01/20/2026 | Press release | Distributed by Public on 01/20/2026 10:23
Photo: Siarhei/Adobe Stock
Report by Navin Girishankar, Mark P. Dallas, Sree Ramaswamy, Scott Kennedy, Ilaria Mazzocco, Sujai Shivakumar, Matt Pearl, Joseph Majkut, Richard M. Rossow, Erin L. Murphy, Philip Luck, Chris Borges, Ray Cai, and Ryan Featherston
Published January 20, 2026
China is often portrayed as either unstoppable-dominating electric vehicles (EVs), batteries, and solar panels-or lacking the creativity to push the technological frontier. The United States is either celebrated as the unquestioned AI leader or criticized for losing its manufacturing base and becoming dangerously dependent on rivals. The reality is more complex-and more instructive.
In 2025, China made AI progress under chip constraints, achieved breakthroughs in robotics and quantum computing, and weaponized its control of rare earth processing, yet it still cannot produce a certified jet engine or compete in high-end machine tools. The United States controls 90 percent of AI chip markets and produces far more advanced AI models than China, yet it has lost much of the manufacturing capacity needed to build at scale and depends on rivals for critical materials.
These patterns cannot just be explained by looking at research and development (R&D) budgets or patent counts. The answer is technological dexterity-the ability to build strengths across different technology types, where advantages in one domain compound advantages in others. AI chips enable AI models, rare earth processing enables chip manufacturing, and machine tools enable precision aerospace components. These technologies reinforce each other, but only when the right ecosystems support them.
The urgency is real: China has been playing the long game for decades-systematically building processing capacity in rare earths, scaling manufacturing ecosystems, and investing in the "missing middle" between lab and market-while the United States has too often lost focus on the ecosystem foundations that make technological leadership durable. Success depends on whether America can rebuild these capabilities faster than China continues compounding its advantages.
Existing analyses benchmark technology capabilities at a moment in time-counting patents, models, or market shares. This report does something different: It identifies the underlying ecosystem drivers that determine who leads over time.
Technology leadership flows from ecosystems, not individual breakthroughs. Ecosystems are the dynamic combinations of firms, researchers, institutions, policies, and allied networks that turn lab discoveries into factory output and individual capabilities into networked advantages deployed at speed and scale. The report identifies four building blocks of ecosystem strength and uses them to identify the underlying drivers of U.S. and Chinese technology competitiveness:
The report also identifies four distinct technology types based on two dimensions: breadth of application and production complexity. Achieving technological dexterity-building ecosystem strengths across multiple technology types-is the strategic imperative for the United States:
The report compares U.S. and Chinese ecosystem capabilities in one illustrative technology from each category: AI, jet engines, machine tools and rare earth elements. It shows that each of these technology types requires different combinations of ecosystem building blocks.
The United States leads in Stack technologies-controlling 90 percent of AI accelerator markets and producing 40 notable models versus China's 15-and it leads in Precision technologies like jet engines, where decades-long moats create formidable barriers for new market entrants. Despite sustained prioritization by Beijing, China still has no certified commercial jet engine in flight.
But China dominates Base technologies-processing 90 percent of rare earths and producing more steel than the rest of the world combined. On Production technologies like machine tools, the United States has lost historical advantages, while China also remains unable to enter high-end tiers, where the European Union and Japan lead through dense supplier networks and continuous vocational talent cultivation.
Across technology types, the United States excels at frontier research but struggles with the capital-intensive engineering, testing, and scaling phase between lab and market-ceding learning curves to competitors who invest in this "missing middle." America's advantages rest on foundations that China struggles to match: open collaboration, institutional trust, global talent attraction, and capacity to orchestrate complex partnerships with allies. But vulnerabilities compound. America invents, but diffusion lags-limiting the payoff from its Stack leadership. China dominates Base technologies thanks to its use of mercantile tools that have eroded Western capacity.
America is in a strategic bind: China deploys mercantile and malign tools, including below-cost dumping that bankrupts Western competitors, forced technology transfer, coercive licensing, predatory investment, and patient state capital that can tolerate prolonged periods of losses to capture entire supply chains. It is also producing genuine innovations-including world-first inventions-with increasing frequency. Meanwhile, America relies primarily on historical strengths-such as capital markets, universities, and the rule of law-without adequate tools to counter China's practices. Export controls and tariffs address symptoms but cannot substitute for building domestic and allied capacity.
The risks compound daily. Base technologies enable Stack technologies-without secure critical minerals inputs, chip design advantages become vulnerable to supply disruption. Production technologies determine scaling capacity-without machine tools, America cannot scale Stack or Precision technologies at home. China now threatens to do to Stack technologies what happened to Base technologies: capture commercialization and diffusion while America retains invention.
Breaking the bind requires building new capabilities: patient capital mechanisms where strategic necessity demands them, conduct-based trade tools that counter dumping and coercion without broad protectionism, allied coordination that pools resources and shares burdens, and institutional capacity to execute multiyear strategies across political transitions.
To meet this challenge, the United States needs three self-reinforcing strategies:
If 2025 delivered wake-up calls, 2026 demands action. Congress and the executive branch will either unify around technology leadership-or fracture into tariff wars and political skirmishes that squander the very advantages China cannot replicate. Public funding, for instance, under CHIPS and Science Act authorities, refocused today can enable targeted breakthroughs tomorrow, whereas inaction will see nascent U.S. technologies fail to scale thanks to the "missing middle." Early moves toward a Technology Dexterity Fund could build confidence among allies and supply chain partners-or the United States can wait and watch as allies hedge toward China. Permitting and related reforms at the federal and state level, enacted now, can turn infrastructure potential into deployed capacity-or projects envisioned today could languish until after 2050.
The United States has rebuilt ecosystem advantages before-not through centralized direction, but coordinated action across public and private sectors. The Defense Advanced Research Project Agency's creation of the internet, the biotech revolution sparked by the Bayh-Dole Act, and rural electrification succeeded because the government, private sector, universities, and workers aligned. Americans are losing time. The question is whether the United States will reassert scientific, engineering, and manufacturing prowess, especially where it has lost ground, or whether it will continue to cede leadership.
This report is made possible by general support to CSIS. No direct sponsorship contributed to this report.