TY - JOUR
T1 - High-Voltage, High-Current Electrical Switching Discharge Synthesis of ZnO Nanorods
T2 - A New Method toward Rapid and Highly Tunable Synthesis of Oxide Semiconductors in Open Air and Water for Optoelectronic Applications
AU - Sharifi Malvajerdi, Shahab
AU - Abrari, Masoud
AU - Karimi, Vahid
AU - Shafiee, Mojtaba
AU - Ghollamhosseini, Saeb
AU - Taheri Ghahrizjani, Reza
AU - Ahmadi, Morteza
AU - Wang, Danhao
AU - Sun, Haiding
AU - Soltanmohammadi, Mina
AU - Imani, Aref
AU - Ghanaatshoar, Majid
AU - Mohseni, Seyed Majid
AU - Taghavinia, Nima
N1 - Funding Information:
The Iran National Science Foundation (INSF), project No. 98000519, is acknowledged for funding this research.
Publisher Copyright:
© 2021 American Chemical Society
PY - 2021/10/6
Y1 - 2021/10/6
N2 - A novel method of oxide semiconductor nanoparticle synthesis is proposed based on high-voltage, high-current electrical switching discharge (HVHC-ESD). Through a subsecond discharge in the HVHC-ESD method, we successfully synthesized zinc oxide (ZnO) nanorods. Crystallography and optical and electrical analyses approve the high crystal-quality and outstanding optoelectronic characteristics of our synthesized ZnO. The HVHC-ESD method enables the synthesis of ZnO nanorods with ultraviolet (UV) and visible emissions. To demonstrate the effectiveness of our prepared materials, we also fabricated two UV photodetectors based on the ZnO nanorods synthesized using the subsecond HVHC-ESD method. The UV-photodetector test under dark and UV light irradiation also had a promising result with a linear ohmic current-voltage output. In addition to the HVHC-ESD method’s excellent tunability for ZnO properties, this method enables the rapid synthesis of ZnO nanorods in open air and water. The results demonstrate the preparation, highlight the synthesis of fine hexagonal-shaped nanorods under a second with controlled oxygen vacancies, and point defects for a wide range of applications in less than a second.
AB - A novel method of oxide semiconductor nanoparticle synthesis is proposed based on high-voltage, high-current electrical switching discharge (HVHC-ESD). Through a subsecond discharge in the HVHC-ESD method, we successfully synthesized zinc oxide (ZnO) nanorods. Crystallography and optical and electrical analyses approve the high crystal-quality and outstanding optoelectronic characteristics of our synthesized ZnO. The HVHC-ESD method enables the synthesis of ZnO nanorods with ultraviolet (UV) and visible emissions. To demonstrate the effectiveness of our prepared materials, we also fabricated two UV photodetectors based on the ZnO nanorods synthesized using the subsecond HVHC-ESD method. The UV-photodetector test under dark and UV light irradiation also had a promising result with a linear ohmic current-voltage output. In addition to the HVHC-ESD method’s excellent tunability for ZnO properties, this method enables the rapid synthesis of ZnO nanorods in open air and water. The results demonstrate the preparation, highlight the synthesis of fine hexagonal-shaped nanorods under a second with controlled oxygen vacancies, and point defects for a wide range of applications in less than a second.
KW - band gap tuning
KW - electrical discharge
KW - high-current
KW - high-voltage
KW - nanorods
KW - oxide semiconductor
KW - UV photodetector
KW - ZnO
U2 - 10.1021/acsami.1c08207
DO - 10.1021/acsami.1c08207
M3 - Journal article
C2 - 34547200
AN - SCOPUS:85116590966
SN - 1944-8244
VL - 13
SP - 46951
EP - 46966
JO - ACS Applied Materials & Interfaces
JF - ACS Applied Materials & Interfaces
IS - 39
ER -