1. 太原理工大学信息学院微纳系统研究中心
2. 清华大学精密仪器系微机电系统实验室
纸质出版:2014
移动端阅览
[1]冀健龙,桑胜波,李朋伟,张文栋,周兆英,杨兴.交流电沉积实现微纳器件定向连接研究[J].传感器与微系统,2014,33(03):5-7+11.
JI Jian-long, SANG Sheng-bo, LI Peng-wei, et al. Research on oriented connection MEMS/NEMS device implemented by AC electrodeposition[J]. 2014, 33(3): 5-7+11.
[1]冀健龙,桑胜波,李朋伟,张文栋,周兆英,杨兴.交流电沉积实现微纳器件定向连接研究[J].传感器与微系统,2014,33(03):5-7+11. DOI: 10.13873/j.1000-97872014.03.004.
JI Jian-long, SANG Sheng-bo, LI Peng-wei, et al. Research on oriented connection MEMS/NEMS device implemented by AC electrodeposition[J]. 2014, 33(3): 5-7+11. DOI: 10.13873/j.1000-97872014.03.004.
使用交流电化学方法定向制备了预制微电极之间的电连接。通过调节交流电压与偏置直流电压幅值可以控制电连接的生长方向。如果施加的交流电压幅值高于生成电连接的电压阈值
并且该值恒定时
频率越小
浓度越大
电连接晶体越粗壮;而当电解液浓度与频率恒定时
电压幅值变化对形貌影响较小。有限元仿真模拟进一步说明:当施加的交流电压高于阈值时
电极处于交流电渗流上游。电极扩散层厚度增加将诱导电极之间电连接晶体的生长。在交流电压上叠加直流偏置电压时
电连接晶体从偏置电压相对较负的一端向另一端生长。伏安特性测试结果表明:该连接具有优异的接触特性。
Electric connections between prepared microelectrodes are fabricated directionally utilizing the AC electrochemical method.Growth directions of electric connection can be controlled through tuning amplitude of AC and biased DC voltage.The observations illustrated that if amplitude of AC frequency and higher electrolyte concentration gave rise to thicker and denser dendrite crystals when the applied AC voltage magnitude is higher than the threshold for interconnect formation.It is also demonstrated that the amplitude variation of AC signal exerts smaller effect on interconnect morphologies when electrolyte concentrations and AC frequencies are kept constant.Finite element simulation further illustrates that the electrodes locate at the upper flow of AC electroosmosis when the AC voltage is higher than the threshold
and increases of thickness of diffusion layer near the electrode induces the growth of electric connection crystals between the electrodes.When the AC voltage is DC biased
the interconnect crystals are lean to grow from the relative negative electrode to the other.Results of volt- ampere characteristics test shows that this connection has excellent contact performance.
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