IQM Radiance: Our most powerful on-premise quantum computer with 20, 54, or 150 qubits for high-performance computing (HPC) centers and quantum computing pioneers to use for groundbreaking scientific discoveries and real-world challenges.
Trusted by industry leaders
We are confident that our work in quantum computing can quickly translate into new opportunities, benefiting our consortium members and the entire ecosystem we serve.“
Alessandra Poggiani
Director General, Cineca
Why IQM Radiance?
A quantum leap for high-performance computing
Harness the superior power of IQM Radiance for data-intensive industries. Tailored for HPC environments, it helps make impossible problems possible.
1.
Designed for HPC integration
Plug IQM Radiance into your existing supercomputer with an on-premise integration for the lowest latency and highest performance.
2.
Access to top-class technology
Innovative quantum processor topologies delivering high quality with 99.9% fidelity, tunable couplers, and a stack of software to get the most out of your computer.
3.
Open platform
Get hands-on with your computer and control every step of your work with pulse-level access.
4.
Upgradable
IQM Radiance can be updated with the latest chip and other components in tandem with our tech development – no risk of being an early adopter and missing out on future technology.
5.
Prompt delivery
Efficient IQM-owned production line to build full-stack computers with delivery starting from 6 months to anywhere in the world.
Discover the possibilities with IQM Radiance
See what you can achieve
What you get
Advanced quantum processors
Utilizing qubits with tunable couplers that have high fidelity and connectivity.
Full software stack
From quantum programming environments to HPC integrations, it’s all included.
Secure on-premises deployment
Control and optimize your quantum infrastructure in-house.
Customizable configurations
Tailor your system to align with specific research or industrial goals.
Technical specifications
Our flagship QPU with 150 qubits.
Offers superior computational power through high-fidelity gates and full square lattice connectivity. These qubits enable you to do cutting-edge research, paralleling the world's most advanced supercomputers.
Features
- 150 qubits with tunable couplers between the qubits
- Square lattice with the highest connectivity available at this scale
- Calibrated to support arbitrary X and Y rotations as the native single-qubit gate and CZ as the native two-qubit gate
- The layout natively supports surface-code error-correction
Offers advanced computational power through high-fidelity gates and full square lattice connectivity. These 54 qubits enable you to do cutting-edge research and solve real-life problems.
Features
- 54 qubits with tunable couplers between the qubits
- Square lattice with the highest connectivity available at this scale
- Calibrated to support arbitrary X and Y rotations as the native single-qubit gate and CZ as the native two-qubit gate
- The layout natively supports surface-code error-correction
Dimensions
Floor footprint
130 x 526 cm
Minimum ceiling height
290 cm
Minimum load bearing capicity
1000 kg/m2
Power Consumption
Typical mean total electrical power consumption
26 kW
Median single-qubit gate (PRX) fidelity
Median two-qubit gate (CZ) fidelity
Minimum: ≥ 99.0%
Typical: ≥ 99.3%
Single-qubit gate (PRX) duration
Two-qubit gate (CZ) duration
Median readout fidelity
Minimum: ≥ 95.0%
Typical: ≥ 97.0%
Qubits in a GHZ state with a fidelity > 0.5
Typical: 20
Quantum volume
Typical: ≥ 32
Q-score
Typical: ≥ 15
CLOPS_v
Typical: ≥ 2600
Dimensions
Floor footprint
130 x 526 cm
Minimum ceiling height
290 cm
Minimum load bearing capicity
1000 kg/m2
Power Consumption
Typical mean total electrical power consumption
24 kW
FAQs
What quantum algorithms are you exploring at the moment?
We actively investigate various quantum algorithms including optimization, simulation and quantum machine learning. Our experts create hardware-efficient algorithms including error-mitigation techniques which allows us to get the best performance out of our NISQ hardware.
For example, we have already significantly improved the performance compared to existing state-of-the-art routing algorithms for QAOA (Quantum Approximate Optimization Algorithm) circuit. See our paper for more details. More benchmark metrics will follow as we continue running experiments on IQM systems.
How do I integrate a quantum computer in an existing high-performance computing environment?
Together with our HPC customers, we have tested different deployment architectures to maximize the performance of the hybrid classical-quantum systems. We developed a concept of a specialized system-wide resource manager to focus specifically on the quantum workloads and their complexities. As the algorithms require the input of a classical computation to happen within the lifetime of the qubits, an on-premises integration can reduce network latency and facilitate larger scale computations in the NISQ (Noisy Intermediate-Scale Quantum) era. For more details, see our Whitepaper.
What are the latest performance benchmarks of IQM hardware?
With our latest benchmarks measured on the 20-qubit quantum computer, we have demonstrated a median two-qubit (CZ) gate fidelity of 99.51% across 30 qubit pairs, with maximum fidelity over a single pair reaching as high as 99.8%.
Among the system-level benchmarks IQM obtained:
- Quantum Volume (QV) of 25=32
- Circuit Layer Operations Per Second (CLOPS) of 2600.
- 20-qubit GHZ state with fidelity greater than 0.5.
- Q-score of 11
