Kronumos combines neural reasoning models with a deterministic native Rust compiler kernel to synthesize verified bug repairs with zero dirty diffs.
Direct C-ABI FFI bindings eliminate runtime overhead, executing Tree-sitter AST validation and indentation healing under 5 microseconds.
Generates verified multi-line code patches with 100% syntax compliance, resolving complex upstream software bugs in production repositories.
Automated structural AST guards reject destructive function rewrites, enforcing minimal 1-5 line patches verified against upstream test suites.
Kronumos investigates the integration of generative language models with formal compiler analysis. The framework prevents syntax regression by verifying abstract syntax trees prior to applying unified diffs.
Developing autonomous agents capable of diagnosing root-cause software bugs, synthesizing surgical code modifications, and independently verifying fixes against exhaustive regression suites.
Pairing deep neural reasoning models with an unyielding native Rust compiler kernel (C-ABI 5µs). Generative reasoning plans the fix; deterministic compilers guarantee mathematical syntax safety.
Engineered for uncompromising data sovereignty. The entire Kronumos stack can be deployed fully air-gapped on private bare-metal infrastructure without leaking proprietary IP to external cloud providers.
Systematic comparison between unconstrained neural code generation and compiler-assisted program repair.
git apply in CI/CD pipelines.git apply.Kronumos was founded to develop verified, deterministic program repair systems.
Leads AI systems architecture, native Rust compiler kernel engineering, and empirical benchmarking on Princeton SWE-bench Verified.
Leads operational infrastructure, organizational governance, and research collaboration partnerships.
Leads frontend interface architecture, developer tooling ergonomics, and system visual typography.