Innovation Starts in Schools — Lessons from China

Innovation Starts in Schools — Lessons from China

Countries that want successful innovation systems must invest in science education — and, above all, in science teachers.

When governments discuss national innovation strategies, the conversation usually begins at the top of the pyramid: artificial intelligence, research universities, venture capital, technology parks, semiconductor factories and R&D budgets. China is increasingly working from the opposite direction as well. Its current education reforms are based on a much longer-term proposition: a country cannot build a sustainable innovation economy unless scientific thinking begins at school, years before a young person enters a university laboratory or technology company.

The scale of China's innovation investment is already enormous. In 2025, national expenditure on research and experimental development reached approximately RMB 3.93 trillion, or 2.80% of GDP, up from RMB 2.44 trillion and 2.36% of GDP in 2020. China now has the world's second-largest R&D expenditure, while its R&D workforce reached approximately 7.95 million full-time-equivalent researchers and personnel in 2025. Basic-research expenditure alone reached RMB 277.8 billion, up 11.1% in a single year. But the important change is that China is increasingly connecting this enormous investment at the top of the innovation system with reforms beginning at primary and secondary school level.

In January 2025, China's Ministry of Education issued a new Guideline for Science Education in Primary and Secondary Schools, transforming science education from an individual subject into a broader innovation-development system. The policy focuses not simply on memorising scientific knowledge, but on developing scientific reasoning, inquiry, experimentation, critical thinking and the ability to solve problems. Science is now taught throughout Years 1–9, while science in primary school and science-related subjects — including physics, chemistry and biology — in lower secondary education together account for approximately 8–10% of compulsory curriculum time. Information technology and practical labour education have also been strengthened as separate components of the curriculum.

The most revealing element of the reform, however, concerns teachers. China appears to recognise something many innovation strategies underestimate: advanced laboratories are of limited value if there is no skilled teacher capable of turning a child's curiosity into scientific thinking. The 2025 guideline calls for every primary school to have appropriately qualified science teachers and sets an ambitious direction towards having at least one science teacher with a master's degree and a science or engineering background in every primary school. It also requires science teachers to receive equal opportunities in performance assessment, promotion, professional recognition and career development, while regions are encouraged to create teacher-sharing centres so that stronger schools can support schools with weaker science provision.

China is also extending the concept of who can be a science educator. Schools are being encouraged to appoint at least one science vice-principal, drawing specialists not only from the school system but from universities, research institutes, science museums, technology organisations and companies. Scientists and engineers can therefore become directly involved in the educational environment of children. The objective is important: instead of keeping the worlds of school, university, research and industry separate until students are adults, China is attempting to connect them much earlier.

This represents a structural change in the innovation pipeline. The traditional model can be described as school → examination → university → employment. The emerging Chinese model increasingly resembles school curiosity → experimentation → scientific literacy → university and research → technological innovation → industrial application. The Ministry of Education is encouraging regional science-education centres, greater use of laboratories and science venues, cooperation with universities and research institutes, digital science resources and greater emphasis on experimental and inquiry-based work in student assessment. Science therefore becomes not merely something children study, but something they are expected to practise.

The reform is part of a much larger national transformation. The first full year of implementation of China's 2024–2035 Master Plan for Building a Leading Country in Education was 2025. A supporting three-year action programme introduced two rounds of pilots covering six categories and 41 reform initiatives. At university level, China is simultaneously restructuring programmes around emerging economic priorities. Since 2023, institutions have added 3,715 undergraduate programmes, 2,294 master's programmes and 1,129 doctoral programmes, with new disciplines increasingly concentrated in fields such as artificial intelligence, integrated circuits, the digital economy and interdisciplinary technologies.

The logic is clear: primary schools create scientific curiosity; secondary schools develop analytical and experimental ability; universities deepen specialist knowledge; research institutes generate discoveries; industry converts discoveries into products. Innovation is therefore treated as a pipeline rather than an isolated sector.

There are already measurable signs of a broader shift in scientific capacity. The share of Chinese citizens assessed as possessing scientific literacy reached 16.74% in 2025, compared with 15.37% in 2024. By the end of 2025, China had 6.318 million valid invention patents, while 1.04 million technology contracts signed during the year represented RMB 7.57 trillion in transaction value. These figures cannot be attributed to school reform alone — China's industrial scale, university system, research investment and technology policy all matter enormously — but they demonstrate the economic environment into which the education reforms are being integrated.

This is perhaps China's most important lesson for other countries. Governments often try to create innovation by financing the final stages: start-ups, research grants, accelerators and technology clusters. Those mechanisms are necessary, but they cannot compensate indefinitely for a weak educational foundation. The scientist, engineer, inventor or technology entrepreneur who will create a breakthrough in 2040 is probably sitting in a school classroom today.

The strategic investment therefore begins much earlier than venture capital. It begins with a child being allowed to ask why, with a laboratory experiment that produces an unexpected result, with a teacher who knows how to turn failure into investigation, and with an education system that treats curiosity as an economic resource rather than a distraction from examinations.

China's current reforms suggest a powerful formula for national development: Invest in science → invest in science teachers → develop scientific thinking early → connect schools with universities and industry → build a larger innovation talent pipeline → convert knowledge into technology and economic growth.

The decisive link in that chain may be the one that receives the least attention in many countries: the science teacher.

A nation can purchase computers, build laboratories and finance AI centres relatively quickly. Developing thousands of teachers capable of inspiring the next generation of scientists takes much longer. That is precisely why countries that want to compete in the innovation economy of the 2030s and 2040s must begin investing in them now.