Superconducting Quantum Chip for National Labs

Why Superconducting Quantum Chips Lead Today’s Hardware

Among the many quantum hardware platforms, superconducting qubits have emerged as one of the most advanced routes toward practical quantum computing. Superconducting quantum processors use tiny electrical circuits made from superconducting materials, cooled to cryogenic temperatures to achieve zero electrical resistance and long coherence times. At their core are Josephson junctions, which enable the non‑linear behavior needed to create and control qubits using microwave pulses.

For national labs, this architecture offers several advantages: mature fabrication methods, flexible circuit design, and compatibility with existing microwave engineering infrastructure. Over the past two decades, superconducting quantum circuits have progressed from a few qubits to processors containing tens and even hundreds of qubits, making them a natural choice for institutions that need both cutting‑edge research capability and a clear scaling path.

Tailored Quantum Chips for National Lab Programs

Different national labs pursue different missions: from fundamental quantum physics to materials science, metrology, and national‑scale computing initiatives. We therefore offer superconducting quantum chips in configurations tailored to specific program needs, such as transmon‑based qubits for high coherence, resonator‑coupled architectures for flexible connectivity, and specialized layouts for quantum simulation experiments.

Working closely with lab teams, we co‑design chip topologies that align with their research questions and experimental setups. This includes matching qubit counts to available cryogenic capacity, selecting coupling strengths for targeted algorithms, and integrating calibration features that make daily operation more efficient. Our goal is to let laboratory scientists focus on science and algorithms, while we handle the engineering of robust superconducting hardware.

Foundry Services and Co‑Development

National labs often want more than off‑the‑shelf chips—they want a partner who can translate new ideas into fabricated devices. To support this, we provide superconducting quantum chip foundry services, enabling labs to design custom circuits while leveraging our process technology and quality control. This model accelerates the cycle from design to measurement and enables systematic exploration of new qubit concepts and device geometries.

Our foundry service includes design rule documentation, layout support, process design kits (PDKs) for EDA tools, and coordinated tape‑out schedules. By standardizing interfaces and characterization workflows, we help national labs run reliable multi‑generation programs, so they can compare devices over time and share reproducible results across teams. This collaborative model is particularly valuable when multiple labs contribute to a national quantum roadmap and need consistent hardware baselines.

Integrated Ecosystem: From QPU to Full System

A superconducting quantum chip reaches its full potential only when integrated into a complete quantum computing stack. We provide a full ecosystem around our chips, including superconducting quantum products and services, cryogenic deployment solutions, quantum control and measurement systems, and software platforms for experiment automation.This integrated approach reduces the complexity national labs face when assembling their own systems from disparate vendors.

Our superconducting quantum products span from standalone QPUs for research benches to fully integrated superconducting quantum computers with modular racks, cryostats, and calibrated control electronics. The same hardware platform can support both interactive experimentation and automated batch experiments, which is crucial for long‑term benchmarking, algorithm testing, and cross‑institution collaborations.

Reliability, Calibration, and Lifecycle Support

National labs typically operate their hardware continuously for years, often across multiple research projects. To support this, we provide lifecycle services that range from initial installation and calibration through ongoing maintenance and periodic upgrades. Our control systems include automated calibration routines, dashboards for system health, and remote monitoring options, enabling lab teams to maintain high uptime and reproducible performance.

We also collaborate on benchmarking and characterization protocols so that national lab teams can track key performance indicators such as coherence times, gate fidelities, and system stability over time. These practices, which align with emerging quantum benchmarking standards, help labs compare different chip generations and quantify progress in their programs without relying on ad hoc metrics.

Supporting National Strategies and Talent Development

Superconducting quantum chips are not only tools for research; they are strategic assets that support national innovation and talent pipelines. By supplying national labs with advanced hardware and training, we help enable educational programs, internships, and joint projects that develop the next generation of quantum engineers and scientists. Our team collaborates with lab personnel to deliver workshops on device physics, system operation, and software tooling, ensuring that knowledge is shared and retained.

In addition, we support joint publications, open benchmarking campaigns, and technology demonstrations coordinated with national initiatives. By aligning our chip roadmap with national strategies, we help ensure that laboratory investments in infrastructure produce long‑term impact, both in science and in broader technological capabilities.

Partnering with National Labs for the Long Term

For national laboratories, choosing a superconducting quantum chip provider is a long‑term strategic decision. We offer not just hardware, but a sustained partnership that covers co‑development, technology transfer, system upgrades, and program planning. Our mission is to give national labs a dependable, scalable superconducting quantum platform that grows with their ambitions—from early‑stage prototypes to large‑scale national infrastructure.

By integrating our superconducting quantum chips, foundry services, and full‑stack systems into their research programs, national labs can accelerate discovery while building domestic expertise in quantum technologies. We welcome collaboration with institutions seeking to lead in quantum science, secure digital infrastructure, and future‑ready computing.