在环境条件下使用液体电迁移的纳米尺度图案

S. Talukder, Praveen Kumar, R. Pratap
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引用次数: 0

摘要

电场可以诱导液体物质的长距离流动。这种现象被称为液体电迁移。在特殊情况下,镀在绝缘衬底上的铬薄膜,在两个点电极之间施加高电场导致液化和随后的液化物质以径向对称的方式从阴极流出。这种电场驱动的物质输运现象已被用于一种新的图像化技术,称为电光刻。负偏压扫描探头用于根据所需图案蚀刻薄Cr膜。然后使用金属薄膜下面的聚合物层将图案转移到新材料上。电光刻不需要任何紫外线或电子束源,可以在环境条件下进行。我们已经在聚合物上实现了9纳米的图案分辨率,在将图案转移到其他材料上实现了40纳米的图案分辨率。在这项工作中,在电光刻技术的帮助下,我们使用矢量扫描技术绘制了大面积的图案。这大大提高了流程的吞吐量。
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Nanoscale patterning in ambient conditions using liquid electromigration
Electric field can induce long range flow in liquid materials. This phenomenon is known as liquid electromigration. In particular case of Cr thin film deposited on an insulating substrate, application of high electric-field between two point electrodes results in liquefaction and subsequent flow of the liquefied material in a radially symmetric fashion away from the cathode. This electric field driven material transport phenomenon has been used for a new patterning technique, named electrolithography. A negatively biased scanning probe is used to etch a thin Cr film according to a desired pattern. Then the pattern is transferred to new materials using a polymer layer below the metal film. Electrolithography does not need any UV or e-beam source, and can be performed in ambient condition. We have achieved pattern resolutions of 9 nm on the polymer and 40 nm on transferring the pattern to other materials. In this work, with the help of electrolithography, we have patterned large areas using vector scan technique. This improves throughput of the process by a significant order.
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