Qubic Signs 1.5 Million Dollar Contract for Quantum Amplifiers

Qubic has secured a Canadian government contract to deliver cryogenic amplifiers, following a recent seed round. The deal aims to test low-noise hardware that could solve heat management issues in quantum computing, though the technology remains in the evaluation phase.
Qubic has signed a contract worth up to 1.5 million Canadian dollars to supply nine cryogenic amplifiers to a federal agency. This agreement, facilitated by the Innovation Solutions Canada Testing Stream, allows the government to evaluate the hardware in a real-world setting. The deal follows a 3.5 million seed round completed in June, signaling continued investment in the company’s low-noise amplifier designs. According to the company, the primary goal is to gather operational feedback that will accelerate the commercialization of the technology.
The hardware in question consists of Kinetic Inductance Traveling Wave Parametric Amplifiers, or KI-TWPAs. These devices are engineered to boost weak microwave signals with minimal distortion, a critical function for reading out superconducting qubits. Traditional amplifiers used in these ultra-cold environments consume significant cooling power, which limits the number of qubits a system can support. Qubic claims its new design dissipates less than 0.1 milliwatts of heat, a figure that could significantly improve the scalability of quantum systems by reducing the thermal load on dilution refrigerators.
Robust design avoids fragile components
A key distinction of Qubic’s approach is the avoidance of Josephson junctions, which are often used in conventional parametric amplifiers but are known for their fragility. Instead, the KI-TWPAs derive their nonlinear inductance directly from the transmission line material. This structural choice reportedly results in a more robust device that is less prone to failure. The company states that this robustness is essential for moving quantum hardware from laboratory settings to practical, deployable applications, particularly in sectors requiring high reliability such as defense.
Government testing drives commercial validation
The contract serves a dual purpose: it provides a revenue stream for Qubic and offers a rigorous validation environment for the technology. All delivery milestones, including the provision of accompanying software and components, are projected for completion by spring 2027. Jerome Bourassa, CEO and co-founder of Qubic, described the applications as tangible and strategically important. The partnership allows the government to assess the hardware’s performance while giving the company direct feedback from an end-user perspective, which is often more valuable than internal testing.
Trade-offs in scaling quantum systems
While the low heat dissipation is a significant advantage, the technology is still subject to the constraints of cryogenic environments. The amplifiers are designed to support multiple qubit modalities beyond superconducting ones, broadening their potential utility. However, the company is still in the process of expanding manufacturing capacity to meet anticipated demand. As noted by GN technics/hardware (en-US), the rapid sequence of funding and contract acquisition highlights the competitive pressure in the quantum hardware sector. Investors and stakeholders must weigh the promise of scalable, low-power amplification against the ongoing challenges of integrating these devices into larger, functional quantum computers.






