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🤝 Related Work & Acknowledgments

SuperOpt builds on and extends foundational work in agent optimization. We acknowledge the inspiration and methodologies from related approaches while highlighting how SuperOpt provides a more comprehensive framework.

📚 Key Research Papers

🧬

GEPA

2025

Generative Evolutionary Prompt Optimization

Evolutionary algorithms for prompt optimization that can outperform reinforcement learning with fewer rollouts.

Agrawal et al.
🧠

ACE

2025

Agentic Context Engineering

Evolving contexts for self-improving language models through structured accumulation and refinement.

Zhang et al.
🔧

DSPy

2023

Compiling Declarative Language Model Calls

Framework for compiling declarative language model calls into self-improving pipelines.

Khattab et al.

🎯 Building on Established Foundations

GEPA Integration

SuperOpt incorporates GEPA's evolutionary prompt optimization techniques within the SuperPrompt component. We appreciate the foundational work by GEPA that demonstrated how evolutionary algorithms can effectively optimize prompt configurations for better task performance.

# SuperOpt can use GEPA-style optimization for prompts
from superopt import SuperOpt
from superopt.components.superprompt import SuperPrompt

# Configure SuperPrompt with GEPA-inspired parameters
superprompt = SuperPrompt(
    population_size=20,      # GEPA-style population approach
    mutation_rate=0.3,       # Evolutionary parameters
    use_pareto_selection=True
)

optimizer = SuperOpt(
    environment=environment,
    superprompt=superprompt   # Uses GEPA methodology
)

ACE Integration

The SuperMem component draws inspiration from ACE's context accumulation approaches, extending them with typed memory hierarchies, exponential decay, and conflict resolution.

# SuperOpt extends ACE with additional memory features
from superopt import SuperOpt
from superopt.components.supermem import SuperMem

# Enhanced memory with ACE-inspired accumulation + more
supermem = SuperMem(
    min_confidence=0.1,
    type_hierarchy_enabled=True,  # Beyond basic ACE
    conflict_resolution=True,     # Additional SuperOpt features
    exponential_decay=True
)

optimizer = SuperOpt(
    environment=environment,
    supermem=supermem
)

🔄 Complementary Approaches

Rather than competing with these approaches, SuperOpt is designed to work alongside and extend them:

🔄 GEPA + SuperOpt

GEPA's evolutionary prompt optimization within SuperOpt's comprehensive framework

optimizer = SuperOpt(
    superprompt=SuperPrompt(use_gepa_methodology=True),
    # Plus SuperReflexion, SuperRAG, SuperMem
)

🔄 ACE + SuperOpt

ACE's context engineering enhanced with SuperOpt's memory management

optimizer = SuperOpt(
    supermem=SuperMem(use_ace_accumulation=True),
    # Plus SuperPrompt, SuperReflexion, SuperRAG
)

🔄 DSPy + SuperOpt

DSPy's pipeline compilation with SuperOpt's environment optimization

# DSPy pipelines optimized by SuperOpt
dspy_pipeline = DSPyPipeline()
optimizer = SuperOpt(
    environment=dspy_pipeline.get_environment()
)

🏗️ Additional Foundations

TextGrad (Textual Differentiation)

The concept of Natural Language Gradients in SuperOpt builds on TextGrad's textual differentiation approach, extending it to multi-component environment optimization.

Meta-ACE Extensions

SuperOpt's meta-reasoning capabilities are informed by Romero's Meta-ACE framework, particularly in how we handle hierarchical optimization decisions and stability constraints.

🙏 Acknowledgments

We gratefully acknowledge the foundational contributions that inspired SuperOpt:

GEPA
Agrawal, Tan, Soylu, Ziems et al.
Evolutionary prompt optimization
ACE
Zhang, Hu, Upasani, Ma et al.
Context engineering & memory
DSPy
Khattab, Singhvi, Maheshwari et al.
Pipeline compilation
TextGrad
Yuksekgonul et al.
Textual differentiation

🎯 SuperOpt's Unique Contribution

SuperOpt represents an evolution in agent optimization research, moving from single-component approaches to comprehensive environment optimization:

GEPA
Prompts Only
Evolutionary Search
Single Component
ACE
Memory Only
Context Accumulation
Single Component
SuperOpt
All Environment
Multi-Component Routing
Complete Framework

This collaborative approach allows researchers and practitioners to leverage the best of all methodologies within a unified system.