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A curated collection of papers and repositories on Auto-Skill (self-evolving agent strategies), Auto-Rubric (automated rubric discovery from preference data), and Harness Evolution (automatic evolution of agent harnesses — prompts, tools, memory, and orchestration logic). Contributions welcome!
Research on enabling LLM-based agents to autonomously create, evolve, and reuse skills from experience, achieving self-improvement without human intervention.
Agents autonomously learn reusable procedural skills from interaction via Non-Parametric PPO — formalizes a Skill-MDP with activation/execution/termination conditions and a PPO Gate for robust skill verification. ICML 2026 Spotlight.
Meta-editing framework where a meta-agent observes accumulated evolution context and edits the procedure/agent context that controls future evolution — 26% relative improvement over strongest baseline.
Skill-centric agent framework with a unified skill lifecycle (creation, memory, management, evaluation, refinement) — introduces skill-level memory that accumulates experience across tasks for better reuse and cross-agent transfer.
Skill co-evolution with multi-agent systems — jointly evolves skills and agent coordination strategies, coupling two adaptation targets that are typically decoupled.
First multi-stage retrieval pipeline for agent skill discovery — frames skill acquisition as an information retrieval problem over ~36K community-contributed skill definitions from GitHub.
Benchmark of 166 tasks across 20 families for lifelong skill discovery and evolution — evaluates whether agents can discover skills, repair them, and maintain coherent libraries over time.
Diagnostic benchmark for evaluating the step from experience reuse to skill formation — 180 tasks across 6 real-world domains testing whether episodic trajectories can be distilled into reusable procedural skills.
Auto-Rubric: Automated Rubric Discovery from Preferences
Research on automatically discovering and learning evaluation rubrics from preference-pair data, enabling interpretable, customizable reward signals for LLM alignment.
Paradigm shift from implicit to explicit reward parameterization — iteratively induces discriminative criteria via verification-driven refinement and compresses them into hierarchical rubric structures. With only 70 preference pairs, outperforms fully trained reward models on RewardBench2.
Learns query-specific rubrics from human preferences for DeepResearch report generation — addresses the lack of verifiable reward signals for long-form research outputs.
Scales reinforcement learning with pairwise adaptive rubrics — addresses the limitation of scalar reward models that compress multi-dimensional preferences.
Inference-time adaptive rubric learning via memory tuning and adversarial probing — adapts a frozen rubric generator through a tunable memory bank, alternating with rubric-adversarial policy updates.
Contrast-driven rubric generation for reliable and interpretable reward modeling — generates rubrics by contrasting preferred and dispreferred responses.
Hierarchical fine-grained criteria modeling for medical LLM alignment via explicit injection — adapts rubric learning for high-stakes medical domains. ACL 2026.
Self-evolving agentic reward framework that reframes reward modeling as context evolution — iteratively evolves a library of tools and skills from as few as 100 preference demos, surpassing GPT-5 by 5.3 points on image-editing evaluation using only 0.05% of preference data.
Rubric-guided RL framework combining stagewise policy decomposition with reflection-based meta-policy evolution for deep research agents — rubrics serve as the shared interface for policy execution, judge feedback, and agent memory.
Inducing fine-grained evaluation capability in language models using rubric-based evaluation — a foundational work for rubric-guided LLM judges. ICLR 2024.
Research on automatically evolving agent harnesses — the runtime substrate of prompts, tools, memory, orchestration logic, and verification that surrounds a frozen LLM and determines its effectiveness. Instead of changing model weights, harness evolution optimizes everything around the model.
Outer-loop system that searches over harness code using an agentic proposer with access to source code, scores, and execution traces — improves over SOTA context management by 7.7 points and surpasses hand-engineered baselines on TerminalBench-2.
Two-level framework: a Harness Evolution Loop optimizes worker agent harnesses per-task, and a Meta-Evolution Loop learns a universal blueprint that enables rapid harness convergence on any new task with zero human engineering.
Closed-loop observability-driven harness evolution with three pillars: component, experience, and decision observability — lifts pass@1 on Terminal-Bench 2 from 69.7% to 77.0%, surpassing human-designed Codex-CLI and self-evolving baselines.
Diagnostic study disentangling evolution capabilities — shows harness updating does not always improve performance, identifying when and why self-evolution succeeds or fails.
Trace-guided framework for diagnosing agent failures and repairing harnesses — compiles traces into Harness-aware Trace IR, attributes failures to specific harness layers, and generates validated patches. Improves held-out performance by 15.2%–50.0% over initial harnesses.
Formalizes the agent harness as a runtime substrate with 11 component responsibilities and a four-level capability ladder (H0–H3) — reframes the question from "can the model produce a patch" to "can the system produce a verifiable change."
Comprehensive survey on code as the operational substrate for agent reasoning, acting, and verification — covers harness interface, mechanisms (planning, memory, tools), and scaling to multi-agent systems.
Unified review of memory, skills, protocols and harness engineering — 54-page tech report on how capabilities are externalized from model weights to runtime components.
Every task deserves its own memory harness — proposes task-adaptive memory systems instead of fixed memory designs, optimizing memory structure for each domain.
Contributing
Contributions are welcome! Please follow these steps:
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Guidelines
Papers should be related to Auto-Skill (self-evolving agent skills), Auto-Rubric (automated rubric learning from preferences), or Harness Evolution (automatic agent harness engineering)
Include the arXiv link (or conference link if published)
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License
This project is licensed under the MIT License - see the LICENSE file for details.
A curated collection of papers & repos on Auto-Skill (self-evolving agents) and Auto-Rubric (rubric learning from preferences) for LLM alignment & customization.