分类： science

### 2026 Nature Index Shakes Global Academia: Chinese Universities Surpass the US, Harvard Dethroned

The 2026 iteration of the Nature Index, one of the most respected objective metrics for high-impact scientific research output, has delivered a historic shift to global higher education. For the first time since the ranking launched in 2015, Harvard University – the long-standing top-ranked institution – has been knocked from the number one spot, with China’s Zhejiang University (ZJU) claiming the leading position. Even more striking, nine of the world’s top 10 research universities in this year’s index are based in China, and China’s total share of research papers published across the 178 leading journals tracked by the index now exceeds twice that of the United States.

This milestone is the culmination of more than a decade of steady, explosive growth. When the Nature Index first launched in 2015, China’s total share of top-journal publications stood at just 37% of the U.S. share. China first claimed the overall global lead in 2023, and by 2025 it had fully doubled the U.S. output. In 2025 alone, China’s research share grew 22.4% year-over-year, compared to just 4.2% growth for the U.S. With total global output in the index growing 10.8% annually, all other top 20 countries recorded single-digit growth or outright decline, leaving China as the clear outlier in scientific expansion.

The shift has prompted leading mainstream outlets including *The Economist* and *The New York Times* to reframe their analysis of global higher education, increasingly turning to objective metrics like the Nature Index and the Leiden Rankings (which focus on citation impact rather than subjective reputation) over long-standing legacy rankings such as Times Higher Education, U.S. News, and QS. Critics argue these legacy rankings suffer from fundamental flaws: they arbitrarily weight subjective factors like academic reputation, employer perception, and “learning environment,” alongside idiosyncratic metrics such as international student enrollment and counts of Nobel and Fields Medal winners. For decades, these rankings have preserved the same set of elite Western institutions at the top, even as China’s scientific and economic output has transformed the global order.

The disconnect between legacy rankings and real-world performance is stark: Times Higher Education has kept the same top 10 universities unchanged from 2004 to 2026, with Oxford and Cambridge holding top five spots despite decades of economic stagnation in the United Kingdom, which has recorded just a 0.6% annual real per capita GDP growth over 20 years, compared to China’s 7.4% over the same period. Unlike legacy rankings, the Nature Index does not claim to measure undergraduate experience, institutional prestige, or student experience. It focuses narrowly on high-impact research output, meaning it does not seek to guide undergraduate college choices – but it offers a clear, data-driven picture of global research leadership. While ZJU claimed the top spot with a PhD student body three times the size of Harvard’s, the index’s core finding of China’s dominant research output is unambiguous: for nations aiming to build world-class research powerhouses, China’s model offers a replicable blueprint.

China’s surge up the Nature Index rankings is not a stroke of luck, but a predictable outcome of massive investment in tertiary STEM education. Since 2000, the annual number of STEM graduates in China has increased nearly tenfold, creating a massive pipeline of research talent that has driven exponential growth in output. By 2025, China produced 831,600 Science Citation Index (SCI) papers, a 27-fold increase from 2000. China’s share of global fractional collaborative SCI output rose from just 2.96% in 2000 to roughly 26% in 2025. The nation also hosts more than 5,300 domestic Chinese-language scientific and technical journals indexed by the China National Knowledge Infrastructure (CNKI), with total output growing 500% between 2000 and 2025, covering research areas of domestic importance that often do not appear in international journals.

### Academic Fraud Reckoning Unfolds Amid Growth

China’s rapid expansion has not come without challenges, and the past year has brought a high-profile reckoning over academic integrity. In May 2026, a PhD dropout and Bilibili influencer known as Classmate Geng rocked Chinese academia with widespread accusations of research fraud against leading Chinese academic figures, including Changjiang scholars and National Science Foundation of China (NSFC) distinguished young researchers.

Using a combination of AI-powered statistical analysis and simple visual checks for duplicated data, Geng exposed misconduct by star researchers at multiple top Chinese institutions, including Sun Yat-sen University, Nankai University, and Tongji University – which rank 11th, 20th, and 21st respectively in the 2026 Nature Index. The fallout has been severe: four professors have been demoted (three lost their dean positions), and multiple postdoctoral researchers have been terminated. Notably, Geng’s work received official backing from state media Xinhua News, and prominent retired Peking University neurobiologist Rao Yi publicly supported Geng, going so far as to argue that China has both the world’s highest total volume of scientific output and the highest proportion of research fraud. Rao Yi described the existing research culture as “rotten to the core,” citing a pervasive culture of cronyism where researchers avoid rocking the boat, exchange favors, and share awards, funding, and promotions among closed networks.

Geng has taken a pragmatic approach, proposing concrete procedural changes to prevent future fraud, most notably mandatory independent replication of key experiments. In response to the scandal, Chinese academic journals have introduced new requirements that all co-authors certify full accountability for research data and verify all raw results. Chinese universities have rolled out mandatory training on data integrity and research reproducibility, and regulatory bodies have increased random data audits for high-profile research projects led by elite researchers.

