China’s 15th Five-Year Technology Plan: What Are They Up To?
If you thought your company’s quarterly planning meetings were intense, imagine mapping out an entire nation’s technological future for five years straight.
Welcome to China’s 15th Five-Year Plan (2026-2030), a document that makes most corporate strategies look like hastily scribbled grocery lists.
This isn’t just another bureaucratic blueprint gathering dust in Beijing – it’s a declaration of technological independence that could reshape global tech dynamics.
The Grand Vision
China has set itself an audacious goal: becoming a global leader in science and technology by 2035.
The 15th Five-Year Plan focuses on economic self-sufficiency and technological innovation, prioritizing strategic investments in core technologies like semiconductors, AI, quantum tech, and rare earth elements.
At a State Council press briefing in September, Science and Technology Minister Yin Hejun delivered what can only be described as a technological highlight reel. During the current 14th five-year plan period (2021-2025), China’s national R&D investment surged by 48 percent compared to 2020.
The country maintains the world’s largest pool of researchers, has climbed to 10th place in the Global Innovation Index, and has led the world in high-impact international journal publications and patent applications for five consecutive years.
Not bad for a country that Western observers often dismissed as merely capable of copying technology rather than innovating.
The Semiconductor Saga
Let’s talk chips – not the kind you eat, but the microscopic marvels that power everything from your smartphone to that smart fridge you never asked for.
China’s semiconductor journey has been rocky, to put it mildly. While the nation has achieved front-runner status in areas like space exploration, 5G, and new energy, semiconductors remain the proverbial thorn in its side, particularly as US-led export curbs have hobbled Beijing’s access to advanced chip manufacturing technology.
Professor Ye Tianchun, a leading academic in integrated circuits at the Chinese Academy of Sciences, doesn’t mince words: “The core challenge for China’s chip industry is transitioning from a strategy of ‘catching up’ and ‘import substitution’ to one of pioneering new technological pathways.”
In other words, China needs to stop playing someone else’s game and create its own playbook.
Currently, China stands about five years behind global leaders in high-volume manufacturing of leading-edge logic semiconductor chips, and continues to trail in memory chips and semiconductor manufacturing equipment, though Chinese firms have made significant inroads in semiconductor design and production of legacy chips.
China has achieved a degree of self-sufficiency in mature process nodes (28 nanometers and above), but the high-end market remains dominated by American, Japanese, and European companies.
The real bottleneck?
Advanced process equipment, particularly those finicky lithography machines and their core components – the kind that require export licenses thicker than their instruction manuals.
The FDSOI Alternative
Here’s where things get interesting. As transistor sizes approach their physical limits (we’re talking about features smaller than a coronavirus), the global semiconductor industry is actively exploring new frontiers. China sees an opportunity in FDSOI (fully depleted silicon-on-insulator) technology.
Compared to the mainstream FinFET (fin field-effect transistor) technology, FDSOI offers some compelling advantages: simpler manufacturing processes, lower costs, high speed, low power consumption, and – here’s the kicker – less demanding requirements for advanced lithography tools.
Professor Ye also highlights emerging technologies like photonic chips and quantum computing as potential pathways for performance leaps. Beijing is introducing significant new guidelines to boost the adoption of RISC-V, the open-source chip architecture, in a determined move to lessen China’s reliance on Western semiconductor technology.
The RISC-V Revolution
If you’re not familiar with RISC-V (pronounced “risk-five,” not “risk-vee”), think of it as the Linux of chip architectures – open, free, and unburdened by licensing fees or geopolitical restrictions.
China’s RISC-V adoption is no longer grassroots — it’s now national policy, with all domestic IoT chips mandated to adopt the ISA by 2027.
In November 2018, China established the China RISC-V Alliance under the Chinese Academy of Sciences, with the aim of rapidly advancing the development of a domestic RISC-V ecosystem.
The beauty of RISC-V is that it sidesteps traditional architecture monopolies. While Arm and x86 architectures are controlled by specific companies (and subject to US export restrictions), RISC-V is genuinely open. It’s like building with LEGO blocks that anyone can manufacture, modify, and use without asking permission.
The Internal Competition
Not everything in China’s semiconductor garden is rosy. Professor Ye points out a thorny problem: “In almost every segment where localization has been achieved, there are more than five domestic companies competing.”
This low-level, redundant internal competition is partly a result of US restrictions pushing firms into horizontal expansion, and partly due to policy incentives attracting capital and new entrants who replicate mature products, thereby wasting innovative resources.
It’s the classic “too many cooks in the kitchen” problem, but with billions of dollars in funding and national pride at stake. When everyone’s rushing to fill the same gap, innovation suffers. You end up with ten companies making similar 28nm chips instead of one company pushing toward 7nm.
The solution?
Ye advocates for what he colorfully describes as “building our own house with our own blueprints” – establishing China’s own development model rather than following foreign technological roadmaps. It’s a call for strategic coordination and genuine innovation rather than parallel development and product duplication.
The AI Catalyst
If semiconductors are the foundation, artificial intelligence is the catalyst accelerating everything. Chen Xiaohong, an academician of the Chinese Academy of Engineering, emphasizes that the 15th five-year plan period will be crucial for the accelerated innovation and widespread application of AI.
