Quantum Leap Computing
Quantum Leap is developing a nanometer‑coated carbon‑silicon QPU: an atomically thin rare‑earth metal oxide layer that enables stable quantum behavior at ambient conditions—unlocking practical, scalable quantum inference.
Atomically thin • Rare‑earth oxide • Carbon‑Silicon • Room‑temperature
Technology
A new quantum processing unit built from an atomically thin rare‑earth oxide on carbon‑silicon, engineered to run at room temperature and integrate with standard fabrication.
Applications
Practical quantum capability at room temperature unlocks new deployment models—from embedded devices to hyperscale clouds.
AI inference at the edge
- Quantum‑accelerated model evaluation with ambient cooling
- Lower latency and power for on‑device intelligence
Financial optimization
- Portfolio and risk optimization
- Options pricing and Monte Carlo at new scales
Materials & drug discovery
- Simulation of complex lattices
- Faster search over molecular states
Secure multiparty analytics
- Privacy‑preserving compute
- Verifiable outcomes with audit trails
Cloud‑native HPC
- CMOS‑friendly design for datacenter deployment
- Scale with existing fabrication ecosystems
Quantum networking
- Interconnects for modular QPU clusters
- Path to distributed quantum systems
Team
Quantum Leap is led by researchers and engineers at the intersection of nanomaterials, device physics, and large‑scale systems.
Research background spanning nanomaterials and quantum interfaces. Affiliations include Brookhaven and Berkeley.
Experts in condensed matter, device physics, and CMOS manufacturing.
Help build the room‑temperature quantum future
We’re assembling pioneers across materials, devices, controls, and systems. Read the paper or reach out to collaborate.