Meta-Prompting Framework
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A Meta-Prompting Framework is a prompt optimization framework that uses LLMs as optimizers to generate and evaluate prompts in a self-referential optimization loop.
- AKA: LLM-as-Optimizer Framework, Self-Optimizing Prompt Framework, Meta-Optimization Prompt Framework, Recursive Prompt Optimization Framework.
- Context:
- It can typically create meta-optimization loops with performance trajectorys tracking prompt improvement over iterations.
- It can typically select top-performing prompts with iterative evaluation using validation datasets.
- It can typically leverage LLM reasoning capabilitys to understand task requirements and generate appropriate prompts.
- It can typically implement prompt mutation strategys guided by LLM understanding of task semantics.
- It can often frame instructions as natural language programs with candidate scoring for prompt selection.
- It can often maintain prompt history tracking evolutionary paths of optimization processes.
- It can often reduce human intervention by automating prompt refinement cycles through LLM feedback.
- It can often achieve convergence within multiple optimization rounds for standard NLP tasks.
- It can range from being a Simple Meta-Prompting Framework to being a Complex Trajectory-Based Meta-Prompting Framework, depending on its optimization sophistication.
- It can range from being a Single-LLM Meta-Prompting Framework to being a Multi-LLM Meta-Prompting Framework, depending on its model architecture.
- It can range from being a Zero-Shot Meta-Prompting Framework to being a Few-Shot Meta-Prompting Framework, depending on its example requirement.
- It can range from being a Greedy Meta-Prompting Framework to being a Exploratory Meta-Prompting Framework, depending on its search strategy.
- ...
- Examples:
- Core Meta-Prompting Implementations, such as:
- Hybrid Meta-Prompting Systems, such as:
- Application-Specific Meta-Frameworks, such as:
- ...
- Counter-Examples:
- Gradient-Based Prompt Optimization Method, which uses gradient descent rather than LLM reasoning.
- Manual Prompt Engineering, which requires human designers rather than automated optimization.
- Random Prompt Search, which lacks intelligent guidance.
- Fixed Template System, which doesn't self-optimize.
- See: Programmatic Prompt Optimization Framework, LLM-as-Optimizer Technique, Self-Supervised Prompt Optimization (SPO), OPRO Framework, APE Framework, Prompt Evaluation Metric, Optimization Loop, Recursive Optimization, LLM Prompt Optimization Method, Meta-Learning Framework.