Liu Xiaolong, Yue Jiachang, Yu Gui, Liu Zhongfan
The National Laboratory of Biomacromolecules, Institute of Biophysics, Chinese Academy of Sciences, Beijing 100101, People's Republic of China.
J Nanosci Nanotechnol. 2008 Nov;8(11):5753-6. doi: 10.1166/jnn.2008.206.
DPN (Dip-Pen nanolithography) is one kind of widely used technique to create nanoscopic patterns of many different materials. FoF1-ATPase is nano scale rotary molecular motor, and it would be an ideal motor or energy providing device in micro/nano system. In this paper, we used DPN technique to create nanoarrays of F0F1-ATPase within chromatophore on gold surface. The feature size of our F0F1-ATPase patterns was 270 nm in average, and there were no more than 20 F0F1-ATPases in each dot. The activity of patterned F0F1-ATPase was demonstrated by its ATP synthesis, which was indicated by the fluorescence change of labeled F1300. The patterned F0F1-ATPase nanoarrays can be further used as biosensor, or power providing system. And precisely patterning F0F1-ATPase with desired size, position and biological activity will accelerate its application in many basic and application research fields.
浸笔光刻技术(DPN)是一种广泛用于创建多种不同材料纳米图案的技术。F0F1 - ATP合酶是纳米级旋转分子马达,在微纳系统中它将是理想的马达或能量供应装置。在本文中,我们使用浸笔光刻技术在金表面的色素细胞内创建F0F1 - ATP合酶的纳米阵列。我们的F0F1 - ATP合酶图案的特征尺寸平均为270纳米,每个点中F0F1 - ATP合酶不超过20个。图案化的F0F1 - ATP合酶的活性通过其ATP合成得以证明,这由标记的F1300的荧光变化表示。图案化的F0F1 - ATP合酶纳米阵列可进一步用作生物传感器或能量供应系统。精确地以所需的尺寸、位置和生物活性对F0F1 - ATP合酶进行图案化将加速其在许多基础研究和应用研究领域的应用。