China has activated the world’s most advanced hypergravity machine, the Centrifugal Hypergravity and Interdisciplinary Experiment Facility (CHIEF), located in Hangzhou. This groundbreaking facility can produce forces up to 1,900 times stronger than Earth's gravity, revolutionizing research in extreme conditions. CHIEF will enable studies in deep-sea exploration and address challenges in engineering and geology. #science #innovation #gravity #china #technology
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#China commissioned on Thursday an advanced, multifunctional research #ship, which is expected to enhance the country's #oceanic and #polar survey capabilities. Tansuo 3, or Exploration 3, was delivered to its user, the Institute of Deep-sea Science and Engineering based in Sanya, Hainan province. The institute is a subsidiary of the Chinese Academy of Sciences. https://lnkd.in/gJkUf7rj
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China has officially activated the Centrifugal Hypergravity and Interdisciplinary Experiment Facility (CHIEF), the world's most advanced hypergravity research facility, located in Hangzhou. This groundbreaking facility is capable of generating forces up to 1,900 times stronger than Earth's gravity, setting a new benchmark in scientific exploration. CHIEF will serve as a versatile platform for addressing complex engineering challenges and advancing research in fields such as geological processes, material science, and deep-sea energy exploration. With its state-of-the-art hypergravity centrifuges and specialized experiment chambers, CHIEF is aimed to revolutionize our understanding of extreme physical conditions and their applications. This monumental achievement underscores China's commitment to leading in scientific innovation and technological advancement. Follow Trending Script for more SciTech updates! #Hypergravity #ScienceInnovation #CHIEF #CentrifugalHypergravityandInterdisciplinaryExperimentFacility #Engineering #Research #China #SpaceExploration #MaterialScience #DeepSeaResearch
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📣 CSC2025 Speaker Introduction 📣 Barbara Sherwood Lollar is a University Professor, Director of the Stable Isotope Lab and Dr. Norman Keevil Chair of Ore Deposits Geology in the department of Earth Sciences at the University of Toronto. Sherwood Lollar’s award-winning research on the intersection between the carbon cycle and water cycle includes investigations of water-rock reactions producing methane, hydrogen and noble gases in the continental subsurface and of compound-specific stable isotopes of carbon, hydrogen, oxygen and sulfur as an innovative means to monitor and improve remediation of groundwater contamination. Her work has changed our understanding of the depth, volume and chemistry of the Earth’s subsurface hydrogeosphere. Her discoveries also have had an important impact on understanding the geochemical basis of Earth’s microbial biosphere, with implications for planetary science and solar system exploration. She has published over 200 peer-reviewed papers in geochemistry, Earth and planetary sciences and supervised over 100 students, postdoctoral fellows and research associates around the world. She is co-director of Earth 4D: Subsurface Science and Exploration, an international and interdisciplinary research program funded by the Canadian Institute for Advanced Research. She is an international member of the U.S. National Academy of Sciences, the U.S. National Academy of Engineering, the American Geophysical Union and the Royal Society of London, among others. She is the recipient of the Clare Patterson Prize in Environmental Geochemistry from the Geochemical Society, the 2012 Eni Prize in Protection of the Environment and, 2023 American Geophysical Union Carl Sagan Lecturer, and most recently, awarded the 2024 Nemmers Prize in Earth Sciences.
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China has officially activated the Centrifugal Hypergravity and Interdisciplinary Experiment Facility (CHIEF), the world's most advanced hypergravity research facility, located in Hangzhou. This groundbreaking facility is capable of generating forces up to 1,900 times stronger than Earth's gravity, setting a new benchmark in scientific exploration. CHIEF will serve as a versatile platform for addressing complex engineering challenges and advancing research in fields such as geological processes, material science, and deep-sea energy exploration. With its state-of-the-art hypergravity centrifuges and specialized experiment chambers, CHIEF is aimed to revolutionize our understanding of extreme physical conditions and their applications. This monumental achievement underscores China's commitment to leading in scientific innovation and technological advancement. Follow Trending Script for more SciTech updates! #Hypergravity #ScienceInnovation #CHIEF #CentrifugalHypergravityandInterdisciplinaryExperimentFacility #Engineering #Research #China #SpaceExploration #MaterialScience #DeepSeaResearch
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Wonders never cease
FOLLOW Engineering👷🏻♀️Geology 🌋Science⚛️ Geotechnical Engineering Consultant of Critical Infrastructure
🚀⚛️ Impressive cool Dragon Eye Tide footage on the Qiantang River in China, which is a powerful tidal bore caused by the funnel-shaped estuary of the river. As the incoming tide from the East China Sea enters the narrowing river channel, it creates an array of tubular waves that resembling a dragon eye. This phenomenon is amplified when tidal forces are at their peak #science #engineering #technology #ai #creativity #construction #infrastructure ⏩ Felipe Ochoa Cornejo 👨🏻🏫🇨🇱 for more science, engineering, geology, and technology Tanvir Hussain Florian Palatini Giuseppe Masanotti 🎥 Please DM for credit
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Recent research has unveiled a new gold-sulfur complex, enhancing our understanding of gold deposit formation. Utilizing numerical modeling, scientists have identified the conditions under which gold is enriched in magmas rising from the Earth's mantle. The study highlights the role of a gold-trisulfur complex, which forms under specific pressures and temperatures in subduction zones, where continental plates converge. This discovery provides a plausible explanation for high gold concentrations in certain mineral systems, offering valuable insights for future exploration. The findings are detailed in the Proceedings of the National Academy of Sciences, contributing significantly to the field of Earth sciences.
