December 23, 2025
As investors, we must observe, research/analyse, evaluate/judge before betting. Unlike professional investors, me, my family and my friends, bet with our own money, with real personal, lasting consequences.
We went to China to observe with our own eyes in order to better analyse and evaluate and, hopefully, invest smartly.
We had done that in 2004 when Shanghai and Beijing were literally fields of cranes. Easy investment calls.
I don’t pretend that, in 10 days in 3 cities, we now know and fully understand China. But we observed and learned a lot which I am sharing in this blog. Nothing here is investment advice.
Also, there is no political endorsement here even though some of our observations will cover some social aspects that we share only FYI. Take whatever you want from these personal views.
Finally, know that I have supplemented our observations and analysis with some content from Perplexity.ai and Gemini 3.0.
This is part 2 of Ten Days In China. Part 1 was about Housing. I also posted Bots On The Ground (Robotics) and Shhh… (cars).
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Technology is where the differences between China and the Western world are the most profound and significant for investors.
China has a centralized approach on strategies and policies but allows capitalistic-style competition at the corporate level. A “top-down design, bottom-up execution” model.
The central government sets the vision through Five-Year Plans, the National Development and Reform Commission (NDRC) translates this into specific sector targets, and execution is driven by massive state capital deployment and fierce competition between local governments.
Unlike Western industrial policies that often rely on tax incentives, China utilizes “Government Guidance Funds” to shape the market. These are state-backed investment vehicles that function like venture capital but with strategic rather than purely financial goals.
The central government provides seed capital, which then attracts additional funding from state-owned enterprises and banks. These funds take minority equity stakes in critical companies, de-risking research and development efforts in complex sectors.
To achieve technological self-reliance, the state employs a “New Whole-Nation System.” This mechanism mobilizes national resources to tackle key technological challenges, pairing leading “National Champion” companies with research universities and state laboratories.
These groups form innovation consortia where the state sets specific technical targets, and the consortium works to solve them.
A critical driver of this system is the intense competition between local governments. Local officials are evaluated and promoted based on their ability to deliver growth in sectors prioritized by Beijing.
When the central government highlights a new priority, such as electric vehicles, provinces and cities compete aggressively to build industrial parks and attract manufacturers.
This model often leads to significant duplication and overcapacity. While this can be capital inefficient, it creates a ruthless environment where only the most cost-effective and capable companies survive, eventually emerging as dominant global competitors.
Five-Year Plans provide 5-10 year stability. Goals persist across leadership changes, allowing for long-term R&D investments.
The US approach historically avoids broad, “socialistic state-led” industrial planning. Instead, it uses the capitalistic “market-correction” mechanisms to nudge the private sector.
The government sets broad goals and offers incentives for private companies to figure out the solution. It relies on private competition to determine winners.
US policies are generally legislated or, increasingly, set by presidential decrees that can be altered by future administrations. They lack long-term guarantees and in the case of decrees are often reactive rather than thoroughly planned, analyzed and discussed.
Since Deng Xiaoping, China’s last 3 leaders were all engineers who, by trade, think logically and systematically and truly understand technology.
The “China Miracle” happened precisely because, under Deng, the state retreated from total central planning and introduced core capitalist attributes—private property, profit motives, and competition—into its system. China’s hybrid model uses market forces as the engine while keeping the state at the steering wheel.
According to Xi Jinping, China’s private sector (57 million registered private enterprises (USA: ~40 million), making up more than 92% of all businesses in the country) contributes roughly:
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60% of GDP
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70% of innovation
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80% of urban employment
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90% of new jobs
Private enterprises make up over 80% of the nationally recognized “little giant” firms—specialized, high-end, innovation-driven small and medium-sized enterprises (SMEs)—and more than 92% of the country’s high-tech enterprises.
In the past 15 years, China has become dominant in many key industrial sectors: solar, batteries, EVs, robotics. It is still lagging a little in advanced tech (AI, semiconductors) but this lag is entirely artificial, stemming from Western controls on China’s access to ASML and Nvidia’s most advanced products.
