China is rapidly turning its AI research into a full‑blown "token economy." In March the National Data Administration announced that daily token usage jumped from 100 billion at the start of 2024 to over 14 trillion, and a global AI platform now shows Chinese large‑model traffic outpacing the United States each week. The country even gave the basic unit of AI language models a Chinese name – "词元" (Ciyuan) – to link technology supply with commercial demand. Analysts say China’s edge comes from cheaper valuations, faster AI adoption and massive power‑generation capacity. Companies are racing to build and share models: Alibaba backs the open‑source Qianwen model, which startups love for its low cost; ByteDance’s closed‑source Doubao powers popular apps; Tencent added an AI plugin to WeChat; and Xiaomi and Meituan have launched their own models. Chinese AI startups are gaining overseas traction – Moon Dark Side’s Kimi model powers a new code editor, and MiniMax posted $79 million in 2025 revenue, 70 % of it from abroad. In the hardware arena, robot firms like Unitree, Zhipu and UBTech are scaling up, while autonomous‑taxi pilots from Pony.ai (Zagreb) and WeRide (Dubai) are already on the road. Public trust is high – an Edelman survey found 87 % of Chinese respondents trust AI versus just 32 % in the U.S. – and AI tools are slashing short‑drama production costs to a tenth of traditional budgets. Coupled with a projected 400 GW of reserve power by 2030, China’s AI momentum looks set to reshape the global tech landscape.
Read morePhysicists have taken a big step toward visualising one of nature’s most ghostly particles – the neutrino – by putting a brand‑new detector called PLATON through its paces in the lab. The prototype, a compact block of plastic that glows when charged particles zip through it, was bombarded with tiny flashes of light ranging from a few hundred photons down to just five. By carefully measuring how precisely the device could pinpoint where each flash originated, the team proved that PLATON can resolve positions with remarkable accuracy, even at the faintest levels. To mimic the kind of signals a neutrino would produce, the researchers also fired electrons from a strontium‑90 source into the scintillator. The detector not only spotted these events but reconstructed their exact locations, matching computer simulations almost perfectly. This alignment between experiment and theory shows that PLATON’s design – a high‑resolution, low‑light‑threshold camera for particle tracks – works as intended. If the prototype continues to perform, it could become the core of the next generation of neutrino observatories, allowing scientists to “see” neutrinos for the first time and unlock new insights into the universe’s most abundant yet invisible particles.
Read moreChina is fast‑tracking the leap from 5G to 6G, turning laboratory feats into real‑world plans. In early 2022 a terahertz test system hit 100‑200 Gbps over the 360‑430 GHz band, setting a world record for real‑time wireless speed. By mid‑2023 researchers added orbital‑angular‑momentum beams, achieving 100 Gbps on a 10 GHz bandwidth. The next frontier is merging satellites with ground stations. In February 2024 China Mobile and the national aerospace agency launched the world’s first 6G‑architecture verification satellite, promising seamless coverage over oceans, deserts and polar regions. China’s patent portfolio now holds more than 40 % of global 6G filings, led by Huawei’s 15.7 % share, reflecting a strong industrial push. Recent trials have demonstrated 1.2 Tbps terahertz links—enough to stream two hundred 4K movies in a second—and the first field‑tested network that blends AI with communications, enabling “agent communication” where the network can sense intent, predict channels and guide autonomous devices in real time. Standard‑setting is racing ahead: 3GPP aims to freeze the first 6G specifications by early 2029, with commercial roll‑outs targeted for 2030. The combined advances in speed, coverage, and intelligence suggest that 6G could soon turn the promise of “signal everywhere” into everyday reality.
Read moreScientists have discovered a way to make gene‑editing particles work far better by tweaking the human cells that produce them. By re‑programming these cells, researchers found that the particles could load their guide RNA – the molecular “address label” that tells the editor where to cut – more efficiently, a benefit that applies to many different types of particles and cargo. In their experiments, the team also identified a set of genes that had a mixed impact. Knocking out these genes caused the cells to churn out more of the protein components that make up the particles, but it also reduced how effectively the particles delivered their payload. However, in specialized manufacturing settings where the protein supply is the bottleneck, the same genetic tweaks actually boosted the particles’ overall potency. The breakthrough suggests a broadly useful strategy for improving gene‑editing technologies, whether they are used in research labs, therapeutic development, or future medical treatments. By fine‑tuning the cellular factories that build these tools, scientists can achieve stronger, more reliable gene edits across a range of delivery methods.
