AI Research Hub

Open-source implementations of cutting-edge AI/ML research. Evolutionary AI, multi-agent systems, scaling laws, and enterprise platforms—all with production-ready code, comprehensive documentation, and MIT licensing.

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Phylogenic AI Agents

Genetic evolution for AI personalities. Self-optimizing agents with liquid memory, ML analytics, and evolutionary optimization. Agents inherit traits, mutate behaviors, and undergo fitness-based selection across generations.

Genetic Algorithms Liquid Memory ML Analytics Python MIT License
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Agent Scaling Laws

Research implementation of arXiv:2512.08296. Multi-agent coordination architectures with benchmarks. Covers O(n²) vs O(n log n) scaling, hierarchical topologies, and production-ready patterns.

arXiv:2512.08296 Multi-Agent Systems Distributed AI Python MIT License
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Quantum Reservoir Computing

Theoretical framework connecting reservoir computing to quantum gravity. Explores the interface between high-dimensional dynamical systems and quantum vacuum fluctuations through the Dynamical Casimir Effect. Proposes computational pathways to quantum gravity insights.

Quantum Computing Reservoir Computing Quantum Gravity Theoretical Physics Whitepaper
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Neuromorphic Evolution

LLM-guided evolutionary algorithms for brain-inspired computing. Kraken Liquid Neural Network achieves 89% improvement on ARC benchmark with 6.7× faster convergence. Combines STDP plasticity with semantic mutation strategies.

Neuromorphic Evolutionary AI LLM-Guided Liquid Networks Whitepaper
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Temporal Shard RAG

Time-aware retrieval augmented generation with neuromorphic memory. 34% improvement in temporal reasoning, 28% reduction in hallucinations. Documents decay and consolidate like biological memories.

RAG Temporal Reasoning Neuromorphic Memory Systems Whitepaper
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P vs NP & Consciousness

Computational framework for the Millennium Prize Problem. Consciousness-Driven Computation (CDC) explores parallel awareness, swarm intelligence, and probabilistic reasoning for NP-hard optimization. 2-4× speedups on benchmark problems.

Complexity Theory Consciousness Optimization Theoretical Whitepaper
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Wetware Computing

Biological-digital hybrid architectures for adaptive intelligence. Abeone Wetware Core achieves 94% energy reduction through organic substrates. Thermal-adaptive processing with MEA interfaces for neuronal cultures.

Biocomputing Organic Electronics Hybrid Systems Sustainable AI Whitepaper

Neuromorphic Code Intelligence

Spiking neural networks for program analysis and code generation. 3.2× faster inference, 92% energy reduction on neuromorphic hardware. Neural AST encoding converts code to temporal spike patterns.

Code Intelligence Spiking Networks AST Analysis Neuromorphic Whitepaper
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AdaptiveMind

Intelligent AI routing & context engine with 3-tier routing. BitNet (Tier 1) → LFM (Tier 2) → Cloud (Tier 3) with intelligent escalation. Validated against agent scaling laws (arXiv:2512.08296). Features architecture selection, error amplification detection, and cost optimization.

Multi-Agent Systems 3-Tier Routing FastAPI Benchmarked
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Agent UI

White-label AI platform. Modern UI with 50+ components, plugin marketplace, enterprise monitoring. Liquid theme system (3 themes), Ollama integration, and full brand customization for SaaS deployment.

White-Label React Electron Enterprise Plugin System
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NS-AI-Suite

Enterprise multi-agent orchestration. Healthcare AI platform with microservices architecture. Components for API gateway, data ingestion, frontdesk AI, and real-time dashboards.

Healthcare AI Microservices Enterprise Multi-Agent Dashboard

Frequently Asked Questions

What is evolutionary AI?

Evolutionary AI applies principles from biological evolution—genetic algorithms, mutation, crossover, and natural selection—to optimize AI systems. In Phylogenic AI, agents evolve personality traits across generations, automatically discovering optimal behaviors through fitness-based selection rather than manual tuning.

How do multi-agent systems scale?

Multi-agent systems face coordination overhead that typically scales as O(n²) with agent count in flat topologies. Research paper arXiv:2512.08296 "Towards a Science of Scaling Agent Systems" establishes that hierarchical structures can reduce this to O(n log n), and the Agent Scaling Laws implementation provides production-ready patterns for this.

What is the difference between prompt engineering and evolutionary AI?

Prompt engineering manually crafts static instructions for AI models, requiring human expertise and iteration. Evolutionary AI (like Phylogenic AI Agents) automatically evolves optimal behaviors through genetic algorithms—agents self-improve based on feedback, discovering non-obvious improvements without human intervention.

Are these AI research projects open source?

Yes, both Phylogenic AI Agents and Agent Scaling Laws are open-source under the MIT License. They are available on GitHub with full documentation, examples, and test suites. Contributions are welcome.