Lábadi Zoltán, Takács Dániel, Zolnai Zsolt, Petrik Péter, Fried Miklós
Institute of Technical Physics & Materials Science, Centre for Energy Research, Konkoly-Thege Rd. 29-33, H-1121 Budapest, Hungary.
Institute of Microelectronics and Technology, Kando Kalman Faculty of Electrical Engineering, Óbuda University, H-1084 Budapest, Hungary.
Materials (Basel). 2024 Feb 22;17(5):1000. doi: 10.3390/ma17051000.
Thin films of mixed MoO and WO were obtained using reactive magnetron sputtering onto ITO-covered glass, and the optimal composition was determined for the best electrochromic (EC) properties. A combinatorial material synthesis approach was applied throughout the deposition experiments, and the samples represented the full composition range of the binary MoO/WO system. The electrochromic characteristics of the mixed oxide films were determined with simultaneous measurement of layer transmittance and applied electric current through the using organic propylene carbonate electrolyte cells in a conventional three-electrode configuration. Coloration efficiency data evaluated from the primary data plotted against the composition displayed a characteristic maximum at around 60% MoO. Our combinatorial approach allows the localization of the maximum at 5% accuracy.
通过反应磁控溅射在覆盖有ITO的玻璃上制备了MoO和WO的混合薄膜,并确定了具有最佳电致变色(EC)性能的最佳组成。在整个沉积实验中采用了组合材料合成方法,样品代表了二元MoO/WO系统的完整组成范围。通过使用传统三电极配置的有机碳酸丙烯酯电解质电池,同时测量层透射率和施加电流,确定了混合氧化物薄膜的电致变色特性。根据针对组成绘制的原始数据评估的着色效率数据在MoO约60%处显示出特征最大值。我们的组合方法能够以5%的精度定位最大值。