Read moreHonor’s “Lightning” robot stunned the robotics world by winning a global championship, thanks to a clever dual‑battery system that lets it swap power packs while standing and a first‑of‑its‑kind liquid‑cooling unit that tames heat, vibration and fatigue during high‑speed, long‑duration work. This breakthrough isn’t a one‑off; it builds on decades of China’s manufacturing know‑how, from robust limbs to smarter “brains” (AI decision‑making) and “cerebellums” (motion‑control algorithms). Today, about 80% of key components—precision reducers, high‑performance servos, six‑axis force sensors—are sourced domestically, cutting costs and speeding up iteration. Industry clusters in Beijing‑Tianjin‑Hebei, the Pearl River Delta and the Yangtze River Delta enable engineers to spot a problem in the morning and have a new part on the production line by afternoon. Forecasts show that by 2025 roughly 15,000 humanoid robots will be shipped worldwide, with Chinese firms supplying 90% of them at an average price of $16,000, far cheaper than foreign rivals. Powerful AI models like the “Zhuque” decision‑making brain and “Xuanwu” motion‑control system give Chinese robots millisecond‑level responses and adaptability in unstructured settings. The country is also opening its hardware platforms to top universities such as Oxford and Carnegie Mellon, letting overseas researchers develop algorithms without building a robot from scratch. Partnerships with German and South Korean manufacturers illustrate a collaborative, not protectionist, approach. In short, China’s rapid, inclusive innovation is turning humanoid robots from costly prototypes into affordable, mass‑produced tools that can help tackle aging populations, labor shortages and climate challenges worldwide.
Read moreOn April 22, 2026, Beijing hosted the Intelligent Quantum Summit, where a new venture called Liangzhi Kaiwu (Intelligent Quantum Inception) was officially announced. The company is a joint effort between iFlytek, a leading AI firm, and a research team from Tsinghua University that specializes in atomic‑scale quantum computing. At the event the team revealed two pioneering algorithms: “Zhuifeng,” which enables large‑scale control of quantum bits, and “Bian Que,” an algorithm‑driven method for correcting quantum errors without relying on bulky hardware. These tools are presented as the first practical steps toward merging artificial intelligence with quantum technology—a combination that could break the current bottleneck in computing power and energy consumption. Liu Qingfeng, iFlytek’s chairman, warned that AI workloads have exploded—from 100 billion tokens a day in early 2024 to over 140 trillion by March 2026—pushing classical computers to their limits. He predicts that within the next five to ten years quantum computers will become the backbone for next‑generation AI, turning the technology into a “super‑assistant” for countless industries. The launch signals China’s ambition to move from catching up to leading the emerging field of quantum‑intelligence integration, with strong backing from both policy makers and the private sector.
Read moreChina is pushing for a fairer, more open global nuclear system while keeping safety front‑and‑center. Since 2019 it has hosted a string of high‑profile meetings – from the International Nuclear Data Conference to the World Ministerial Conference on Fusion Energy – to share knowledge and boost cooperation. Regional forums with ASEAN, Gulf Arab states and a new China‑Africa platform spread nuclear know‑how to the Global South, helping farmers, doctors and industry upgrade with radiation‑based technologies. On the power‑plant side, China now runs 59 reactors (about 62 GW) and has 53 more under construction, accounting for roughly 60 % of the world’s new nuclear capacity in the past decade. Its home‑grown “Hualong One” reactors and the fourth‑generation high‑temperature gas‑cooled plant at Shidao Bay are already delivering clean electricity. In fusion, Chinese labs have hit milestones such as 100 million‑degree plasma for over 1,000 seconds on the EAST device and double‑billion‑degree plasma on the HL‑3 tokamak, while opening these facilities to international scientists. The country also contributes key components to the ITER project and leads in industrial applications – from sterilizing medical supplies to boosting crop yields through radiation‑induced mutation. With an annual nuclear‑tech industry output exceeding 300 billion RMB, China is cementing its role as a major, responsible player in the peaceful use of nuclear energy.
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