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Vorthix Sec · AI-driven cyber reasoning

AI-driven cyber reasoning for software security.

Vorthix XOR-1 analyzes source code and compiled binaries the way a security researcher would. It tests its own hypotheses in an isolated environment, and our research team reviews findings before they are delivered.

  • Isolated environments
  • Expert review
  • Coordinated disclosure
Analysis overviewExample engagement
Illustrative
  1. Ingest and modelSource and binaries are mapped, with entry points and trust boundaries identified.
    Complete
  2. Form hypothesesCandidate weaknesses are ranked by likelihood and impact.
    Complete
  3. 3
    Validate in isolationCandidates are reproduced in a sandbox before they count as findings.
    Running
  4. 4
    Expert reviewOur research team checks the evidence before delivery.
    Next
Source + binaryInputs analyzed
Reviewed reportWhat you receive
Delivered with each findingReproducer · Trace · Suggested patch

Analyzes source code and compiled binaries in 14 languages

  • C
  • C++
  • Rust
  • Go
  • Python
  • TypeScript
  • JavaScript
  • Java
  • Kotlin
  • Ruby
  • PHP
  • Swift
  • Assembly
  • Solidity

Why most security tooling falls short

A wall of warnings is not security. Evidence is.

Finding candidate bugs has become cheap. Knowing which ones are real is the expensive part, and it is where security teams lose their time.

Choose a challenge

Pattern-matched warnings bury real issues under noise. Engineers spend days triaging findings that were never exploitable in the first place.

How Vorthix approaches it

Findings are reproduced before they are reported, with a working proof of concept.

Pattern matching struggles with logic flaws, incomplete fix bypasses and cryptographic misuse. Many significant vulnerabilities sit where signatures do not reach.

How Vorthix approaches it

Vorthix treats a patch as a claim and tests whether it holds on every path.

Expert review is thorough but slow and expensive, and it covers one point in time. Vorthix reasons through the same attack surface continuously and in parallel.

How Vorthix approaches it

Analysis re-runs as your code changes.

Manual red teams take weeks per engagement. Vorthix builds an isolated test environment, runs the exploit end to end and confirms that the issue is reachable by an attacker.

How Vorthix approaches it

Reachability is confirmed in an isolated lab, not assumed.

How it works

From first read to a reviewed report.

  1. Ingest

    Build the code and map every entry point.

    Vorthix clones the repository and compiles it with AddressSanitizer, UBSan and coverage instrumentation. It builds a model of every reachable entry point, sink and trust boundary, from source or binary.

    ASan + UBSan buildEntry pointsTrust boundaries
  2. Hypothesize

    Reason like an attacker. Read patches as claims.

    The engine reasons adversarially. It prioritizes parsers, decoders, deserializers and authentication paths, and it reads patches as claims to find where a claim’s assumption breaks.

    Ranked hypothesesPatch assumptions
  3. Validate

    Reproduce the issue in an isolated environment.

    Vorthix writes a proof of concept. For network issues it provisions attacker and target environments, runs the exploit end to end and checks reachability. For memory corruption it compiles with AddressSanitizer and confirms the result reproduces.

    Proof of conceptIsolated labSanitizer repro
  4. Review and report

    A complete package, reviewed by people.

    Minimized reproducer, sanitizer trace, root-cause path, suggested patch and a regression test that fails before the fix and passes after. Our research team reviews the package before it is delivered.

    ReproducerTracePatchRegression test

Evidence, not alerts

Findings arrive with the evidence to reproduce them.

Each finding includes a working proof of concept, the minimized input and, for memory corruption, a sanitizer trace that points to the exact line. Your engineers can verify it themselves.

  • Confirmed dynamically, not inferred from a pattern
  • Minimized, deterministic input
  • Exact root-cause line and call path
asan-trace.txtIllustrative sample
==2381==ERROR: AddressSanitizer: heap-buffer-overflow
WRITE of size 4 at 0x602000000058 thread T0
    #0 parse_record src/parser.c:214
    #1 handle_input src/handler.c:88
    #2 main poc.c:23
SUMMARY: heap-buffer-overflow src/parser.c:214 in parse_record
Example of the kind of sanitizer trace included with a finding.
  1. 1poc.cProof of concept

    Written by the engine and confirmed dynamically.

