首先简要介绍了 CIMS系统的体系结构和 L on Works的技术特点 ,以及在 CIMS系统中采用 L on Works技术所具有的优势。对基于 L on Works的 Host- based节点与 Neuron Chip- hosted节点进行了比较 ,并给出实例展示了该系统由单片机80 C19...首先简要介绍了 CIMS系统的体系结构和 L on Works的技术特点 ,以及在 CIMS系统中采用 L on Works技术所具有的优势。对基于 L on Works的 Host- based节点与 Neuron Chip- hosted节点进行了比较 ,并给出实例展示了该系统由单片机80 C196KB为主处理器 Neuron,芯片 MC14312 0为从处理器 ;两处理器协同工作 ,主处理器采样控制 ,从处理器负责通信。以Host- based节点为基础的 CIMS系统。展开更多
Lithium-sulfur batteries(Li–S batteries) are promising candidates for the next generation high-energy rechargeable Li batteries due to their high theoretical specific capacity(1672 m Ahg-1) and energy density(2500 Wh...Lithium-sulfur batteries(Li–S batteries) are promising candidates for the next generation high-energy rechargeable Li batteries due to their high theoretical specific capacity(1672 m Ahg-1) and energy density(2500 Wh kg-1). The commercialization of Li–S batteries is impeded by several key challenges at cathode side, e.g. the insulating nature of sulfur and discharged products(Li2S 2 and Li2S), the solubility of long-chain polysulfides and volume variation of sulfur cathode upon cycling. Recently, the carbonbased derivatives from metal-organic frameworks(MOFs) has emerged talent in their utilization as cathode hosts for Li–S batteries. They are not only highly conductive and porous to enable the acceleration of Li +/e-transfer and accommodation of volumetric expansion of sulfur cathode during cycling, but also enriched by controllable chemical active sites to enable the adsorption of polysulfides and promotion of their conversion reaction kinetics. In this review, based on the types of MOFs(e.g. ZIF-8, ZIF-67, Prussian blue, Al-MOF, MOF-5, Cu-MOF, Ni-MOF), the synthetic methods, formation process and morphology, structural superiority of MOFs-derived carbon frameworks along with their electrochemical performance as cathode host in Li–S batteries are summarized and discussed.展开更多
文摘首先简要介绍了 CIMS系统的体系结构和 L on Works的技术特点 ,以及在 CIMS系统中采用 L on Works技术所具有的优势。对基于 L on Works的 Host- based节点与 Neuron Chip- hosted节点进行了比较 ,并给出实例展示了该系统由单片机80 C196KB为主处理器 Neuron,芯片 MC14312 0为从处理器 ;两处理器协同工作 ,主处理器采样控制 ,从处理器负责通信。以Host- based节点为基础的 CIMS系统。
基金supported by National Key R&D Program of China(2016YFB0901600)the National Natural Science Foundation of China(51772313 , U1830113 and 51802334)
文摘Lithium-sulfur batteries(Li–S batteries) are promising candidates for the next generation high-energy rechargeable Li batteries due to their high theoretical specific capacity(1672 m Ahg-1) and energy density(2500 Wh kg-1). The commercialization of Li–S batteries is impeded by several key challenges at cathode side, e.g. the insulating nature of sulfur and discharged products(Li2S 2 and Li2S), the solubility of long-chain polysulfides and volume variation of sulfur cathode upon cycling. Recently, the carbonbased derivatives from metal-organic frameworks(MOFs) has emerged talent in their utilization as cathode hosts for Li–S batteries. They are not only highly conductive and porous to enable the acceleration of Li +/e-transfer and accommodation of volumetric expansion of sulfur cathode during cycling, but also enriched by controllable chemical active sites to enable the adsorption of polysulfides and promotion of their conversion reaction kinetics. In this review, based on the types of MOFs(e.g. ZIF-8, ZIF-67, Prussian blue, Al-MOF, MOF-5, Cu-MOF, Ni-MOF), the synthetic methods, formation process and morphology, structural superiority of MOFs-derived carbon frameworks along with their electrochemical performance as cathode host in Li–S batteries are summarized and discussed.
