
Qolab and HPE Lead DARPA’s Quantum Benchmarking Initiative to Accelerate Quantum Supercomputer Development
In a groundbreaking move to advance quantum computing, Qolab, Inc., alongside Hewlett Packard Enterprise (HPE), has been named a co-leader of a consortium under the U.S. Defense Advanced Research Projects Agency (DARPA) Quantum Benchmarking Initiative (QBI). This ambitious program aims to evaluate the feasibility of building an industrially useful quantum supercomputer far ahead of conventional timelines, with a target completion date of 2033. Qolab is spearheading the hardware development for the consortium, focusing on designing and fabricating high-quality quantum processors, while HPE leads full-stack software innovations. Together, they are driving a collaborative effort to overcome critical scaling challenges in quantum computing.
A Bold Step Toward Quantum Supremacy
The Quantum Benchmarking Initiative (QBI) represents a transformative leap in quantum technology, aiming to determine whether a quantum computer capable of solving real-world industrial problems can be developed within the next decade. Current predictions suggest that achieving such a milestone would take significantly longer, but DARPA’s initiative seeks to accelerate progress by leveraging cutting-edge advancements in quantum physics, materials science, and classical computing integration.
As part of this initiative, Qolab is leveraging its deep expertise in quantum physics and its collaborations with leaders in the semiconductor industry to tackle one of the most pressing challenges in quantum computing: scaling qubits. The company’s focus is on fabricating high-quality superconducting qubits, which are essential building blocks for quantum processors. By utilizing state-of-the-art tools and techniques from the semiconductor industry, Qolab is working to improve qubit fabrication, reduce error rates, and enhance system scalability.
Leadership and Expertise Driving Innovation
Dr. John Martinis, CTO of Qolab and a pioneer in developing flux-tunable transmons and couplers—key components in modern superconducting qubit systems—expressed his enthusiasm for the project. “We are thrilled to be at the forefront of hardware development for this groundbreaking initiative,” said Dr. Martinis. “Our focus is on fabricating high-quality superconducting qubits using the latest tools the semiconductor industry has to offer. We recognize the critical need for significant improvements in qubit fabrication, and we are dedicated to overcoming these challenges with our collaborators.”
Under Dr. Martinis’ leadership, Qolab is overseeing all aspects of quantum hardware development, including qubit design, control electronics, and system engineering. Meanwhile, Dr. Masoud Mohseni, Distinguished Technologist at HPE, is leading the consortium’s full-stack software efforts. His team is focused on advancing quantum algorithms, quantum error correction, hybrid quantum-classical architectures, and benchmarking. “By bringing together the best minds and technologies in the field, we are confident that we can accelerate the development of quantum computing,” Dr. Mohseni added. “Our team is committed to pushing the boundaries of what is possible and delivering the solutions that will power the future of quantum computing.”
Collaborative Efforts Across the Quantum Ecosystem
The consortium brings together a diverse group of collaborators, each contributing unique expertise to the project:
- Hewlett Packard Enterprise (HPE): Hybrid High-Performance Computing
HPE is integrating quantum computing with classical supercomputing, leveraging its extensive experience in high-performance computing (HPC) to develop robust and scalable quantum systems. This collaboration aims to create hybrid solutions capable of addressing complex computational problems more efficiently. - Applied Materials: Material Development and Wafer-Level Fabrication
Applied Materials is advancing quantum computing through innovations in materials engineering, advanced packaging, and nanofabrication. By improving error rates and uniformity in superconducting qubits, the company is supporting the scalability of next-generation quantum architectures. - Synopsys: Modeling, Simulation, and EDA Tools
Synopsys is contributing its industry-leading expertise in modeling, simulation, design automation, and cryoCMOS design to address challenges in qubit design, fabrication, algorithms, and applications. Its tools are driving the evolution of quantum computing technology toward market readiness. - Quantum Machines: Quantum Hardware Control and Error Correction
Quantum Machines is providing advanced quantum control solutions through its Hybrid Control approach, optimizing performance across hardware and software. This enables researchers to iterate quickly, resolve setbacks, and scale quantum systems effectively. - 1QBit: Fault-Tolerant Quantum Error Correction and Resource Estimation
1QBit is advancing fault-tolerant quantum error correction design and simulations, as well as quantum algorithm compilation and resource estimation. Using its Topological Quantum Architecture Design (TopQAD) software suite, the company is analyzing hardware characteristics and FTQC protocols to support scalable quantum architectures. - University of Wisconsin: Algorithms and Benchmarks
Professor Matthew Otten, a quantum benchmarking expert from the University of Wisconsin, is playing a pivotal role in assessing the consortium’s progress toward achieving quantum advantage for utility-scale applications. His expertise in quantum algorithms is instrumental in driving the consortium’s objectives forward.
Overcoming Challenges to Build a Quantum Future
One of the primary goals of the consortium is to design and test high-quality quantum components and systems at intermediate scales, accelerating progress while reducing costs. By fostering collaboration across academia, industry, and government, the initiative is addressing key challenges in qubit fabrication, error correction, and system integration. These efforts are critical to building a commercially viable quantum supercomputer that can solve real-world problems.
A Vision for the Future of Quantum Computing
The Quantum Benchmarking Initiative underscores the importance of public-private partnerships in advancing transformative technologies. With Qolab leading hardware development and HPE driving software innovation, the consortium is poised to deliver groundbreaking solutions that could redefine industries ranging from pharmaceuticals to logistics.
About Qolab
Qolab is a leading quantum computing hardware company focused on developing high-coherence superconducting qubits and scalable quantum architectures. By leveraging semiconductor fabrication techniques, Qolab aims to bridge the gap between quantum research and commercial-scale quantum computing. For more information, visit www.qolab.ai.



