https://www.selleckchem.com/products/hsp27-inhibitor-j2.html KGaA, Weinheim.Lithium-chalcogen batteries are an appealing choice for high-energy-storage technology. However, the traditional battery that employs liquid electrolytes suffers irreversible loss and shuttle of the soluble intermediates. New batteries that adopt Li+ -conductive polymer electrolytes to mitigate the shuttle problem are hindered by incomplete discharge of sulfur/selenium. To address the trade-off between energy and cycle life, a new electrolyte is proposed that reconciles the merits of liquid and polymer electrolytes while resolving each of their inferiorities. An in situ interfacial polymerization strategy is developed to create a liquid/polymer hybrid electrolyte between a LiPF6 -coated separator and the cathode. A polymer-gel electrolyte in situ formed on the separator shows high Li+ transfer number to serve as a chemical barrier against the shuttle effect. Between the gel electrolyte and the cathode surface is a thin gradient solidification layer that enables transformation from gel to liquid so that the liquid electrolyte is maintained inside the cathode for rapid Li+ transport and high utilization of active materials. By addressing the dilemma between the shuttle chemistry and incomplete discharge of S/Se, the new electrolyte configuration demonstrates its feasibility to trigger higher capacity retention of the cathodes. As a result, Li-S and Li-Se cells with high energy and long cycle lives are realized, showing promise for practical use. © 2020 WILEY-VCH Verlag GmbH & Co. KGaA, Weinheim.BACKGROUND To determine whether discontinuing the Undergraduate Medicine and Health Sciences Admissions Test (UMAT) in 2011 for selection and changes to the South Australian Certificate of Education (SACE) requirements in 2012 when the new Australian Tertiary Admissions Rank (ATAR) was introduced, impacted on students' accumulative level of achievement and performance in the Bachelor of Oral Health (BOH