大型语言模型提示工程进阶指南
一份全面的高级指南,通过结构化逻辑和精确指导来掌握人工智能。课程涵盖结构化框架(CO-STAR)、少样本学习、思维链推理、输出格式约束(JSON/Markdown)以及提示系统管理,以解决人工智能幻觉和逻辑输出不佳等问题。
课程概述
📚 内容概要
一份全面深入的进阶指南,通过结构化逻辑与精确指令掌握人工智能。课程涵盖结构框架(CO-STAR)、少样本学习、思维链推理、输出格式约束(JSON/Markdown)以及提示系统管理,以解决人工智能幻觉和逻辑输出不佳等问题。
通过实施结构化框架和逻辑推理链,实现从对话式人工智能交互到严谨提示工程的转变,确保结果可预测且高保真。
🎯 学习目标
- 构建结构化框架:拆解并应用 CO-STAR 方法,创建高精度指令,消除人工智能漂移和幻觉。
- 实施高级推理:利用思维链(CoT)和任务分解,引导模型完成复杂、多步骤的逻辑推演。
- 强制技术约束:掌握使用 JSON/Markdown 模式和负面提示进行精准输出控制,生成可程序解析的人工智能响应。
- 自动化提示系统:开发模块化提示库,并运用元提示技术,将人工智能视为自我优化的提示架构师。
课程 共 5 课时 · 预计 15.0h
课程
Lesson
This lesson introduces the probabilistic nature of LLMs, explaining that models function as next-token predictors rather than reasoning engines. Students learn to move beyond conversational prompting by using structural constraints and delimiters to reduce entropy and improve output precision.
This lesson explores In-Context Learning (ICL) as a method to guide Large Language Models through input-output examples rather than weight-based fine-tuning. Students will learn to use zero, one, and few-shot prompting strategies to act as structural anchors that narrow the model's probability distribution and ensure high-precision output.
This lesson explores how Chain of Thought (CoT) reasoning transforms Large Language Models into sequential engines by using the context window as an externalized working memory. Students will learn to move beyond simple prompts by designing explicit logical blueprints that force models to follow verifiable, step-by-step reasoning paths to improve accuracy.
This lesson explores the shift from conversational prompting to structural enforcement, where LLMs are treated as deterministic functions that produce machine-readable outputs. Students learn to implement schema-first methodologies and negative constraints to ensure reliable, parseable data integration within software architectures.
This lesson explores the transition from monolithic, conversational prompting to a systemic architectural approach, where prompts are treated as modular, deterministic functions. By deconstructing instructions into reusable components and variable-based templates, developers can minimize output drift and ensure consistent, scalable performance across automated AI workflows.