China’s AI strategy involves three key pillars:
First, concentrating efforts to make breakthroughs in foundational algorithms, development frameworks, and high-end chips. This is the unsexy but essential groundwork – the mathematical foundations and specialized processors that make AI actually work.
Second, promoting the development of brain-inspired computing to reduce the energy consumption of training and running large models. (Current AI models consume enough electricity to power small cities, which is neither economically nor environmentally sustainable.)
China is also advancing explainable AI to tackle issues of model “hallucination” – those embarrassing moments when AI confidently tells you that the Eiffel Tower is in London – and enhancing cross-modal representation technologies spanning text, images, sound, and video.
Third, fostering the integration of data, algorithms, computing power, and computing networks. This involves improving data markets, promoting authorized use of public data, building open-source algorithm ecosystems, and establishing national computing power scheduling platforms. Think of it as creating a nationwide AI nervous system.
Real-World Applications
All this high-level strategy means nothing without practical applications. Priority fields include humanoid robots, intelligent connected vehicles, smart green transport, and the low-altitude economy (think delivery drones and air taxis).
Minister of Industry and Information Technology Li Lecheng announced that the 15th five-year plan period would also actively pioneer future industries such as brain-computer interfaces, the metaverse, and quantum information.
Brain-computer interfaces might sound like science fiction, but they’re rapidly becoming science fact. Quantum information could revolutionize everything from encryption to drug discovery. And the metaverse – well, at least someone’s still optimistic about it.
Growth in computing infrastructure, intelligent driving, and smart manufacturing is expected to be a key market driver during 2026-2030. The rapid development of AI creates explosive demand for specialized AI chips while simultaneously transforming chip design and manufacturing processes through automation, advanced materials screening, and improved equipment efficiency.
Forward-Looking Investments
Professor Li Xianjun of the Beijing Academy of Social Sciences argues that China must not only overcome existing bottlenecks (like developing EUV lithography) but also make forward-looking investments in emerging and disruptive technologies.
This includes advancing chiplet packaging to achieve near-advanced performance using mature nodes and exploring entirely new manufacturing techniques, such as nanoimprint lithography.
Chiplet packaging is particularly clever – instead of trying to manufacture one massive, complex chip (which requires the most advanced processes), you create multiple smaller chips and package them together. It’s like building with modular components rather than trying to carve everything from a single block of marble.
You get comparable performance without needing the most cutting-edge manufacturing equipment.
The Geopolitical Elephant in the Room
Let’s address what everyone’s thinking: this entire strategy exists because of US-China tensions.
The semiconductor industry is facing what Ye calls “the dual challenges of a technology blockade and supply chain decoupling.” US export controls have effectively locked China out of the most advanced chip-making equipment and technologies.
But here’s where it gets interesting: restrictions often spur innovation.
When you can’t buy what you need, you either invent it yourself or find alternative approaches. China is doing both simultaneously. The strategy of catch-up and substitution, while building capabilities within the global ecosystem, had created a dependency on foreign technological roadmaps. Now, facing decoupling efforts, China is forced to establish its own development model.
Whether this will succeed remains to be seen. History is full of technological catch-up stories (South Korea, Taiwan) and cautionary tales (the Soviet Union’s computer industry).
China has advantages – massive funding, a huge domestic market, a large pool of engineers – but also faces significant challenges, particularly in areas requiring decades of accumulated manufacturing expertise.
The Talent Question
Behind every technological breakthrough are actual humans with brains (at least until AI advances further). China’s success depends heavily on cultivating and attracting scientific talent. The country maintains the world’s largest pool of researchers, but quantity doesn’t automatically translate to quality or innovation.
Brain drain remains a concern, with many of China’s brightest minds still attracted to opportunities in the United States and Europe. However, improving research conditions, better funding, and growing opportunities in China’s tech sector are making domestic careers increasingly attractive. Plus, when you’re building a technological ecosystem from scratch, there’s no shortage of interesting problems to solve.
The Bottom Line
China’s 15th Five-Year Plan represents more than just another policy document. It’s a comprehensive strategy to achieve technological sovereignty in an era of increasing geopolitical competition.
The plan acknowledges both China’s achievements and its vulnerabilities, charting a course that emphasizes indigenous innovation, alternative technological pathways, and strategic patience.
Will China achieve its 2035 goal of becoming a global leader in science and technology? That remains uncertain. What is clear is that the next five years will be decisive.
China is betting heavily on emerging technologies like RISC-V, FDSOI, chiplet packaging, and AI-driven innovation to leapfrog traditional development paths.
For the rest of the world, this means increased competition, diverging technological standards, and potentially a bifurcated global tech ecosystem. For China, it means a period of intense innovation, massive investment, and the challenge of transforming from a fast follower into a genuine technology leader.
The next five years might just determine whether we’re heading toward a truly multipolar technological world or whether existing hegemonies will maintain their grip.
Either way, China’s 15th Five-Year Plan ensures that the competition will be fierce, innovative, and consequential for everyone with a stake in the future of technology.
Grab your popcorn – the show’s just getting started.
About the author: Rupesh Bhambwani is a technology enthusiast specializing in the broad technology industry dynamics and international technology policy.
When not obsessing over nanometer-scale transistors, energy requirements of AI models, real-world impacts of the AI revolution and staring at the stars, he can be found trying to explain to his relatives why their smartphones are actually miracles of modern engineering, usually to limited success.