A tutorial paper from arXiv surveys the transition of LLM-based agentic systems from research prototypes to production deployments across software engineering, scientific discovery, and finance. The work covers reasoning and planning, multi-agent coordination, and evaluation, with applied case studies in pharmaceutical discovery and financial systems. It identifies common design patterns for successful deployments and practical mitigation strategies for failure modes including verification pipelines, fallback mechanisms, and human-in-the-loop supervision.
A two-part tutorial-and-survey paper formalizes the application of LLM-based agentic AI to 5G and 6G network architectures, covering reasoning, planning, tool use, and multi-agent coordination mapped onto telecom control planes. The work addresses a gap in existing literature by integrating protocol-level detail, evaluation frameworks, and standardization alignment. It surveys major 6G initiatives and identifies open challenges for autonomous telecommunications. The paper targets researchers and practitioners at the intersection of AI agents and next-generation network infrastructure.
A comprehensive arXiv survey systematically reviews the design and engineering of interactive environments for LLM-based agents, covering the full lifecycle from environment modeling and synthesis to evaluation and application. The paper categorizes environments across eight attributes and eight domains, introduces symbolic and neural synthesis paradigms, and characterizes four pathways for agent-environment co-evolution including memory-centric, orchestration-centric, trajectory-centric, and exploration-centric approaches. It also identifies three paradigms of environment evolution (neural-driven, difficulty-driven, scaling-driven) and proposes future directions such as Environment-as-a-Service and multi-agent environments. This is a reference-organizing contribution for the rapidly growing agent tooling and evaluation space.
A new arXiv preprint presents a tutorial on applying LLMs and agentic AI systems to power grid tasks including wind forecasting, EV charging scheduling, power flow analysis, and contingency diagnosis. The paper proposes a 'solver-grounded' design principle where numerical outputs are only reported when they originate from a trusted external solver and pass explicit verification, addressing the problem of LLMs producing physically infeasible outputs. Four case studies compare LLM-only baselines against solver-grounded agents, with EVAgent reducing unmet energy by 7.5-9.5x and GridDebugAgent repairing 17/39 contingency cases while cutting violations by 52.3%. A four-group evaluation framework covering task utility, solver correctness, faithfulness, and cost/latency is also proposed.
Researchers from MERL propose LLawCo (Learning Laws of Cooperation), a framework that enables embodied LLM-based agents to autonomously align with partners and task objectives in decentralized, partially observable environments. Agents reflect on past failures to extract misaligned behavioral patterns and derive high-level behavioral laws (e.g., 'Talk when necessary', 'Wait for partner'), which are incorporated into reasoning via supervised fine-tuning. The authors also introduce PARTNR-Dialog, a new large-scale multi-agent communicative planning benchmark, and report average success rate improvements of 4.5% on PARTNR-Dialog and 6.8% on TDW-MAT over state-of-the-art open-source communicative agent frameworks across four backbone LLMs.
A preprint from arXiv argues that populations of agentic LLMs — equipped with persistent memory, tools, and autonomous action — can serve as a computational substrate for Artificial Life (ALife) research. The key claim is that because agents communicate in natural language, their collective emergent behaviors are directly interpretable by examining textual traces or querying the agents themselves. The paper extends existing notions of LLM interpretability to multi-agent collectives and surveys recent examples of agentic LLM systems in both controlled and deployed settings. This positions multi-agent LLM systems as a novel lens for studying emergence and complexity while retaining interpretability.
A new arXiv survey reviews the application of large language models to front-end chip design tasks, including hardware description language (HDL) generation, testbench construction, and high-level synthesis optimization. The paper traces the evolution from LLMs as localized assistants toward autonomous agentic EDA systems, citing OpenClaw as a representative pioneering system. It identifies key challenges and outlines future opportunities for agentic AI in electronic design automation.
This paper introduces the stochastic-deterministic boundary (SDB) as a foundational architectural primitive for production LLM agent runtimes, defining it as a four-part contract (proposer, verifier, commit step, reject signal) governing how LLM outputs become system actions. The authors organize agent runtime design around Coordination, State, and Control concerns, presenting a catalog of six runtime patterns applicable to conversational, autonomous, and long-horizon agents. A five-step pattern-selection methodology and diagnostic procedure mapping production failures to pattern weaknesses are contributed, along with a newly named failure mode—replay divergence—where LLM consumers of deterministic event logs produce inconsistent outputs across model versions or prompt changes. The paper argues that as model variance decreases, architectural pattern choice and SDB strength become the dominant reliability levers.
A curated GitHub repository collecting over 100 deployable AI agent and RAG (Retrieval-Augmented Generation) applications built with LLMs. The collection is designed for practical use — clone, customize, and ship. With 110,915 total stars and 202 added today, it reflects strong community interest in applied LLM tooling.