Purifying radioactive soil with sunlight alone... DGIST successfully developed “artificial plant” technology
Peer-Reviewed Publication
Updates every hour. Last Updated: 7-Oct-2025 20:11 ET (8-Oct-2025 00:11 GMT/UTC)
- A research team led by Professor Seongkyun Kim of the Department of Physics and Chemistry, DGIST, developed an artificial plant device that simulates plant transpiration
- Purified more than 95% of soil contaminated by radioactive cesium within 20 days using solar energy aloneExternal quality assessment (EQA) is a cornerstone of laboratory quality management, ensuring the accuracy, comparability, and reliability of test results across institutions. In the Republic of Korea, the Korean Association of External Quality Assessment Service (KAEQAS) has played a leading role since its inception in 1976, expanding from a small-scale clinical chemistry program to over 90 nationwide schemes across all disciplines. This article reviews the historical evolution, operational framework, and scope of KAEQAS, highlighting its contribution to standardization and accreditation. Current challenges include nonmandatory participation, persistent standardization gaps, the need for more category 1 accuracy-based programs, modernization of data analysis and reporting systems, and the establishment of a specimen bank. Future prospects emphasize policy reform, global harmonization, and technological innovation, positioning KAEQAS to further strengthen laboratory quality both nationally and internationally.
This review elucidates the central role of metabolic reprogramming in renal fibrosis associated with IgG4-related disease (IgG4-RD), highlighting key pathways such as mitochondrial dysfunction, enhanced glycolysis, and impaired fatty acid oxidation. The study emphasizes the potential of targeting metabolic nodes for antifibrotic therapy and discusses the promise of metabolomics in precision medicine.
A research team led by Prof. TAN Peng from the University of Science and Technology of China (USTC) of the Chinese Academy of Sciences has revealed the temperature regulation mechanism of lithium-mars gas batteries (LMGBs), providing a theoretical foundation for the design of next-generation deep space exploration energy batteries. The study was published in Advanced Functional Materials.