  2. 2reproducer.inMinimized input

    The smallest deterministic input that still triggers the issue.

  3. 3asan-trace.txtRuntime trace

    Sanitizer output showing exactly what the program did wrong.

  4. 4root-cause.mdRoot cause

    The exact line and path where the assumption breaks.

  5. 5fix.patchSuggested patch

    A change your engineers can review and merge.

  6. 6regression-test.cRegression test

    Shows the fix holds and the issue stays fixed.

    Fails beforePasses after

The evidence standard

Nothing is marked confirmed without evidence that proves it.

Anyone can build an AI agent that reports vulnerabilities. The harder problem is trust at scale: can a system run for hours, across hundreds of reasoning steps, and hand back a report you can act on without re-doing the work yourself? Vorthix XOR-1 is built around one rule. Every receipt has to prove the specific thing it is attached to.

  • Every conclusion traces to evidence

    Findings link back to real, retrievable evidence from the code, not to a paraphrase or a summary of what the engine remembers reading.

  • Confident wording cannot close a finding

    A finding changes status only when proof supports it. A model writing that something is safe is not the same event as proving it.

  • Each claim needs its own evidence

    When a conclusion rests on several facts, every fact needs its own supporting evidence. One real citation cannot vouch for claims it never addressed.

  • “Insufficient evidence” is a valid result

    Vorthix XOR-1 can end an investigation honestly instead of guessing in either direction. An honest unknown beats a confident mistake.

Published research

Selected research.

A selection of coordinated disclosures. Each write-up includes the full technical detail.

HighCWE-122

CVE-2026-53720

Heap buffer overflow in pymonocypher argon2i_32()

Jun 2, 2026
The findingAn out-of-bounds write driven by an unchecked block-index calculation. AddressSanitizer confirmed the write; a patch was live on PyPI 15 hours after disclosure.
In progress

CVE assigned · pending disclosure

Open-source target — coordinated disclosure in progress

Solutions

Security research for engineering teams.

Vorthix XOR-1 works through your code from first read to a validated report, and our research team reviews the result before it is delivered.

  • Capability

    Source code auditing

    Vorthix XOR-1 reads your repository the way an attacker would, then demonstrates each issue with a working proof of concept.

    1. Ingest and model
    2. Form hypotheses
    3. Write the proof of concept
    4. Confirm and report
    Explore source code auditing
  • Capability

    Zero-day research

    Previously unknown vulnerabilities in widely used software, found, demonstrated and disclosed with the maintainers.

    1. Choose the targets
    2. Analyze the code
    3. Demonstrate the finding
    4. Disclose responsibly
    Explore zero-day research
  • Capability

    Incomplete fix detection

    A patched CVE is a claim. Vorthix XOR-1 tests whether the fix really closes every path to the issue.

    1. Read the patch
    2. Map every call path
    3. Find the broken assumption
    4. Demonstrate the bypass
    Explore incomplete fix detection
  • Capability

    Attack surface analysis

    Vorthix XOR-1 maps how an attacker can actually reach your code and reports the issues that are attacker-reachable.

    1. Enumerate entry points
    2. Trace untrusted data
    3. Build the lab
    4. Confirm reachability
    Explore attack surface analysis

How Vorthix fits

Three approaches, each with a job. Here is where Vorthix fits.

These approaches complement each other. This shows where each one is strongest.
What mattersPattern-matching scannersManual review and red teamsVorthix XOR-1
How it works
Partial: Matches code against known patterns
Partial: Experts read the code and test by hand
Strong: Reasons about how code can fail, then tests the idea
Strongest at
Strong: Known bug patterns, quickly and cheaply
Strong: Judgment, business context and creative attacks
Strong: Logic flaws, incomplete fixes and reachability
Evidence with each finding
Limited: A warning an engineer must investigate
Partial: A written report, usually a point-in-time snapshot
Strong: Reproducer, trace and root cause
Coverage over time
Strong: Runs on every commit
Limited: A fixed engagement window
Strong: Re-analyzes as the code changes
What engineers receive
Limited: A list of alerts to work through
Partial: A report that ages with the next release
Strong: Reproducer, trace, suggested patch and regression test

How we handle your code

  • Isolated by design

    Ephemeral sandbox for every taskEvery analysis runs in an isolated, ephemeral sandbox on Vorthix infrastructure, destroyed when the task ends.

