Sodium-ion batteries (SIBs) have attracted great interest as a promising substitute for lithium ion batteries (LIBs) owing to the earth-abundant and cheap sodium resource.[1] Unfortunately, current SIBs usually exhibit slower reaction kinetics, low specific capacity and poor cycle life due to the larger ionic radius of Na+ than that of Li+.[2] Hence, many efforts have been made to explore novel electrode materials with higher discharge/charge capacities. Among various candidates, molybdenum disulfide (MoS2) has been regarded as a promising sodium storage material due to its sandwich-like layered structure and high theoretic capacity (670 mAh g-1).[3] Nevertheless, the relatively low electronic conductivity and serious inherent volume change of MoS2 during sodiation/desodiation lead to low specific capacity and poor cycling stability, which restrict its potential practical application. [4] To solve these challenging problems, we demonstrate a simple glucose carbonization process for preparing foam-like porous carbon sheets-encapsulated MoS2/C nanospheres (MoS2/C⊂pCS) composite. The synergistic effects between the carbon coated MoS2 nanospheres and supporting porous carbon sheets, can not only facilitate the diffusion of Na+ and electrolyte into the electrodes, but also minimize the influence of pulverization and aggregation of MoS2 nanospheres upon prolonged discharge/charge cycling.  As expected, the MoS2/C⊂pCS composite shows high reversible capacity and fast rate capability, as well as long cycle life as an anode material. Such excellent performance demonstrates of the MoS2/C⊂pCS composite make it a promising anode material for advanced SIBs. 

　　银电子浆料由于电阻率低、价格低廉而广泛应用于太阳能正银浆料中[1-2]，太阳能正银浆料由银粉、玻璃粉、有机相三部分组成，其中银粉含量超过80%，对太阳能正面浆料导电性具有重要影响。太阳能正银浆料中，银粉的形状、分散性、粒径大小及分布、振实密度等都会对太阳能电池的电学性能有显著影响[3]。石墨烯优异的导热性能和减摩抗磨性能以及化学惰性，使其非常适合作为高性能、环保的润滑添加剂[4]。基于上述因素，本文通过化学还原法制备了不同粒径石墨烯掺杂高分散球形银粉，进行了石墨烯掺杂银粉银浆料对太阳能转化效率的研究。结果表明石墨烯掺杂极大的提高了银粉的分散性，石墨烯掺杂银浆料具有合适的粘度（270–370 pas）、高触变指数（6.50）、高的高宽比，并且晶硅太阳能电池的光电转化效率达到了18.68%。

Sodium-ion batteries (SIBs) have attracted great interest as a promising substitute for lithium ion batteries (LIBs) owing to the earth-abundant and cheap sodium resource.[1] Unfortunately, current SIBs usually exhibit slower reaction kinetics, low specific capacity and poor cycle life due to the larger ionic radius of Na+ than that of Li+.[2] Hence, many efforts have been made to explore novel electrode materials with higher discharge/charge capacities. Among various candidates, molybdenum disulfide (MoS2) has been regarded as a promising sodium storage material due to its sandwich-like layered structure and high theoretic capacity (670 mAh g-1).[3] Nevertheless, the relatively low electronic conductivity and serious inherent volume change of MoS2 during sodiation/desodiation lead to low specific capacity and poor cycling stability, which restrict its potential practical application. [4] To solve these challenging problems, we demonstrate a simple glucose carbonization process for preparing foam-like porous carbon sheets-encapsulated MoS2/C nanospheres (MoS2/C⊂pCS) composite. The synergistic effects between the carbon coated MoS2 nanospheres and supporting porous carbon sheets, can not only facilitate the diffusion of Na+ and electrolyte into the electrodes, but also minimize the influence of pulverization and aggregation of MoS2 nanospheres upon prolonged discharge/charge cycling.  As expected, the MoS2/C⊂pCS composite shows high reversible capacity and fast rate capability, as well as long cycle life as an anode material. Such excellent performance demonstrates of the MoS2/C⊂pCS composite make it a promising anode material for advanced SIBs. 

　　银电子浆料由于电阻率低、价格低廉而广泛应用于太阳能正银浆料中[1-2]，太阳能正银浆料由银粉、玻璃粉、有机相三部分组成，其中银粉含量超过80%，对太阳能正面浆料导电性具有重要影响。太阳能正银浆料中，银粉的形状、分散性、粒径大小及分布、振实密度等都会对太阳能电池的电学性能有显著影响[3]。石墨烯优异的导热性能和减摩抗磨性能以及化学惰性，使其非常适合作为高性能、环保的润滑添加剂[4]。基于上述因素，本文通过化学还原法制备了不同粒径石墨烯掺杂高分散球形银粉，进行了石墨烯掺杂银粉银浆料对太阳能转化效率的研究。结果表明石墨烯掺杂极大的提高了银粉的分散性，石墨烯掺杂银浆料具有合适的粘度（270–370 pas）、高触变指数（6.50）、高的高宽比，并且晶硅太阳能电池的光电转化效率达到了18.68%。