TY - JOUR
T1 - Ultra-high resolution position sensors with self-assembled nanowire arrays
AU - Chen, Runze
AU - Liu, Chuan
AU - Asare-Yeboah, Kyeiwaa
AU - Zhang, Ziyang
AU - He, Zhengran
AU - Liu, Yun
N1 - Publisher Copyright:
© The Royal Society of Chemistry.
PY - 2020/8/7
Y1 - 2020/8/7
N2 - High-resolution position sensing technology is critically important for electronics and military applications. In this study, we report that the pixel shrinking of the position detecting device can be facilely realized by increasing its pixel height with the photoelectric property tuning of half-dimensional (0.5D) zinc oxide (ZnO) nanowires. Based on this principle, we have successfully demonstrated a precise spotlight position tracking sensor (PTS) by integrating self-assembled, 0.5D ZnO nanowire arrays as nanopixels for the first time. With vertically-aligned 0.5D ZnO nanowires sandwiched between two parallel electrodes, the integrated PTS device demonstrates an ultra-high resolution of 200 nm, which breaks the resolution limitation of the existing thin-film based counterparts. In addition, the sensor showcases various merits such as fabrication simplicity and low power consumption. Our pioneering research sheds light on replacing microelectronics with nanoelectronics by using a bottom-up device fabrication approach.
AB - High-resolution position sensing technology is critically important for electronics and military applications. In this study, we report that the pixel shrinking of the position detecting device can be facilely realized by increasing its pixel height with the photoelectric property tuning of half-dimensional (0.5D) zinc oxide (ZnO) nanowires. Based on this principle, we have successfully demonstrated a precise spotlight position tracking sensor (PTS) by integrating self-assembled, 0.5D ZnO nanowire arrays as nanopixels for the first time. With vertically-aligned 0.5D ZnO nanowires sandwiched between two parallel electrodes, the integrated PTS device demonstrates an ultra-high resolution of 200 nm, which breaks the resolution limitation of the existing thin-film based counterparts. In addition, the sensor showcases various merits such as fabrication simplicity and low power consumption. Our pioneering research sheds light on replacing microelectronics with nanoelectronics by using a bottom-up device fabrication approach.
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U2 - 10.1039/d0tc02280b
DO - 10.1039/d0tc02280b
M3 - Article
AN - SCOPUS:85089470145
SN - 2050-7534
VL - 8
SP - 9954
EP - 9959
JO - Journal of Materials Chemistry C
JF - Journal of Materials Chemistry C
IS - 29
ER -