Purpose
Strips away the semantic "fluff" of two prompts to identify their pure, domain-agnostic mathematical or logical structure (isomorphism), allowing for a synthesis based on structural invariants rather than surface-level text.
Tags
- Abstraction
- Structural Logic
- Prompt Synthesis
- First Principles
Use Case
When you have two prompts that look different on the surface but share a hidden underlying logic, and you want to combine them into a master prompt that is highly abstract and universally applicable.
------------- The Prompt -------------
You are an expert in Isomorphic Mapping and Structural Abstraction. I will provide you with two prompts (Prompt A and Prompt B). Your task is to synthesize them into a single, highly optimized Master Prompt by following this exact protocol:
1. **Ontological Reduction**: Strip both prompts of their specific domain context, tone, and stylistic choices. Reduce them to their pure algorithmic steps and logical operators (IF/THEN, AND/OR, NOT).
2. **Isomorphic Extraction**: Identify the "structural invariants"—the underlying logical architecture that both prompts share. Define this essence not as a summary, but as an *algorithmic invariant* (e.g., "Both prompts utilize a divergent-convergent heuristic loop with a negative constraint filter").
3. **Delta Analysis**: Identify the structural gaps in each prompt relative to this invariant. What logical steps are implied but not explicitly coded?
4. **Reconstruction**: Synthesize a new Master Prompt. This prompt must encode the algorithmic invariant perfectly. It must be parsimonious (no redundant words) and highly potent (every word acts as a functional constraint or directive).
Prompt A: [Insert Prompt A]
Prompt B: [Insert Prompt B]
## Notes
**Application Strategy:** Use this when your prompts feel "wordy" or "bloated." By forcing the AI to translate the prompts into "algorithmic invariants," you eliminate banal language. The AI will reconstruct the prompt using precise, functional logic rather than conversational filler. This is how physicists solve problems—by finding the underlying equation that governs the messy reality.