The roots of the fraud crisis trace back to China’s decades-long “publish or perish” incentive system, which prioritized output volume to drive rapid expansion. While that system worked extraordinarily well to deliver exponential growth in research output, it also created incentives for cutting corners. In recent years, Chinese regulators have already been shifting incentives away from raw paper count metrics toward high-impact outcomes, prioritizing publication in top domestic journals such as *National Science Review* and *Cell Research*, shifting PhD program requirements away from rigid quotas for SCI papers to focus on dissertation quality, originality, and real-world problem solving, and reframing bibliometric metrics around high-impact outcomes like top 1% citations, Nature Index contributions, and commercial patents.

Geng’s estimates suggest roughly one in 10 papers by top distinguished Chinese scholars contains fraudulent data, a figure that aligns with the “thick foam” of low-quality output generated by decades of volume-focused growth. Even so, observers note that the official response to the scandal has been swift and decisive, with visible accountability for wrongdoers that has empowered early-career researchers to question misconduct. A sword of Damocles now hangs over researchers tempted to cut corners, and the long-term impact of the reform process remains to be seen.

### U.S. Research Funding Cuts Threaten Long-Term Leadership

While China addresses growing pains and consolidates its research expansion, the United States is moving in the opposite direction, with deep proposed cuts to federal scientific funding that threaten to erode the long-standing dominance of U.S. research universities. The Trump administration first proposed extreme budget cuts to the National Institutes of Health (NIH) and National Science Foundation (NSF) of 39.3% and 56.9% respectively. While Congress rejected those deep cuts, the administration has used administrative workarounds, including grant freezes and executive actions, to disrupt funding flows. The impact has already been felt at elite institutions: MIT faces an expected $300 million budget shortfall, forcing it to cut graduate student intake by 500, roughly 20% of its usual incoming class, and Harvard has also reported significant reductions to PhD admissions.

After failing to secure the requested deep cuts for 2026, the Trump administration has proposed even more dramatic cuts for the 2027 fiscal year: a 55% cut to the NSF budget, a 23% cut to NASA, a 15% cut to the Department of Energy Office of Science, and a 12% cut to the NIH. To compound the shift, the administration is proposing to give political appointees at the Office of Management and Budget direct decision-making power over federal science funding, a move widely seen as a deliberate effort to punish elite universities that have drawn Trump’s criticism. The Nature Index projects that without course correction, Harvard will fall out of the global top five and MIT will drop below 20th place in the coming years. In the long term, the cuts risk pushing the U.S. to cede its position as the top destination for the world’s brightest research talent, cementing China’s position as the global leader in scientific research.

Even with the ongoing academic fraud reckoning, analysts note that China’s achievement in surpassing the U.S. in the Nature Index in just one generation is an extraordinary accomplishment. While rapid growth created avoidable quality issues, the real-world impact of China’s research expansion is visible across global industry, where China now leads in sectors ranging from electric vehicles to clean energy, and competes head-to-head with the U.S. in artificial intelligence, drug discovery, quantum computing, and nuclear fusion. As the U.S. cuts funding and China reforms its academic system to address fraud while maintaining research growth, the global balance of scientific power is set to shift even further in the coming decades.

Beneath more than 22,000 feet of frigid, pitch-black water in the southeastern Indian Ocean, researchers have made a landmark deep-sea discovery: the largest, deepest, and oldest whale necropolis ever documented, where diverse marine communities have thrived for millions of years feeding on the sunken remains of massive cetaceans.

Whale falls, as these sites are informally called, form naturally when the bodies of dead whales sink to the abyssal sea floor. What would be a grim end for the massive mammals becomes a life-sustaining oasis for deep-sea organisms, which rely on the concentrated energy and unique chemical composition of whale bones to survive in an environment where food is extremely scarce.

Lead researcher Xikun Song, a deep-sea biologist with the Chinese Academy of Sciences’ Institute of Deep-sea Science and Engineering, explained that the size of whale carcasses and the unique chemical makeup of their bones are what allow these complex underwater ecosystems to develop. Song, who participated in the expedition that uncovered the site, also noted that the extreme inaccessibility of the deep ocean makes locating these rare graveyards an extraordinary challenge for marine scientists.

Over the course of multiple research dives conducted by deep-sea submersibles in 2023, the international research team mapped the full extent of the site, collected biological and fossil samples, and documented the scope of the discovery. The team identified five distinct whale carcass sites and fossils, including well-preserved whale skulls from beaked whales and baleen whales. Radiocarbon and geological dating confirmed the oldest of these remains date back more than 5.3 million years, making this the oldest confirmed whale graveyard ever found.