The Australian Strategic Policy Institute tracks critical technology around the world:
China’s exceptional gains in high-impact research are continuing, and the gap between it and the rest of the world is still widening.
In eight of the 10 newly added technologies, China has a clear lead in its global share of high-impact research output. Four—cloud and edge computing, computer vision, generative AI and grid integration technologies—carry a high technology monopoly risk (TMR) rating, reflecting substantial concentration of expertise within Chinese institutions. (…)
China now leads in 66 of the 74 technologies tracked, with the United States leading in the remaining eight (…). China now holds the lead in research on small satellites, previously a US-led area. (…)
The Chinese Academy of Sciences remains the world’s premier technological research institution, ranking first in 31 technologies.(…) Among universities, Tsinghua in Beijing has remained on top, placing first in five technologies.
The law of large numbers clearly benefits China:
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Annual STEM graduates: China 3.57 million vs USA 0.82 million.
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Annual STEM PhDs: China 77,000, USA 40,000.
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China awards approximately 1.5 million engineering degrees annually vs 200,000 in the U.S. across all degree levels..
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Chinese institutions now dominate global research volume, representing 7 of the top 10 institutions for academic research publications in 2025.
In the 1990s, China realized its universities were mediocre. It then treated PhD production like it treated steel production: as a strategic industrial output. It built the factories (universities), subsidized the raw material (students), and imported the machinery (returning professors) to ensure it would dominate the market for high-level human capital.
In 2017, China launched the Double First-Class University Plan, creating elite universities to prioritize “basic disciplines” (math, physics, chemistry, biology) and “engineering” to solve “chokepoint” technology problems.
By contrast, the Trump administration has significantly reduced the federal government’s role (and funding) in education, shifting power to states and promoting private alternatives, decentralizing education and science research.
Through the National Science Foundation, the administration is explicitly prioritizing “critical and emerging technologies” such as artificial intelligence (AI), quantum information science, and biotechnology. The new Technology, Innovation and Partnerships (TIP) directorate is central to this “competitiveness” strategy, though it also faces funding struggles.
Trump 1.0 released the 2018 five‑year federal STEM education strategic plan, “Charting a Course for Success,” which reaffirmed goals of strong STEM foundations, diversity, and workforce readiness, and framed itself as a “North Star” for federal STEM investments.
Trump 2.0 2026 budgets slash NSF funding by roughly half, cut the STEM education portfolio by about 75%, and eliminate or drastically shrink programs aimed at broadening participation and research on STEM teaching.
Synthesis from NSF’s 2023 K‑12 STEM indicators concludes that U.S. math and science achievement has not improved meaningfully since around 2000 and has recently deteriorated, even as course‑taking in advanced math and science has increased.
The share of U.S. students reaching high performance levels remains relatively small, and the proportion below basic proficiency in math has grown since 2012, indicating widening concern at the lower end of STEM achievement.
According to the NY Times, beyond funding, the NSF has lost ~33% of its workforce and slashed Research Experiences for Undergraduates (REU) grants from ~200/year to just 52 in 2025, severely impacting the pipeline of future scientists.
The funding cuts could create a significant “innovation lag,” fundamentally altering the long-term trajectory of U.S. basic science.
A major risk is the “brain drain” of early-career researchers, who are leaving academia or the U.S. entirely.
Analysis of NIH data shows that awards for graduate students and postdocs dropped to their lowest level since 2016. With fewer grants available, universities have frozen hiring, forcing young scientists to abandon research careers or move to countries actively recruiting them.
The hope is that corporate R&D will take over but one could argue that the corporate sector is structurally unable to replicate the public science ecosystem it is replacing.
Corporate R&D has historically relied on a pipeline of “de-risked” basic science from public and academic research (e.g., the internet, GPS, mRNA). With federal funding for that upstream pipeline slashed by ~40-50% in 2025, industry is effectively harvesting the last crop of public research.