  • Expert review

    Checked before deliveryThe Vorthix research team verifies each finding and its evidence before it reaches you.

  • Coordinated disclosure

    Maintainers hear firstVulnerabilities are reported to maintainers and disclosed in coordination with them.

  • Your code stays yours

    Not used for trainingSource code and findings are never shared with third-party AI providers or used to train third-party models.

About the product

What is Vorthix XOR-1?

Vorthix XOR-1 is an AI-driven cyber reasoning engine built by Vorthix Sec. It analyzes source code and compiled binaries, forms hypotheses about how the software can be attacked, tests them in an isolated environment and reports a finding only when the evidence supports it. The Vorthix research team reviews every finding before it is delivered. Read the full methodology in how Vorthix works.

Unlike pattern-matching scanners, Vorthix XOR-1 reasons adversarially. It treats a security patch as a claim and tests whether it holds on every path, a technique covered in depth in the incomplete fix detection guide. It is also built to answer “insufficient evidence” when it cannot prove a conclusion, instead of guessing, which is explained in why we built Vorthix XOR-1 this way.

Every finding is proof-based, not probabilistic. See why a working proof of concept sits behind every report. Vorthix focuses on the open-source infrastructure layer: the parsers, cryptographic libraries, protocol implementations and developer tools that underpin enterprise software. Selected coordinated disclosures are in our research section, and terms such as evidence-gated and attacker-reachable are defined in the glossary.

Product
Vorthix XOR-1
Built by
Vorthix Sec
Category
AI-driven cyber reasoning for software security
Inputs
Source code and compiled binaries
Validation
Isolated, ephemeral sandboxes
Review
Vorthix research team, before delivery
Access
By request

FAQ

Frequently asked questions.

How Vorthix works, and how it handles your code.

01

What is Vorthix XOR-1?

Vorthix XOR-1 is the AI-driven cyber reasoning engine built by Vorthix Sec. It analyzes source code and compiled binaries the way a security researcher would: it forms hypotheses about how software can be attacked, tests them in an isolated environment, and reports a finding only when the evidence supports it. The Vorthix research team reviews findings before they are delivered.

02

How is Vorthix different from a traditional SAST scanner?

Traditional SAST tools rely on pattern matching and signature databases. Vorthix XOR-1 reasons through code like a security researcher and understands context, which lets it find incomplete fixes and novel vulnerability patterns that scanners often miss. It also tests its own hypotheses, so engineers receive findings with evidence instead of a list of warnings to investigate.

03

What languages does Vorthix support?

Vorthix XOR-1 analyzes source code and compiled binaries in C, C++, Rust, Go, Python, TypeScript, JavaScript, Java, Kotlin, Ruby, PHP, Swift, Assembly, and Solidity. Because it can also reason about compiled code and not only syntax, it can examine software when source is not available.

04

Can Vorthix XOR-1 say it does not know?

Yes, and that is a deliberate design decision. "Insufficient evidence" is a first-class outcome. Vorthix XOR-1 is allowed to end an investigation without declaring a finding safe or vulnerable, because an honest unknown is worth more to a security team than a confident guess that quietly buries a real issue.

05

What does "proof-based security research" mean?

Proof-based security research means a vulnerability is reported only with evidence that supports it, such as AddressSanitizer logs, exploit traces or a demonstrated proof of exploitability. Each finding comes with a working proof of concept that Vorthix XOR-1 wrote and confirmed dynamically, and the Vorthix research team verifies it before delivery.

06

Can Vorthix find incomplete fixes to known CVEs?

Yes. Vorthix treats a patch as a claim and tests whether it holds on every path. It maps the assumption a fix relies on across the codebase and reports where that assumption breaks, which depends on reasoning-based analysis rather than pattern matching.

07

Is my source code kept private?

Yes. Every analysis runs in an isolated, ephemeral sandbox on Vorthix infrastructure, and the environment is destroyed when the task ends. Your source code and findings are never shared with third-party AI providers or used to train third-party models.

Still have a question about how it would work on your code?

Request access

See how Vorthix works on your code

Access is currently by request for security teams and researchers.

  • Working proof of concept
  • Sanitizer-backed trace
  • Suggested patch and regression test