由上海铼恩氢能科技有限公司研发的纳米碳镁基固态氢存储材料,是一种在低压(储氢压力为0.3~0.7 MPa)、常温下储存固态氢的材料,具有安全性高、高容量优势。该产品为可逆固态储氢纳米碳镁基金属复合材料,应用超微颗粒制造技术,基于金属...由上海铼恩氢能科技有限公司研发的纳米碳镁基固态氢存储材料,是一种在低压(储氢压力为0.3~0.7 MPa)、常温下储存固态氢的材料,具有安全性高、高容量优势。该产品为可逆固态储氢纳米碳镁基金属复合材料,应用超微颗粒制造技术,基于金属材料粒子与氢粒子的电子交互跃迁原理,使氢分子成为固态氢粒子,大幅缩小氢分子的体积,储氢体积密度达到116 kg H_(2)/m^(3)(水容积)。展开更多
An access to an increase in the information storage capacity is to reduce memory units to a nano-scale. There fore, we used carboxylized phenyl-capped polyaniline tetramer (PCAT) as the functional component and silica...An access to an increase in the information storage capacity is to reduce memory units to a nano-scale. There fore, we used carboxylized phenyl-capped polyaniline tetramer (PCAT) as the functional component and silica as the carrier to prepare PCAT/silica composite nano-particles (= 60 nm) with a structure of core-shell. The functionalized particles were two-dimensionally arrayed on substrates such as silicon, glass and ITO glass at pH 3.SEM and AFM results proved the arraying regularity of these particles under any given conditions, and the electrostatic force microscopy showed their response to +3 V bias applied.展开更多
文摘由上海铼恩氢能科技有限公司研发的纳米碳镁基固态氢存储材料,是一种在低压(储氢压力为0.3~0.7 MPa)、常温下储存固态氢的材料,具有安全性高、高容量优势。该产品为可逆固态储氢纳米碳镁基金属复合材料,应用超微颗粒制造技术,基于金属材料粒子与氢粒子的电子交互跃迁原理,使氢分子成为固态氢粒子,大幅缩小氢分子的体积,储氢体积密度达到116 kg H_(2)/m^(3)(水容积)。
文摘An access to an increase in the information storage capacity is to reduce memory units to a nano-scale. There fore, we used carboxylized phenyl-capped polyaniline tetramer (PCAT) as the functional component and silica as the carrier to prepare PCAT/silica composite nano-particles (= 60 nm) with a structure of core-shell. The functionalized particles were two-dimensionally arrayed on substrates such as silicon, glass and ITO glass at pH 3.SEM and AFM results proved the arraying regularity of these particles under any given conditions, and the electrostatic force microscopy showed their response to +3 V bias applied.
