Early detection of lung cancer has significant potential for improving the survival expectancy of patients. Low-dose CT (LDCT) screening has been widely used in the early detection of lung cancer. However, due to the high sensitivity of LDCT screening, a lot of non-tumorous pulmonary nodules are also detected. Some pulmonary nodules are difficult to distinguish benign and malignant nature by CT imaging, especially for the ground-glass nodules that are approximately 1 cm in diameter. Therefore, there is an unmet need for new non-invasive diagnostic options with high sensitivity and specificity to distinguish malignant tumors from benign pulmonary nodules.
HFIPS researchers developed a smart functional robot that can realize simultaneous disinfection of both air and object surface, which enables the robot applicable in many medical environment, like Intensive Care Medicine (ICU), Disinfection Supply Center and Static Delivery Center, etc,. The key credits for disinfection go to GHP and UVC which work together for high effective and simultaneous disinfection of air and microorganism on object surface.
Using the SM1 superconducting magnet, a large scientific device with a steady-state high magnetic field, scientists carried out research on special functional materials and found that high magnetic fields can effectively regulate the rate, reaction path and reaction products of chemical reactions. The results were published in the Journal of Physical Chemistry Letters recently.
Recently, a research team led by Prof. YANG Zhaorong from High Magnetic Field Laboratory, Hefei Institutes of Physical Science (HFIPS), in collaboration with researchers from Anhui University and other institutions, discovered pressure-induced two-dome superconductivity in the quasi-two-dimensional topological kagome superconductor CsV3Sb5. This work was published in Physical Review B, and selected as Editors’ Suggestion.
Recently, Professor Wang Junfeng from High Magnetic Field Laboratory, Hefei Institutes of Physical Science (HFIPS), the Chinese Academy of Sciences (CAS) collaborated with Professor ZHANG Teng from Fuzhou University, constructed nano-scale borate bioactive glass (Nano-HCA@BG) with the help of a steady-state strong magnetic field experimental device, which can effectively reduce the biological toxicity of borate bioglass, improves the biocompatibility of the glass, and significantly promotes the effect of borate bioglass on skin repair. The related research were published in the Chemical Engineer Journal.