在Windows中,用户交互的图形界面很丰富,其中状态条不再只是应用程序运行信息的文本输出窗口,它已经得到其他更好的应用。Visual C++ 中提供了CStatusBar和CStatusBarCtrl两个可以实现状态条的MFC类,二者的能力不同, 本文介绍了在Visual...在Windows中,用户交互的图形界面很丰富,其中状态条不再只是应用程序运行信息的文本输出窗口,它已经得到其他更好的应用。Visual C++ 中提供了CStatusBar和CStatusBarCtrl两个可以实现状态条的MFC类,二者的能力不同, 本文介绍了在Visual C++中向状态条中加入进度条和位图的方法。展开更多
The water-in-salt strategy successfully expands the electrochemical window of the aqueous electrolyte from1.23 to~3.0 V,which can lead to a breakthrough in the energy output of the aqueous battery system while maintai...The water-in-salt strategy successfully expands the electrochemical window of the aqueous electrolyte from1.23 to~3.0 V,which can lead to a breakthrough in the energy output of the aqueous battery system while maintaining the advantage of high safety.The expanded electrochemical window of the water-in-salt electrolytes can be ascribed to the decreased water activity and the solid electrolyte interphase formed on the anode.The solid electrolyte interphase in the aqueous system is not fully understood,and the basic composition,the structure,and the formation mechanism are still cloaked in mystery.This perspective summarizes the published research with emphasis on the most possible formation mechanism and composition of the interphase layer in the aqueous system.Further understanding of the interphase as well as rounded assessment of the water-in-salt electrolyte in practical operating conditions is encouraged.The full understanding of the interface will guide the design of aqueous electrolytes and help to build novel aqueous batteries with high safety and high energy density.展开更多
文摘在Windows中,用户交互的图形界面很丰富,其中状态条不再只是应用程序运行信息的文本输出窗口,它已经得到其他更好的应用。Visual C++ 中提供了CStatusBar和CStatusBarCtrl两个可以实现状态条的MFC类,二者的能力不同, 本文介绍了在Visual C++中向状态条中加入进度条和位图的方法。
基金supported by the National Natural Science Foundation of China(22075091 and 21773077)。
文摘The water-in-salt strategy successfully expands the electrochemical window of the aqueous electrolyte from1.23 to~3.0 V,which can lead to a breakthrough in the energy output of the aqueous battery system while maintaining the advantage of high safety.The expanded electrochemical window of the water-in-salt electrolytes can be ascribed to the decreased water activity and the solid electrolyte interphase formed on the anode.The solid electrolyte interphase in the aqueous system is not fully understood,and the basic composition,the structure,and the formation mechanism are still cloaked in mystery.This perspective summarizes the published research with emphasis on the most possible formation mechanism and composition of the interphase layer in the aqueous system.Further understanding of the interphase as well as rounded assessment of the water-in-salt electrolyte in practical operating conditions is encouraged.The full understanding of the interface will guide the design of aqueous electrolytes and help to build novel aqueous batteries with high safety and high energy density.