Thermodynamic model identifies how gold reaches Earth's surface
phys.org
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🌐 Exciting Opportunity for Arctic Research!🌐 The National Centre for Polar and Ocean Research ( NCPOR) invites proposals for scientific research in the Arctic for the period April 2025 to March 2026. This fully funded initiative, organized by Ministry of Earth Sciences , Government of India offers unique access to the Himadri research base in Ny-Ålesund, Svalbard. 📅 Important Dates - Proposal Submission Deadline: 25 November 2024 - Results Announcement: 5 January 2025 - Proposal Defense and Selection Meeting: Last week of January 2025 Research Themes 1. Atmospheric Sciences – Trace gases, aerosols, and climate studies. 2. Space Science and Astrophysics – Astronomy and upper atmosphere studies. 3. Marine Sciences– Biogeochemistry, fjord dynamics, and ocean-atmosphere interactions. 4. Environmental Sciences– Pollutant sources, microplastics, and emerging contaminants. 5. Geosciences – Past climate and structural geology. 6. Cryospheric Studies – Glacier dynamics, snow chemistry, and remote sensing. 7. Biological Sciences– Marine biodiversity, nutrient fluxes, and permafrost studies. 📢 Multi-institutional collaborations and interdisciplinary research projects are encouraged. For further details and to submit your proposal, visit: https://lnkd.in/gdn6CSqD Contact: http://www.ncpor.res.in Repost and follow AFTHAB RAZUL S #ArcticResearch #ScientificResearch #NCPOR #MarineBiology #EnvironmentalScience #ClimateChange #IndiaInTheArctic #PolarResearch
NATIONAL CENTRE FOR POLAR AND OCEAN RESEARCH Ministry of Earth Sciences, Government of India
ncpor.res.in
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I am pleased to share with you all that, I and my coauthors, Dr. M. Santosh, (School of Earth Sciences and Resources, China University of Geosciences, Beijing, China), Dr. M. Satyanarayanan (CSIR-National Geophysical Research Institute, Hyderabad), Prof. N. Srinivas (Department of Environmental Studies, GITAM University, Visakhapatnam), and Prof. Harish Gupta (Department of Civil Engineering, Osmania University, Hyderabad) have published a review paper in Geoscience Frontiers (Elsevier, IF: 8.9) recently on a vital subject – “Lithium: A review of applications, occurrence, exploration, extraction, recycling, analysis, and environmental impact“ Our article is an Open Access publication and can be downloaded using the following link: https://lnkd.in/gr2EceNX One of the Reviewers made very positive comments like the following during its review and revision time – The manuscript comprehensively reviews lithium, a critical metal resource of increasing importance in contemporary society. As the evaluation and exploration of lithium become increasingly crucial, this article provides an extensive overview of its properties, exploration methods, recycling techniques, and environmental impacts. By reading and gathering so much cutting-edge literature, the article serves as a guiding reference, akin to a dictionary, for future researchers. It represents a solid and comprehensive piece of work. The manuscript could be accepted after minor revisions. Prof. George J. Simandl, Critical Materials and Industrial Minerals Specialist, University of Victoria, Canada described this publication as an “Excellent Idea”
Lithium: A review of applications, occurrence, exploration, extraction, recycling, analysis, and environmental impact
sciencedirect.com
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🗻 Back after six weeks on the top of the world! 🤩🔝 Within the #NamCore project, an international research team drilled from a platform on Lake Nam Co down to a depth of over 500 meters into the Nam Co Basin, Tibetan Plateau. LIAG scientists successfully conducted the borehole measurements. We are very happy about the large, high-resolution data set that we collected! ✅ 🌏 The measurements are pivotal to understand the geological history and climate dynamics of this high-altitude region, which has implications for climate change research globally. 📈 To define parameters for future #climatechange scenarios (IPCC) and their consequences for ecosystems, it's necessary to improve our knowledge of timing, duration, and intensity of past climatic variability and its environmental impact, not only on short but also on long geological time scales. 💧 Considering that almost one third of the world's population depends on water supply from the Tibetan Plateau, the future development of the monsoon on the Tibetan Plateau would have a major societal impact. Many thanks to our partners, without whom this would not have been possible: Universität Greifswald (PI), Institute of Tibetan Plateau Research, Chinese Academy of Sciences (PI), University of Jena, University of Bremen, University of Geneva, University of Stockholm, The Manchester Metropolitan University, University of Newcastle, University of Strasbourg, University of Bern, University of Haifa ...and many more. Special thanks to the ICDP - International Continental Scientific Drilling Program for funding the project. Learn more about the NamCore project: 🔹 #ICDP with daily news: https://lnkd.in/g2b4krca 🔹 LIAG project website: https://lnkd.in/gvJtQRwq #Geophysics #ClimateChange #Research #Science #LIAG #Collaboration #drilling #Geophysik #Geoscience #Measurements
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🎇 [Latest article]New method for landslide susceptibility evaluation in alpine valley regions that considers the suitability of InSAR monitoring and introduces deformation rate grading By Zhou, Dingyi, Zhifang Zhao, Wenfei Xi, Xin Zhao, and Jiangqin Chao. https://lnkd.in/gMDn3H3S This study presented a novel approach for #landslide susceptibility assessment in alpine valley regions , which incorporates Interferometric Synthetic Aperture Radar (#InSAR) data and introduces a grading system based on deformation rates, significantly improving the accuracy and efficiency of susceptibility evaluation. The study demonstrates that the proposed method, which includes a Particle Swarm Optimization-Back Propagation (PSO-BP) algorithm and high-resolution image integration, enhances grading accuracy by 37.84% to 60.91% and provides a reliable and effective model for evaluating landslide susceptibility in regions like the Dongchuan district in southwest China .
New method for landslide susceptibility evaluation in alpine valley regions that considers the suitability of InSAR monitoring and introduces deformation rate grading
tandfonline.com
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