native workflows so they are not just finding vulnerabilities faster—they are designing more secure systems from the start.

With the ThreatModeler platform, you get:

10x

more threat models created in a large enterprise deployment

50%

reduction in effort

5x

faster model creation

2900+

components

100+

protocols

ThreatModeler helps enterprises move from manual, prompt-driven, and checklist-based approaches to governed, architecture-aware threat modeling at scale. Welcome to stronger alignment to compliance, workflow integration, and repeatable reporting.

ThreatModeler vs. Glasswing FAQ

The Mythos countdown has started. Prepare with ThreatModeler today.

Whether you have access to Project Glasswing, or you’re stuck waiting in line, there’s work to do right now. Schedule time with our product experts and see how ThreatModeler customers scale to thousands of threat models per year, for an enterprise-wide view of risk, and a single control-plane to manage it.