OpenAI 2026 hackathon

AnviLTS

Build safer concurrent systems with your AI agents by giving them the ability to formally model your system and mathematically prove it free of deadlock and logic bugs

Solo project by Akhilesh Sastry · 0 likes · 0 comments

Archive position — measured, not model output

0 likes on Devpost

2,264 of the 7,856 archived projects have more likes, and 5,592 share exactly 0 — so this project's #2,663 place in the like-ranked listing is a tie-break inside that group, not a ranking.

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Likes on Devpost. ▲ marks this project's group.

Show the figures
LikesProjectsShare of archive
05,59271.2%
11,75822.4%
22853.6%
3–41321.7%
5–9751.0%
10+140.2%
Devpost like counts for all 7,856 archived projects, captured when this archive was built.

Executive Summary

What the company appears to be

AnviLTS is a self-reported tool that aims to make formal verification of concurrent systems accessible to engineers by integrating with AI agents like Codex via an MCP server. It allows AI agents to model concurrent code as Labelled Transition Systems (LTS) and verify safety, liveness, and deadlock properties using a reconstructed version of the LTSA engine.

What changed

The author describes building a new implementation of core LTSA functionality in TypeScript that can be invoked by an AI agent through an MCP server. This reimplementation is intended to bypass the steep learning curve and documentation issues associated with traditional formal methods tools like LTSA, which use FSP notation.

Single most important open question

Is there evidence that AnviLTS has been used or tested in real-world concurrent systems? The description states it was built for a hackathon and includes validation against textbook examples but does not provide any data on adoption, usage, or performance in production environments.

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What The Product Actually Is

The description states that AnviLTS is a model checker that integrates with AI agents (specifically Codex) via an MCP server. It reconstructs the core engine of LTSA (Labelled Transition System Analyzer) in TypeScript and enables verification of concurrent systems for:

  • Deadlock freedom
  • Safety properties ("nothing bad ever happens")
  • Liveness/progress properties ("something good eventually happens")

The tool supports four interaction methods through the MCP server:

  • validate_model
  • compose_lts
  • verify_lts
  • render_lts

It also includes mechanisms for human-in-the-loop validation, code provenance tracking, and abstraction ledger recording assumptions.

Inference The product is described as a reimplementation of LTSA's core logic, not an original formal verification tool. It is built to be used by AI agents rather than directly by engineers.

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Positioning & Claim Evolution

The author claims that AnviLTS bridges the gap between academic formal methods and industry practice by enabling AI agents to perform safety checks on concurrent systems without needing to understand complex notations like FSP.

Key claims

  • Traditional tools like LTSA are inaccessible to engineers due to steep learning curves.
  • With LLMs becoming part of daily coding workflows, there is an opportunity for AI agents to act as formal modeling experts.
  • AnviLTS allows agents to model systems and verify correctness without requiring knowledge of formal languages.

Inference The positioning evolves from a hackathon prototype into a potential developer tool for AI-assisted concurrency safety, though no evidence exists that this transition has occurred beyond the author’s own development.

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Target Customer & ICP

The description states that AnviLTS targets engineers who write concurrent systems and use AI agents like Codex. These users are likely developers working in environments where race conditions, deadlocks, or other concurrency bugs cause disruptions.

Inference The target customer is software engineers working with concurrent code, particularly those using AI coding assistants. However, no specific industry vertical, company size, or persona data is provided.

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Business Model & Pricing Evidence

There is no evidence in the description of any business model or pricing structure. The project is described as a hackathon submission and does not mention monetization, licensing, or user acquisition strategies.

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Technical & Delivery Signals

The author reports:

  • Reimplementation of LTSA core logic in TypeScript
  • Integration with Codex via MCP server
  • Differential testing against official LTSA tool on 62 test cases (all matched)
  • Use of code citations and abstraction ledgers for traceability
  • Human-in-the-loop validation to ensure agent modeling accuracy

Inference The technical approach involves rebuilding a formal verification engine in modern languages, leveraging AI agent interfaces, and maintaining traceability between model and source code.

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Traction & Maturity Signals

The description states that AnviLTS was built for the OpenAI 2026 hackathon. It includes validation against textbook examples but provides no evidence of:

  • Real-world usage
  • Customer feedback or adoption
  • Performance metrics in production systems
  • Any form of product-market fit or traction indicators

Absence of evidence

No data on user base, revenue, or system performance beyond the author's own testing.

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Competitive Context

The description does not mention competitors or existing tools in the formal verification space. It references LTSA as a prior tool but does not compare AnviLTS to other solutions such as Alloy, TLA+, SAT solvers, or similar concurrency-checking platforms.

Absence of evidence

No competitive analysis or differentiation strategy is provided.

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Key Risks & Red Flags

  • Unproven adoption: The project is described as a hackathon submission with no real-world usage.
  • Limited scope: Only one person built the entire system; no team or organizational structure is evident.
  • Human-in-the-loop dependency: Reliance on human validation may limit scalability and automation.
  • Technical limitations: Known issues include state-space explosion and visualization slowness.
  • No commercial viability: No mention of monetization, pricing, or go-to-market strategy.

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Diligence Questions To Ask The Founders

  1. What specific concurrent systems have you tested AnviLTS on?
  2. How does AnviLTS handle large-scale state spaces that cause performance issues in traditional tools?
  3. Can you demonstrate a working integration with Codex or another AI agent?
  4. Have you validated the accuracy of the reconstructed LTSA engine beyond textbook examples?
  5. What is your roadmap for scaling beyond the current MVP and into enterprise use cases?

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Investment/Partnership Verdict

Confidence: Low

The description presents AnviLTS as a conceptual prototype built during a hackathon, with no evidence of traction, revenue, or customer adoption. While the technical approach is described in detail, there is no indication that it has moved beyond proof-of-concept.

Findings

  • The product is self-reported and unverified.
  • No data on usage, performance, or real-world impact.
  • No business model or commercial strategy evident.
  • The author is a single individual with no team structure.

Conclusion

AnviLTS appears to be an early-stage idea or prototype, not yet a viable product for investment or partnership. Further due diligence would require evidence of actual usage, performance data, and a clear path to market.

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Source

Submitted to the OpenAI 2026 hackathon on Devpost. Project home on DevPost.

The analysis above was generated by a language model from the project's own one-line description. It is not independent research and contains no verified traction, revenue or customer data.