An exosceleton for mounting climbing tested at Taishan mountain, Qingdao

http://j.people.com.cn/n3/2025/0207/c517455-20273369.html

https://www.recordchina.co.jp/b948125-s6-c20-d0189.html

During the Chinese New Year holiday, a mountain climbing support robot jointly developed by Taishan Wenlun Group and Shenzhen Kenqi Technology Co. was test-introduced in the Taishan Scenic Area. Guangming reported.

According to Taishan Wenlun Group, the mountain climbing support robot can be used in a wide range of areas in daily life and work, such as mountain climbing, fitness, running, walking, and climbing up and down stairs. It weighs just 1.8 kilograms and is ergonomically designed with power, electronics and artificial intelligence (AI) algorithms. It can sense every movement of the lower limbs and provide support at the right time.

According to the group, it can operate continuously for more than five hours.  The product is currently in the trial operation phase, and the company plans to launch 200 units on the market in early March.

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https://www.nature.com/nature-index/supplements/nature-index-2025-science-cities/tables/overall

https://en.people.cn/n3/2025/1118/c90000-20391615.html

The newly released “Nature Index 2025 Science Cities” supplement shows that the number of Chinese cities in the global top ten rose from five in 2023 to six in 2024, marking the first time China holds a majority in the rankings.

The supplement draws on the Nature Index database, which tracks research articles published from 2015 to 2024. Its analysis uses “Share”, a fractional count reflecting institutional contribution to publications, as the primary metric, with time-series data adjusted to 2024 levels. Each city’s Share is calculated by summing the contributions of all affiliated institutions located within that city.

According to the Nature Index, the world’s leading science cities overall are: Beijing, Shanghai, New York metropolitan area (U.S.), Boston metropolitan area (U.S.), Nanjing (China), Guangzhou (China), San Francisco Bay Area (U.S.), Wuhan (China), Baltimore-Washington metropolitan area (U.S.), and Hangzhou (China).

Further analysis shows that Chinese cities hold a strong advantage in chemistry, physical sciences, and earth and environmental sciences, leading the global rankings in all three fields. Notably, Chinese cities claimed all of the top ten positions in chemistry for the first time. In the other two subject areas, they secured six of the top ten spots, with Beijing ranking first worldwide across all three domains.

European cities in the ranking start at 19 (London), followed by Zurich (28), Cambridge (29), Munich (30) and Berlin (32), following Qingdao at position 31.

Green Carbon is a Quarterly Scientific Open Access Journal published by KeAi and Elsevier https://www.sciencedirect.com/journal/green-carbon

The editorial office is located at the CAS Qingdao Institute of Bioenergy and Environmental Technology, Qingdao, China. The international advisory board has 55 members, including 23 from Europe.

Since September 2093, it has published 108 articles through 9 issues.

Special issue topics included

  • Green biomanufacturing
  • Green chemical catalysis
  • Green photoelectric catalysis
  • C1 conversion
  • Green carbon biomanufacturing

Green Carbon is indexed by CAS, SCOPUS (immediate citescore: 14,9), DOAJ, and under full editorial evaluation for inclusion in the ESCI index.

Until now and probably throughout 2026, Green Carbon operates an APC policy free-of-charge

 Beyond a journal, Green Carbon, through its host institute CAS QIBEBT, has developed into an international academic exchange platform, which has hosted recent conferences on Green Carbon, Phototrophic Prokaryotes, Clostridia and more, see http://english.qibebt.cas.cn

For further information, consult with the Green Carbon website https://www.sciencedirect.com/journal/green-carbon or with the Green Carbon Offices in Germany through https://window-to-china.de/green_carbon/

https://en.people.cn/n3/2025/1031/c90000-20384954.html

https://www.science.org/doi/10.1126/science.aea0774

A group at Peking University has developed technology that almost completely eliminates carbon dioxide by-products during Fischer-Tropsch synthesis (FTS), offering a new route to green syngas conversion and low-carbon chemical manufacturing. FTS converts the syngas of carbon dioxide and hydrogen into liquid fuels or high-value chemicals such as olefins. It serves as the pivotal bridge for turning coal, natural gas, biomass and other carbon resources into fuels and value-added chemicals.

The researchers have used a sodium-modified FeCx@Fe3O4 core-shell catalyst coupling water-gas shift (WGS) with syngas-to-olefins (STO) to convert water into hydrogen in situ. HAE reaches about 66 to 83%, exceeding that of methanol-to-olefins (MTO, 50% upper limit). The approximately 95% carbon monoxide conversion and >75% olefin selectivity were simultaneously obtained. The coupling effect was validated by isotope tracing with deuterium oxide and blocking the WGS pathway, and the contribution of WGS was quantitatively evaluated. These results, using lower hydrogen to carbon monoxide ratios, implied that reducing steam consumption in the WGS reaction and reducing the overall output of carbon dioxide and wastewater enabled a sustainable STO process for potential industrialization.

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