When the team examined the remains, they found a thriving, diverse community of marine organisms calling the whale bones home. Countless species, from brittle stars and jellyfish to tubeworms, sea cucumbers, squat lobsters, and saltwater clams, have made these sunken carcasses their feeding and breeding grounds. According to the team’s findings, published Wednesday in the peer-reviewed journal *Nature*, many of these organisms may represent entirely new species that have never been formally documented by science.

Outside experts not involved in the research say the find reshapes what we know about deep-sea ecosystem development. Stephen Godfrey, a paleontologist at the Calvert Marine Museum in Maryland, called the volume of specimens uncovered at the site “astounding.”

Study authors have outlined multiple factors that allowed the whale bones to remain preserved for millions of years in the deep ocean. The dense structure of large whale bones allows them to withstand degradation from bone-eating worms, while the site’s deep location protects remains from being completely buried by sediment and loose particulate matter. A thin, naturally occurring mineral coating from surrounding seawater also sealed the bones, slowing decomposition significantly over millennia.

The team has also put forward multiple hypotheses to explain why so many whale remains accumulated in this specific location. It is possible the whales were native to the region and died of natural causes, while some may have succumbed to exhaustion or illness related to deep diving. The site’s natural V-shaped geography may also have acted as a natural funnel, guiding sunken whale carcasses to this concentrated resting area over millions of years.

Researchers emphasize that discoveries like this are critical to expanding our understanding of life in Earth’s most extreme environments. Study co-author Giovanni Bianucci, a paleontologist at the University of Pisa in Italy, explained that studying these deep-sea whale graveyards helps scientists unpack how life adapts to extreme conditions: perpetual darkness, extremely low oxygen levels, and crushing water pressure thousands of times greater than what is experienced at the ocean surface.

The Associated Press’ Health and Science Department receives funding support from the Howard Hughes Medical Institute’s Department of Science Education and the Robert Wood Johnson Foundation. AP retains sole editorial responsibility for all content.

NEW YORK — One of the most ambitious particle physics experiments of the decade has delivered its first groundbreaking data, bringing scientists closer to unraveling one of the biggest unsolved mysteries of the universe: the nature of neutrinos, the nearly massless ‘ghost particles’ that permeate every corner of space. On Wednesday, the international collaboration behind China’s Jiangmen Underground Neutrino Observatory (JUNO) published its first major findings in the journal *Nature*, marking a major milestone in global particle physics research.

Located 700 meters (2,297 feet) underground to block out interfering cosmic radiation, the massive spherical JUNO detector began its official data collection phase in August this year. The observatory was built to study neutrinos — ultra-tiny subatomic particles that originated in the Big Bang, travel close to the speed of light, and pass trillions strong through the human body every second without any measurable harm. For decades, neutrinos have baffled researchers: their near-zero mass makes them extremely difficult to detect, despite their ubiquity in the universe.

Instead of directly observing ancient cosmic neutrinos, JUNO focuses on studying antineutrinos — the antimatter counterparts of neutrinos — produced by fission reactions in two nearby operating nuclear power plants. When antineutrinos collide with particles inside the detector, the interaction generates a faint flash of light that researchers can capture and analyze to map the particles’ properties.

From just two months of initial data collection, the JUNO team has already produced some of the most precise measurements ever recorded of a key neutrino behavior: the phenomenon of neutrino oscillation, in which the particles shift between three distinct ‘flavors’ — electron, muon, and tau — as they travel through space. These early measurements confirm that the observatory is functioning at the sensitivity its designers projected, even earlier than many project members expected.

While the initial results have not yet settled the central question that drove the construction of JUNO — determining the exact mass ordering of the three neutrino flavors — researchers say the data proves the detector can deliver on its core promise. Physicists currently know that two of the three flavors have similar masses, while the third differs significantly, but they have not confirmed whether the outlier is lighter or heavier than the other two. Resolving this mass ordering question will reshape fundamental understandings of cosmology and the formation of the early universe.

“The initial results already demonstrate that JUNO will be able to probe the subtle differences that separate the neutrino flavors and their mass hierarchies,” explained Liangjian Wen, study co-author and member of the JUNO international collaboration. Outside physicists not involved in the research also expressed enthusiasm about the milestone. Kate Scholberg, a particle physicist at Duke University, noted that the first data release builds major excitement for future discoveries from the observatory.

JUNO’s findings will eventually be cross-checked by two other cutting-edge neutrino experiments currently under development: Japan’s Hyper-Kamiokande and the United States’ Deep Underground Neutrino Experiment (DUNE). Both facilities are scheduled to begin data collection within the next 10 years, using different experimental approaches to verify JUNO’s conclusions and advance global research into neutrino properties.

This reporting, produced by the Associated Press Health and Science Department, receives support from the Howard Hughes Medical Institute’s Department of Science Education and the Robert Wood Johnson Foundation, with the AP retaining full editorial control over all content.