大型語言模型提示工程進階指南
一份全面的進階指南,教你透過結構化邏輯與精確指示掌握人工智慧。課程涵蓋結構框架(CO-STAR)、少樣本學習、思考鏈推理、輸出格式限制(JSON/Markdown)以及提示系統管理,以解決如人工智慧幻覺和邏輯輸出不佳等問題。
課程總覽
📚 內容摘要
一份全面的進階指南,透過結構化邏輯與精確指令掌握人工智慧。課程涵蓋結構框架(CO-STAR)、少樣本學習、思維鏈推理、輸出格式限制(JSON/Markdown),以及提示系統管理,以解決如人工智慧幻覺和低品質邏輯輸出等問題。
透過實施結構化框架與邏輯推理鏈,掌握從對話式人工智慧互動過渡到嚴謹提示工程的技巧,確保結果可預測且高保真。
🎯 學習目標
- 建構結構框架: 解構並應用 CO-STAR 方法,創造高精度指令,消除人工智慧偏移與幻覺。
- 實踐進階推理: 利用思維鏈(CoT)與任務分解,引導模型完成複雜的多步邏輯推演。
- 強制技術限制: 精通使用 JSON/Markdown 模式與負面提示,實現精確的輸出控制,打造可程式解析的人工智慧回應。
- 自動化提示系統: 建立模組化提示資料庫,並運用元提示技術,將人工智慧視為自我優化的提示架構師。
課程 共 5 课时 · 预计 15.0h
課程
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.