Manufacturing Methods and Research Progress of High Voltage Micro-supercapacitors

In the high voltage applications of microelectronics and micro-mechanics, such as micro robots, soft actuators, skin electronics, micro sensors, integrated electronic circuits and so on, energy storage/supply devices with high output voltage are urgently needed. In recent years, high voltage micro-s...

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Veröffentlicht in:Ji xie gong cheng xue bao 2021, Vol.57 (22), p.305
Hauptverfasser: Tang, Yong, Bai, Shigen, Wu, Yaopeng, Yuan, Wei, Wan, Zhenping, Xie, Yingxi
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container_start_page 305
container_title Ji xie gong cheng xue bao
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creator Tang, Yong
Bai, Shigen
Wu, Yaopeng
Yuan, Wei
Wan, Zhenping
Xie, Yingxi
description In the high voltage applications of microelectronics and micro-mechanics, such as micro robots, soft actuators, skin electronics, micro sensors, integrated electronic circuits and so on, energy storage/supply devices with high output voltage are urgently needed. In recent years, high voltage micro-supercapacitors(HVMSCs), acting as power supply devices and due to their advantages of miniaturization, portability, flexibility, high cycle life span and high specific power/energy density, have been widely used in microcircuit systems, which can meet high voltage output and energy supply. In addition, HVMSCs can be used as energy storage devices to replace the large electrolytic capacitors and batteries, making electronic products more likely to be integrated construction, high density and miniaturization. According to the existing research, the increase on operating voltage window of MSCs can significantly improve the output energy density of MSCs, and further expand its application. Therefore, how to prepare all solid-state HVMSCs from the aspects of materials, structures and manufacturing methods has become a research hotspot. Based on this, the charge storage mechanism and electrochemical performance characteristics of MSCs are surveyed firstly. Secondly, the implementation principles on high potential window of MSCs are analyzed. Then, the manufacturing methods of HVMSCs are concluded in detail, comprising the preparation of electrode materials with high voltage(carbon-based materials, transition metal oxides,conductive polymers and composite electrode materials) and the manufacturing of high-voltage packaging structures(laser processing, inkjet printing, 3D printing, screen printing, roll to roll printing and mask coating). In addition, the applications of HVMSCs in energy storage power devices, flexible sensors and wearable devices are summarized. Finally, based on comprehensive investigation in research status of HVMSCs, the research trend and development of HVMSCs in high voltage fields, such as wearable and portable electronic devices, is prospected.
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In recent years, high voltage micro-supercapacitors(HVMSCs), acting as power supply devices and due to their advantages of miniaturization, portability, flexibility, high cycle life span and high specific power/energy density, have been widely used in microcircuit systems, which can meet high voltage output and energy supply. In addition, HVMSCs can be used as energy storage devices to replace the large electrolytic capacitors and batteries, making electronic products more likely to be integrated construction, high density and miniaturization. According to the existing research, the increase on operating voltage window of MSCs can significantly improve the output energy density of MSCs, and further expand its application. Therefore, how to prepare all solid-state HVMSCs from the aspects of materials, structures and manufacturing methods has become a research hotspot. Based on this, the charge storage mechanism and electrochemical performance characteristics of MSCs are surveyed firstly. Secondly, the implementation principles on high potential window of MSCs are analyzed. Then, the manufacturing methods of HVMSCs are concluded in detail, comprising the preparation of electrode materials with high voltage(carbon-based materials, transition metal oxides,conductive polymers and composite electrode materials) and the manufacturing of high-voltage packaging structures(laser processing, inkjet printing, 3D printing, screen printing, roll to roll printing and mask coating). In addition, the applications of HVMSCs in energy storage power devices, flexible sensors and wearable devices are summarized. 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In recent years, high voltage micro-supercapacitors(HVMSCs), acting as power supply devices and due to their advantages of miniaturization, portability, flexibility, high cycle life span and high specific power/energy density, have been widely used in microcircuit systems, which can meet high voltage output and energy supply. In addition, HVMSCs can be used as energy storage devices to replace the large electrolytic capacitors and batteries, making electronic products more likely to be integrated construction, high density and miniaturization. According to the existing research, the increase on operating voltage window of MSCs can significantly improve the output energy density of MSCs, and further expand its application. Therefore, how to prepare all solid-state HVMSCs from the aspects of materials, structures and manufacturing methods has become a research hotspot. Based on this, the charge storage mechanism and electrochemical performance characteristics of MSCs are surveyed firstly. Secondly, the implementation principles on high potential window of MSCs are analyzed. Then, the manufacturing methods of HVMSCs are concluded in detail, comprising the preparation of electrode materials with high voltage(carbon-based materials, transition metal oxides,conductive polymers and composite electrode materials) and the manufacturing of high-voltage packaging structures(laser processing, inkjet printing, 3D printing, screen printing, roll to roll printing and mask coating). In addition, the applications of HVMSCs in energy storage power devices, flexible sensors and wearable devices are summarized. 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In recent years, high voltage micro-supercapacitors(HVMSCs), acting as power supply devices and due to their advantages of miniaturization, portability, flexibility, high cycle life span and high specific power/energy density, have been widely used in microcircuit systems, which can meet high voltage output and energy supply. In addition, HVMSCs can be used as energy storage devices to replace the large electrolytic capacitors and batteries, making electronic products more likely to be integrated construction, high density and miniaturization. According to the existing research, the increase on operating voltage window of MSCs can significantly improve the output energy density of MSCs, and further expand its application. Therefore, how to prepare all solid-state HVMSCs from the aspects of materials, structures and manufacturing methods has become a research hotspot. Based on this, the charge storage mechanism and electrochemical performance characteristics of MSCs are surveyed firstly. Secondly, the implementation principles on high potential window of MSCs are analyzed. Then, the manufacturing methods of HVMSCs are concluded in detail, comprising the preparation of electrode materials with high voltage(carbon-based materials, transition metal oxides,conductive polymers and composite electrode materials) and the manufacturing of high-voltage packaging structures(laser processing, inkjet printing, 3D printing, screen printing, roll to roll printing and mask coating). In addition, the applications of HVMSCs in energy storage power devices, flexible sensors and wearable devices are summarized. Finally, based on comprehensive investigation in research status of HVMSCs, the research trend and development of HVMSCs in high voltage fields, such as wearable and portable electronic devices, is prospected.</abstract><cop>Beijing</cop><pub>Chinese Mechanical Engineering Society (CMES)</pub><doi>10.3901/JME.2021.22.305</doi><oa>free_for_read</oa></addata></record>
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subjects Actuators
Circuits
Conducting polymers
Electrochemical analysis
Electrode materials
Electrodes
Electrolytic capacitors
Electronic circuits
Electronic devices
Energy storage
Flexible components
Flux density
High voltages
Inkjet printing
Laser processing
Manufacturing
Micromechanics
Microrobots
Miniaturization
Portable equipment
Production methods
Screen printing
Sensors
Storage batteries
Supercapacitors
title Manufacturing Methods and Research Progress of High Voltage Micro-supercapacitors
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