We continuously share large‑model know‑how, helping you master core skills—LLM, RAG, fine‑tuning, deployment—from zero to job offer, tailored for career‑switchers, autumn recruiters, and those seeking stable large‑model positions.
This article explains the proper role of Text2SQL within an Agent architecture, detailing its placement as a tool, function‑call implementation, decision logic for invocation, multi‑turn handling, failure management, and how to clearly present these concepts in technical interviews.
This article explains how Text2SQL works by teaching LLMs to understand a closed‑world database schema, constructing tightly constrained prompts, validating generated SQL, handling execution errors, and using a second LLM call to translate results into natural language, while highlighting common pitfalls and engineering best practices.
In industrial RLHF, repairing bad cases—structural error samples—provides explicit alignment signals that improve model capability far more efficiently than simply increasing data volume, because it teaches the model how to correct mistakes rather than just exposing it to more examples.
Interviewers increasingly ask why modern reward models must go beyond scalar scores to incorporate reasoning, and this article explains the limitations of traditional scalar reward models, the benefits of the RM‑R1 framework, and how reasoning‑based rewards improve alignment, stability, and task performance in large language model training.
The article explains that the real difficulty of RLHF lies in designing and curating high‑quality preference data, building robust reward models through bad‑case rewriting, human‑in‑the‑loop labeling, and inference‑based reward modeling, while algorithmic details like PPO are secondary concerns.
This article explains why handcrafted SFT data fails for function‑call agents, introduces a controllable data‑sandbox approach, details label and variable design, shows code for seed generation and full dialogue synthesis, and demonstrates how the resulting dataset improves model routing, multi‑turn handling, tool sequencing, and error resilience.
This article explains the root causes of hallucinated parameters in LLM Function Calls, outlines five common failure patterns, and presents a systematic five‑step engineering framework—including schema design, prompt rules, dynamic routing, result validation, and clarification—to reliably eliminate such errors in real‑world AI agents.
The article explains why the ReAct (Reason + Act) framework outperforms simple Chain‑of‑Thought prompting by adding executable actions, environment state awareness, and feedback loops, making large language models into controllable, reproducible, and error‑recoverable agents suitable for real‑world applications and interview discussions.
This article explains why many enterprise AI agents break down in real projects, identifies four common pitfalls—including mistaking agents for chatbots, lacking schema‑level tool logic, missing memory and variable injection, and absent end‑to‑end pipelines—and offers concrete engineering solutions to build robust, task‑driven agents.
In real‑world LLM agents, giving the model too many tools at once leads to frequent function‑call errors, but applying dynamic function routing to narrow the candidate set dramatically reduces the error rate—from over 20% down to around 1%—and provides clear guidelines on when and how to implement it.
