Argus让AI长期任务自主执行,能自纠错、存经验、持续进化。
Argus: A General-Purpose Agentic Reasoning Runtime for Long-Horizon Tasks

- 分角色协作的持久运行时,任务失败时自动调整策略。
- 在多个基准上达78%准确率,比直接调用模型提升19个百分点。
- 适合需要长期规划与自我修正的复杂任务,如编程、数学证明。
长周期推理需要具备持续执行能力的智能体运行时,能在证据支持时坚持原策略,发现失败、隐藏约束或目标错误时及时转向。我们提出Argus,一个持久、自演化的运行时系统,由经理、规划者、工程师和评审者协同完成有界任务,维护稳定的项目状态。Argus将用户意图与操作目标、约束及验证标准分离,仅在角色审查后或任务原生验证通过时才接纳记忆、技能、流程、验证器、路由决策和被拒路径。模型权重保持不变,自演化通过持久化运行时状态与控制策略实现,操作者只在预设升级点介入。在七个GPT-5.5基准测试中,Argus在SWE-Bench Pro上达到约78%,优于直接使用Copilot的59%,且总调用令牌数仅增加1.41倍。经验证门控自演化后,成熟任务波次较初始波次减少21%的求解输入令牌、降低15%的任务活跃时间,同时记录34次验证器恢复和22次严格评审循环救援。在AARRI-Bench上达76.8%,数学数据合成任务差距达28.0分,且在GPU内核与语言模型训练中表现良好。此外,优化的RWKV6内核已合并至上游;多日数学攻关任务保留了被否定路径并基于证明更新前沿;六条论文流水线完成254项任务,包含16次阶段回滚。结果表明,固定权重但可自演化的框架能够持续修正、恢复并积累已验证方法,生成结构化轨迹以支持未来监督与强化学习。
原文摘要 · Abstract (English)
Long-horizon reasoning requires an agentic runtime that can persist when evidence supports its current approach and pivot when measurements reveal failure, hidden constraints, or a misspecified objective. We present Argus, a persistent, self-evolving runtime in which Manager, Planner, Engineer, and Reviewer execute bounded missions over durable project state. Argus separates stable user intent from operational objectives, constraints, and verification criteria, and admits memories, skills, procedures, verifiers, routing decisions, and rejected routes only after role-owned review and, when available, task-native verification. Model weights remain fixed; self-evolution occurs through persistent runtime state and control policy, with autonomous execution between operator-owned escalation points. Across seven GPT-5.5 benchmark arenas, Argus achieves about 78% on SWE-Bench Pro versus 59% for Direct Copilot while using 1.41 times the aggregate tokens. After verification-gated self-evolution, mature SWE-Bench waves use 21% fewer solve-input tokens and 15% less active workflow time per task than startup waves, while recording 34 verifier recoveries and 22 strict review-loop rescues. Argus also reaches 76.8% on AARRI-Bench and a 28.0-point gap on mathematical data synthesis, with competitive GPU-kernel and language-model-training results. Beyond benchmarks, an optimized RWKV6 kernel was merged upstream; a multi-day mathematics campaign retained falsified routes and proof-backed frontier updates; and six paper pipelines completed 254 missions with 16 stage rollbacks. These results show that a fixed-weight, self-evolving harness can revise, recover, and accumulate verified approaches while producing structured trajectories for future supervised and reinforcement learning.
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