Phil Hills
AI & Robotics Systems Architect
Professional Summary
Systems Architect specializing in Scientific Telemetry, Physics-Informed AI, and Quantum-Ready Data Structures. Creator of the Cube Protocol v1.2 for spatial data compression. Currently architecting the 3i-CUBE Telemetry Bridge for Lattice LightSheet microscopy automation. Extensive experience in air-gapped control systems, real-time scientific data processing, and edge-AI deployment on Google Cloud Platform.
Core Expertise
Robotics & Scientific Computing
- Scientific Telemetry Systems
- Lattice LightSheet Microscopy
- Air-Gapped Control Architecture
- Real-Time Edge-AI
- SlideBook Automation
Physics-Informed AI
- Poisson/Gaussian Noise Modeling
- Synthetic Data Generation
- Quantum State Preparation
- Z-Order Spatial Compression
- 4D Dataset Processing
Security & Verification
- BLAKE3 Cryptographic Hashing
- Identity Cubes
- Air-Gapped Proxy Patterns
- Cryptographic Handshakes
- Data Integrity Verification
Languages & Frameworks
- Rust (Core Protocol)
- Python (AI/Science)
- JSON/YAML (Structures)
- Google Cloud Run
- Multi-Agent Orchestration
Key Projects
Real-time, air-gapped control layer for Lattice LightSheet microscopy (CUBE Microscopy Platform). Enables remote automation for high-content research without network exposure.
- Architected air-gapped proxy pattern for secure microscopy control
- Implemented real-time telemetry processing for 4D scientific datasets
- Integrated with SlideBook automation for high-throughput imaging workflows
- Deployed on Google Cloud Run with edge-AI capabilities
- Designed physics-informed data compression for biological imaging
Designed and implemented a spatial data compression protocol using Z-Order curves for quantum-ready applications.
- Achieved 97%+ compression ratios using GZIP level 9 + Base64 encoding
- Implemented BLAKE3 hash verification for data integrity
- Built production web application deployed on Google Cloud Run
- Created JavaScript and Python implementations with full parity
- Designed Z-Order curve algorithms for A2AC and Quantum State Preparation
Architected supervised multi-agent systems with task routing, memory management, and structured packet exchange.
- Designed agent delegation patterns with hierarchical orchestration
- Implemented state management and inter-agent communication protocols
- Built agent mesh visualization and real-time monitoring dashboards
- Created predictable execution boundaries and safety constraints
- Integrated with Google ADK and LangChain frameworks
Created token-efficient communication protocol for AI agent interoperability.
- Designed structured packet format for deterministic agent communication
- Optimized for minimal token usage while maintaining semantic richness
- Implemented safe execution boundaries and verification systems
- Enabled cross-model communication patterns
Technical Achievements
- 180+ Open Source Repositories - Active portfolio demonstrating continuous innovation and experimentation
- Production AI Systems - Deployed serverless applications on GCP handling real-time data processing
- Protocol Standardization - Created reusable, documented protocols adopted across multiple projects
- Cross-Platform Implementation - Built identical functionality in Python and JavaScript maintaining full compatibility
- Semantic Memory Innovation - Advanced state-of-the-art in structured AI memory representations
Professional Background
Transitioned from traditional software engineering to specialize in AI systems architecture, focusing on the infrastructure layer that enables scalable, reliable multi-agent workflows. Deep expertise in both theoretical protocol design and practical production deployment. Track record of building systems that combine cutting-edge AI capabilities with enterprise- grade reliability.
Education & Certifications
- Self-directed learning in AI/ML, distributed systems, and protocol engineering
- Continuous experimentation and research documented across 180+ repositories
- Active engagement with cutting-edge AI research and implementation