Master LLM Prompts for Peak Performance
Advanced prompt engineering patterns: few-shot learning, chain-of-thought, prompt optimization, templates, and system prompt design.
Why it matters
Unlock the full potential of Large Language Models by mastering advanced prompt engineering techniques. This skill provides structured patterns and best practices to enhance LLM performance, reliability, and controllability for a wide range of tasks.
Outcomes
What it gets done
Implement few-shot learning for consistent output formatting.
Utilize chain-of-thought prompting for complex reasoning tasks.
Design and optimize prompts using template systems and system prompts.
Apply progressive disclosure and instruction hierarchy for clarity.
Install
Add it to your toolbox
Run in your project directory:
curl -fsSL https://spark.entire.vc/get/ag-prompt-engineering | bash Overview
Prompt Engineering Patterns
A prompt engineering patterns skill covering few-shot learning, chain-of-thought reasoning, systematic prompt optimization, reusable templates, and system prompt design. Use when building or improving production LLM prompts that need consistency, reliability, and measurable iteration.
What it does
Prompt Engineering Patterns covers five core techniques for maximizing LLM performance and reliability. Few-shot learning teaches by example (2-5 input-output pairs) rather than explanation, useful for consistent formatting or edge-case handling, trading more tokens for better accuracy. Chain-of-thought prompting requests step-by-step reasoning before the final answer - either zero-shot ("Let's think step by step") or via example reasoning traces - reported to improve accuracy on analytical tasks by 30-50%. Prompt optimization is systematic: start simple, measure accuracy/consistency/token usage, then iterate through versions (e.g. "Summarize this article" → "Summarize in 3 bullet points" → "Identify the 3 main findings, then summarize each"), using A/B testing on diverse inputs including edge cases.
When to use - and when NOT to
Use template systems for reusable prompt structures with variables and conditional sections when the same pattern applies across multiple inputs - reducing duplication in multi-turn or role-based interactions:
### Reusable code review template
template = """
Review this {language} code for {focus_area}.
Code:
{code_block}
Provide feedback on:
{checklist}
"""
### Usage
prompt = template.format(
language="Python",
focus_area="security vulnerabilities",
code_block=user_code,
checklist="1. SQL injection\n2. XSS risks\n3. Authentication"
)
System prompt design sets global behavior (role, expertise level, output format, safety guidelines) that persists across a conversation, keeping stable instructions out of per-turn user messages.
Inputs and outputs
Progressive disclosure builds prompt complexity in four levels only as needed: direct instruction, then added constraints, then added reasoning steps, then added examples - rather than starting complex. The overall instruction hierarchy follows [System Context] → [Task Instruction] → [Examples] → [Input Data] → [Output Format]. Error recovery means building prompts that degrade gracefully: fallback instructions, requested confidence scores, alternative interpretations when uncertain, and explicit handling for missing information.
Integrations
Seven best practices anchor the approach: be specific (vague prompts produce inconsistent results), show rather than tell (examples beat descriptions), test extensively on diverse inputs, iterate rapidly since small changes have large impacts, monitor production performance, version-control prompts like code, and document why a prompt is structured the way it is. Five common pitfalls to avoid: over-engineering before trying simple prompts, example pollution (examples that don't match the target task), context overflow from excessive examples, ambiguous instructions open to multiple interpretations, and skipping edge-case testing.
Who it's for
Developers and prompt engineers building production LLM prompts who need concrete techniques - few-shot examples, chain-of-thought, systematic optimization, reusable templates, and system prompt design - plus a discipline for iterating and testing rather than guessing at what works.
FAQ
Common questions
Discussion
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