Kronumos/Kronumos-Kairos-v2
Kronumos/Kronumos-Kairos-v2 is a 7.6 billion parameter cybernetic autonomous program repair (APR) model developed by Tokenectomy Labs, fine-tuned from Qwen/Qwen2.5-Coder-7B-Instruct with a 32768 token context length. It integrates a neural cortex for semantic reasoning with a deterministic Rust-based sub-cortex for AST validation and healing. This model is optimized for high-precision code remediation on real-world production software bugs, achieving significant token efficiency and local execution capabilities on the SWE-bench Verified benchmark.
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Kronumos 2 Kairos: Dual-Brain Autonomous Program Repair
Kronumos 2 Kairos, developed by Tokenectomy Labs, is a 7.6 billion parameter open-weight model designed for autonomous program repair (APR). Fine-tuned from Qwen/Qwen2.5-Coder-7B-Instruct, it uniquely combines a parametric neural "Cortex" with a deterministic, native Rust "Sub-Cortex" for high-precision code remediation. This architecture enables efficient, local bug fixing on production software.
Key Capabilities
- Cybernetic Dual-Brain Architecture: Integrates neural reasoning (5-step CoT, code hunk generation) with a deterministic Rust Sub-Cortex (Tree-sitter AST slicing, auto-bracket/indent healing, Merkle causal ledger).
- High-Precision Code Remediation: Specifically fine-tuned for fixing real-world production software bugs, demonstrated on the SWE-bench Verified benchmark.
- Efficiency: Achieves 93.5% token reduction compared to industry multi-turn baselines, processing tasks with an average of 2,512 tokens in a single-pass zero-shot mode.
- Local Execution: Designed for rapid local bug remediation on workstations and CI/CD gates, with a low VRAM footprint (5.5 GB for 4-bit quantization).
- Issue De-Noising: Features an integrated Sub-Cortex IssueDeNoiser to strip conversational chaff and extract core problem specifications from GitHub issues.
- Deterministic Healing: The Rust Sub-Cortex provides sub-microsecond latency (5Β΅s) for tasks like indentation healing and bracket balancing.
Good For
- Automated Bug Fixing: Ideal for autonomous program repair in CI/CD pipelines or local development environments.
- Code Quality Assurance: Enhancing code integrity by automatically correcting syntax and structural errors.
- Reducing Development Costs: Eliminating API costs associated with cloud-based models for code repair.
- Offline Development: Enabling robust code repair capabilities on offline laptops and edge devices.