Unlike the mid-20th century era of Bell Labs or DuPont, modern corporate labs focus almost exclusively on development (D) rather than research (R). In 2025, business-funded basic research accounts for only ~35% of the total, and most of that is still “directed” toward eventual profit.
As we have seen on AI LLMs, the shift in research from public institutions to private labs changed the culture of science from “open” to “proprietary,” slowing the collective rate of progress while requiring enormous individual corporate investments chasing similar goals.
Industrial research is treated as intellectual property. A breakthrough in AI or battery tech at a US private lab is patented or kept as a trade secret (closed), whereas a federally funded breakthrough would be published for all to build upon. This fragmentation means different companies may waste billions solving the exact same problem in isolation, rather than sharing the “pre-competitive” knowledge that accelerates the whole field.
In academia, failed experiments (negative data) are often shared or at least known within the community. In industry, failures are buried to protect stock prices or reputation. This leads to inefficiencies, as other companies inevitably repeat the same doomed experiments.
OpenAi, Google, Meta and others are all racing towards AI dominance spending billions of dollars, increasingly with borrowed funds. They each have their own closed silos, but poach each other at high costs. Closed systems force them to not only focus on their LLM but also to self-develop all the necessary applications for commercial acceptance.
Chinese companies like Alibaba and Tencent also spend heavily to offer competitive LLMs but their open source models provide more efficient and much cheaper models which are then shared with thousands of smaller independent developers scrambling to produce the best commercial applications.
Time will tell which approach proves best but China’s hybrid, open model strikes me as currently more efficient and productive and much less costly.
Recently, large American companies like Airbnb and Meta adopted Alibaba’s Qwen LLM to drive their AI applications based on capabilities and cost.
Stanford University’s analysis says that the U.S. still leads in frontier models, private investment, and core chips, while China is ahead or very competitive in deployment at scale, industrial/robotic AI, and some open‑source ecosystems.
Here’s a short video about the robotics battlefield.
And here’s a much longer video showing how fast robotics evolved during 2025. Well worth your time.
It’s amazing how capabilities exploded after March. Notice how Chinese robots took most of the space as the year progressed.
You will also understand why Nvidia’s Jensen Huang keeps saying that “robotics is the next wave of AI and will drive an enormous new phase of demand for NVIDIA’s chips, on top of existing data‑center AI demand.”
U.S. LLM models still slightly outperform Chinese ones on major benchmarks, though the performance gap has shrunk to only marginal levels.
Yet, a Hugging Face/ MIT survey revealed that Chinese-made models made up 17% of total model downloads in the past year, compared with 15.8% for US-made models. Qwen and DeepSeek alone captured 14% of downloads.
China installs far more industrial robots than any other country—roughly hundreds of thousands per year vs tens of thousands in the U.S.—with policy targets to infuse AI across most large manufacturers by 2027–2035.
“AI + manufacturing” and “city brain” projects embed AI into factories, logistics, and urban infrastructure at a scale the U.S. has not matched.
Chinese cities run large‑scale smart‑city, traffic, and surveillance systems, and local governments are rolling out AI‑augmented “offices” for administration and services. Beijing’s AI governance plan pitches open, multilateral cooperation, which may help export Chinese standards and systems to emerging markets.
Chinese open‑weight models are becoming attractive abroad because they are cheaper and more customizable, putting price pressure on expensive U.S. closed models.
During our 10 days in China, it struck us how very few Westerners were there visiting. This recent video (by @JayandKarolina) will show you most of what we saw (and some that we didn’t) in Shenzhen and Shanghai.
It will give you an idea of how Trump will feel when he goes to China next April. He should take J.D. Vance along to meet “those Chinese peasants who manufacture the things Americans buy”. They will both be very surprised by the “peasants” and what they have achieved.
Finally, you should also watch Keyu Jin’s YouTube videos Why Everything You Know About China is Wrong?. Not all 14 episodes are good but most are. You will surely learn something.
See also,
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Ten Days In China Part 1 (Housing),
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Bots On The Ground (Robotics)
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Shhh… (cars).