our roadmap
Most quantum systems are fixed at install. RacQ is built to advance. Every UnityQ generation deepens compute and error correction — rack, stack and operations carry forward.
the trajectory
RacQ advances through successive UnityQ generations. Each generation expands usable quantum compute, strengthens error correction and opens larger classes of hybrid workloads.
phase 1
NISQ era
Run first quantum-classical workflows inside your own infrastructure.
Connect RacQ to the systems your teams already use to schedule, manage, and run compute.§
Start with compact chemistry, optimization, and sampling workloads.
phase 2
Early fault-tolerant
Error-corrected workloads that run, finish and deliver actionable results.
Molecular structures. Reaction pathways. Catalyst chemistry.
Drug discovery. Battery chemistry. Materials designed from atomic principles.
phase 3
fully fault-tolerant
Millions of physical qubits. Thousands of logical qubits. Fault-tolerant quantum at infrastructure scale.
Materials discovery at production scale.
Optimization beyond classical bounds.
Workloads with no practical classical answer, running routinely on a single rack.
Quantum, built on the economics of silicon.
[1]
UnityQ is built on CMOS silicon. RacQ advances through successive QPU generations on semiconductor's proven manufacturing path.
[2]
Each UnityQ generation increases physical qubits and error-correction depth together, so performance and reliability advance side by side.
[3]
Each UnityQ generation advances the system in place. Footprint, software environment and operating model carry forward.
Each UnityQ generation expands the silicon inside RacQ. More physical qubits become more usable compute and deeper encoding per logical qubit.
Capability and reliability scale together.
Compute capability
Correction depth
phase 1
NISQ era
phase 2
Early fault-tolerant
phase 3
fully fault-tolerant
Every UnityQ generation deepens what you've already deployed. The advantage starts the day you install — and grows from there.
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