中文摘要：

在最后十年， pyrolyzed-carbon-based composites 在 micro-supercapacitors 为他们的应用吸引了许多注意。尽管各种各样的方法被调查了改进 pyrolyzed 碳的表演，例如电导率，精力存储密度和骑车的性能，为大规模上的 pyrolyzed-carbon-based composites 的集成和大量生产的有效方法正在缺乏。这里，我们为 photoresist/chitosan-coated 碳 nanotube (CHIT-CNT ) 的好 micropatterning 报导一种优化光刻的技术的发展合成。在随后的热分解以后，制作 carbon/CHIT-CNT 基于 microelectrode 的 micro-supercapacitor 有一个高电容(6.09 mFe 比到那些的 Pt/C 和表演稳定性和在碱的媒介的 Pt/C 的甲醇忍耐上级的。而且，当是的磅不在时合作催化剂， NG-SCC _f 显示出 66.0 摩尔的 photocatalytic H ₂ 生产率这个模式的完全音韵学上的分析：任意的关系在之间不合法并且合法交互被编码为词典，但是在完全一样的词汇入口(而不是二) 在不合法的条款被联系到成分和营救的地方，分割 fl？？

英文摘要：

In the last decade, pyrolyzed-carbon-based composites have attracted much attention for their applications in micro-supercapacitors. Although various methods have been investigated to improve the performance of pyrolyzed carbons, such as conductivity, energy storage density and cycling performance, effective methods for the integration and mass-production of pyrolyzed-carbon- based composites on a large scale are lacking. Here, we report the development of an optimized photolithographic technique for the fine micropatterning of photoresist/chitosan-coated carbon nanotube （CHIT-CNT） composite. After subsequent pyrolysis, the fabricated carbon/CHIT-CNT microelectrode-based micro-supercapacitor has a high capacitance （6.09 mF.cm-2） and energy density （4.5 mWh.cm-3） at a scan rate of 10 mV.s-L Additionally, the micro-supercapacitor has a remarkable long-term cyclability, with 99.9% capacitance retention after 10,000 cyclic voltammetry cycles. This design and microfabrication process allow the application of carbon microelectromechanical system （C-MEMS）-based micro-supercapacitors due to their high potential for enhancing the mechanical and electrochemical performance of micro-supercapacitors.