The intensifying technology competition between the United States and China is increasingly focused on quantum computing, a field that Jefferies characterizes as carrying significant economic and national security consequences. According to the investment bank's recent report, quantum technologies - including encryption, code-breaking, secure communications and advanced defense applications - now occupy the same strategic tier as artificial intelligence and semiconductors.
China has pursued a tightly coordinated, state-led strategy. Quantum computing is explicitly incorporated into the country’s latest Five-Year Plan as one of seven frontier technologies, and Beijing has directed substantial public resources toward the sector. Jefferies cites an estimated $16 billion in Chinese public funding committed to quantum efforts, which the report notes is roughly four times the level of U.S. government investment so far.
By contrast, the United States maintains a decentralized innovation ecosystem. That network comprises more than 40 companies alongside national laboratories, universities and hyperscalers. Rather than naming national champions, U.S. policy support has centered on funding, establishing benchmarks and validating technologies - measures intended to encourage broad private-sector participation and experimentation.
On several measurable fronts, China currently leads. The report references data indicating China is responsible for about 60% of global patent applications in quantum technologies and also generates a larger volume of academic research output. More broadly, Jefferies highlights Chinese strength across critical technology research, stating that China leads in 66 out of 74 tracked categories globally.
That said, leadership is not uniform across all quantum subdomains. The report finds both countries effectively tied in several core research areas, including quantum sensors and computing architectures. The United States retains notable advantages in the diversity of innovation and the depth of its private sector. Large U.S. technology firms are investing across multiple quantum hardware approaches, a strategy the report suggests could be valuable as the industry matures and winners in hardware design and architecture emerge.
Commercial activity is already visible in both national ecosystems. Firms are beginning to capture early revenues through government contracts, enterprise pilot projects and quantum-computing-as-a-service offerings. Jefferies provides a concrete example: a Fortune 100 company that realized roughly a 20% performance improvement by applying quantum-enabled optimization to a business problem.
Looking ahead, the report identifies policy moves that could materially influence the pace of development. Potential U.S. executive orders and China’s proposed $120 billion National Venture Guidance Fund are cited as catalysts that may accelerate investment and commercialization. Jefferies projects a wider commercial inflection point in quantum computing between 2028 and 2030.
In sum, the report presents a picture of two differing models competing for long-term influence in quantum technologies. China’s scale and coordinated approach have produced measurable near-term advantages in patents and research volume, while the United States’ decentralized model and private-sector breadth may foster a variety of technical approaches and faster experimentation as the field evolves. Jefferies stops short of declaring a definitive winner, instead forecasting a contested path to commercial maturity with policy actions and industry choices shaping outcomes through the late 2020s.