Magic State Labs
Magic State Labs combines quantum theory, AI agents, and large-scale computation to discover new quantum algorithms and design protocols that bridge the gap between current quantum hardware capabilities and practical applications. The company operates an automated research infrastructure that continuously searches for quantum advantage, with recent work identifying alternant max-agreement and multiplicative polynomial intersection as candidate problems for quantum advantage via decoded quantum interferometry.
- Quantum Computing
- Artificial Intelligence
- Hardware
- AI Agents
- Software Only
Funding
Funding not disclosed
Founders
Founder details are not available yet.
Product
Problem
Quantum computing holds significant potential to transform industries, but the field currently faces a gap between theoretical possibilities and practical, scalable implementations. Companies struggle to find actionable solutions that address both the computational challenges of developing quantum algorithms and the physical limitations of scaling quantum devices.
Solution
Magic State Labs systematically searches for breakthroughs across the quantum computing stack, from developing algorithms for consequential problems to engineering techniques for scaling quantum hardware. The company combines quantum theory, AI agents, and large-scale computation to discover new algorithms, design protocols, and map out what is possible with quantum computers. An AI-assisted discovery workflow generates ideas, stress-tests them, and searches for counterexamples, while mathematical filtering frameworks evaluate candidates for provable quantum advantage. By focusing on the entire stack, Magic State Labs aims to accelerate the path from laboratory capability to real-world deployment.
Target Audience
Industries and research organizations seeking to apply quantum computing to consequential problems, including sectors where scaling quantum devices is a critical technical barrier and optimization problems require new computational approaches.
Features
- Research and development across both quantum algorithms and hardware scaling techniques
- AI-assisted discovery workflow that generates ideas, stress-tests them, and searches for counterexamples
- Mathematical filtering frameworks to evaluate candidates for provable quantum advantage
- Automated infrastructure that runs around the clock searching for quantum advantage
- Recent results identifying alternant max-agreement and multiplicative polynomial intersection as candidates for quantum advantage via decoded quantum interferometry, with proven decoding guarantees and numerical evidence of advantage over classical solvers
- Focus areas include better magic-state factory protocols, scientific demonstrations on 1,000 qubits, and quantum-inspired optimization algorithms