QLU™ is a fault‑tolerant compiler with hardware-specific QEC and a real-time syndrome decoder, engineered for the emerging class of neutral-atom quantum processors.
QLU™
End-to-end fault-tolerant middleware purpose-built for neutral atom quantum processors.
Compiles quantum circuits into fault-tolerant circuits with quantum error correction, magic state distillation, and loss detection.
Tailors execution for neutral atom QPUs: zoned architectures, native gate sets (RX, RZ, CZ), and atom movement scheduling.
On-the-fly quantum error correction decoding for continuous fault-tolerant operation during circuit execution.
Quantum Development Kit with secure cloud access for remote circuit design, compilation, and execution management.
Architecture & Optimization
QLU™ is a multi-stage compilation and error-correction pipeline that takes a high-level quantum algorithm down to scheduled hardware instructions, with continuous decoder feedback at execution time.
QLU™ is QPerfect’s proprietary fault-tolerant compilation and error-correction stack, engineered for the emerging class of neutral-atom quantum processors. Its design targets architectural patterns now common across the field: zoned layouts with dedicated entangling, readout, and storage regions; programmable connectivity via atom transport; long-coherence atomic species.
These shared design targets unlock optimization opportunities unavailable to generic compilers:
Applications
QPerfect works closely with BTQ Technologies, its parent company, to deliver a quantum advantage for cryptographic applications on neutral-atom hardware. QLU™ compiles and optimizes BTQ’s One-Shot Signatures (OSS) protocol for fault-tolerant execution: an unforgeable, single-use digital signature scheme that relies on the physics of quantum measurement for its security guarantees.
Better Together
MIMIQ™’s digital twin validates fault-tolerant circuit designs before QLU™ executes them on real hardware. Hardware-accurate noise models ensure that what you simulate is what you get, closing the loop between algorithm design and physical execution.
Step 01 · Design
Develop and test quantum algorithms at scale using MIMIQ™'s statevector and MPS engines before committing to hardware.
Step 02 · Validate
Simulate fault-tolerant circuits with hardware-accurate noise models to predict real-device performance before execution.
Step 03 · Execute
Compile validated circuits to fault-tolerant hardware instructions and run on neutral atom quantum processors.
We are looking for neutral atom hardware partners to bring fault-tolerant quantum computing from simulation to reality. Get in touch to explore how QLU™ can accelerate your quantum roadmap.