China and U.S. Quantum Funding Strategies Are Converging

China, traditionally reliant on state laboratories and national funding for its quantum sector, is now integrating elements commonly associated with the U.S. private market. Beijing is channeling public funds through regional venture funds to foster startups and accelerate research toward product development, according to an analysis by the National Bureau of Asian Research.

This shift coincides with the United States moving in the opposite direction, incorporating government procurement and direct investment into a system primarily driven by private capital. Both nations are drawing from the same strategic toolkit, albeit from different starting points.

China’s Quantum Funding Landscape

Specifically, three regional funds, established under China’s National Venture Capital Guidance Fund, have collectively raised 121.8 billion yuan (approximately $17.5 billion), as reported by the National Bureau of Asian Research. This pool of funds supports various strategic industries, including quantum technology, artificial intelligence, semiconductors, biotechnology, aerospace, and future energy.

That said, China hasn’t disclosed the specific allocation of this $17.5 billion to quantum companies versus other listed sectors. Therefore, this figure represents a maximum for strategic industries as a whole, not a dedicated quantum allocation.

These funds are distributed across three regions: the Beijing-Tianjin-Hebei fund holds 29.646 billion yuan (approximately $4.26 billion), the Yangtze River Delta fund holds 47.1 billion yuan (approximately $6.77 billion), and the Guangdong-Hong Kong-Macao Greater Bay Area fund holds 45.05 billion yuan (approximately $6.47 billion). Each fund aims to eventually deploy 50 billion yuan into emerging industries.

Upon their launch in December 2025, these funds signed letters of intent for 49 subfunds and announced 27 direct investment projects, according to the same analysis. The national guidance fund intends to back over 600 subfunds across the three regions over time. These represent commitments and plans, not finalized deals, and the sectoral breakdown remains undisclosed.

The Advantage of “Patient Money” in Quantum

Developing quantum computers, sensors, and communications hardware often requires years before a company can generate substantial revenue. Private venture firms typically seek quicker returns, which can create pressure for early-stage quantum companies.

State-backed funds, however, can afford to wait. China’s national guidance fund is structured to operate for 20 years, featuring extended investment and exit windows. At least 70% of its capital is earmarked for seed-stage and early-stage companies, as per the NBR analysis. This framework also seeks to attract investment from local governments, state-owned enterprises, financial institutions, and private investors.

The underlying rationale is to transition research from universities and national labs into companies capable of manufacturing and sales. China’s quantum efforts have historically centered on institutions like the Chinese Academy of Sciences and the University of Science and Technology of China, with consistent investment in research and talent since the early 2000s.

Large corporations have been integrating their quantum operations into state-linked entities. Alibaba donated quantum lab equipment to Zhejiang University, and Baidu transferred a quantum research lab to the Beijing Academy of Quantum Information Sciences. China Telecom Quantum has increased its focus on manufacturing, assembly, and deployment.

Hideki Tomoshige, a fellow with Renewing American Innovation at the Center for Strategic and International Studies, interprets these actions as a division of labor. State institutions manage long-term research, as companies and regional investment networks focus on production and customer delivery.

Convergence of Quantum Strategies

The U.S. quantum sector is characterized by private companies, research universities, national labs, and diverse venture capital sources. This competitive environment has sustained multiple hardware approaches simultaneously, including superconducting circuits, trapped ions, neutral atoms, photonics, and semiconductor qubits.

This diversified approach mitigates the risk of backing an unsuccessful technology. It also compels companies to demonstrate consistent progress to investors and customers. The drawback, however, is financing risk. Quantum markets are still nascent, and a technologically sound company might exhaust its funding before demand catches up.

Washington is now more directly stimulating demand. Federal agencies are exploring multi-year procurement contracts, prize competitions, and public-private investments to provide companies with more stable revenue streams, according to Tomoshige. 

Executive Order 14413 mandates agencies to expand quantum research, grant national labs access to computing resources, bolster domestic supply chains, and encourage federal adoption. The order also instructs the Department of Defense to identify at least three quantum sensor projects for deployment by September 30, 2028.

Considering these parallel trends, China is integrating venture-style financing and regional startup networks into its centralized system. Conversely, the United States is incorporating government purchasing and investment into its private-sector-led model.

Funding Alone Won’t Determine Leadership

Significant funding commitments do not automatically determine leadership. Quantum computing lacks a definitive hardware design, and researchers are still debating whether quantum machines have executed commercially valuable calculations beyond the capabilities of classical computers. Qubit counts and reproduced classical benchmarks alone do not establish a competitive advantage.

Verification presents a more challenging gap. The U.S. ecosystem relies on academic peer review, customer access, and benchmarking programs, such as those administered by the Defense Advanced Research Projects Agency, Tomoshige noted. Though China has reported strong results in quantum communications, computing, and sensing, external researchers have limited access to some of its systems.

Tomoshige was explicit about the implications for assessment:

“At present, independent market or third-party verification for Chinese quantum systems is limited or lacks transparency. This can blur the line between genuine scientific progress and political signaling.”

Both nations are also safeguarding their positions through trade regulations. The United States has restricted China’s access to specific quantum-computing equipment, cryogenic technology, and related components. China, in turn, limits exports of certain quantum cryptography and ultra-low-temperature technologies.

China also faces an internal risk: if private companies become too integrated into the state system, they might lose the ability to innovate across disciplines or respond effectively to customer needs. Commercial quantum systems will necessitate collaboration among physicists, engineers, software developers, manufacturers, and specialists from diverse fields like chemistry, finance, and medicine.

Tomoshige emphasized that the outcome hinges on ecosystems:

“The most important factor will be whether a country can build a robust network of quantum ecosystems. (…) he investments the United States and China make today in research, infrastructure, talent, commercialization pathways, and international partnerships will shape who leads in the quantum era.”

For those monitoring the quantum industry, the key takeaway is to look beyond headline dollar figures. The $17.5 billion encompasses multiple sectors, the quantum share remains undisclosed, and the analysis is based on an expert’s interview regarding announced plans. It is more informative to track closed deals and systems that undergo external testing than to solely consider the size of a fund.