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Literature DB >> 24839129

A 3D scaffold for ultra-sensitive reduced graphene oxide gas sensors.

Yong Ju Yun¹, Won G Hong, Nak-Jin Choi, Hyung Ju Park, Seung Eon Moon, Byung Hoon Kim, Ki-Bong Song, Yongseok Jun, Hyung-Kun Lee.

Abstract

An ultra-sensitive gas sensor based on a reduced graphene oxide nanofiber mat was successfully fabricated using a combination of an electrospinning method and graphene oxide wrapping through an electrostatic self-assembly, followed by a low-temperature chemical reduction. The sensor showed excellent sensitivity to NO2 gas.

Entities: Chemical

Year: 2014 PMID： 24839129 DOI： 10.1039/c4nr00332b

Source DB: PubMed Journal: Nanoscale ISSN： 2040-3364 Impact factor: 7.790

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Cited

8 in total

1. Ultrasensitive and highly selective graphene-based single yarn for use in wearable gas sensor.

Authors: Yong Ju Yun; Won G Hong; Nak-Jin Choi; Byung Hoon Kim; Yongseok Jun; Hyung-Kun Lee
Journal: Sci Rep Date: 2015-06-04 Impact factor: 4.379

2. Highly stretchable, mechanically stable, and weavable reduced graphene oxide yarn with high NO₂ sensitivity for wearable gas sensors.

Authors: Yong Ju Yun; Do Yeob Kim; Won G Hong; Dong Han Ha; Yongseok Jun; Hyung-Kun Lee
Journal: RSC Adv Date: 2018-02-16 Impact factor: 3.361

Review 3. Graphene Hybrid Materials in Gas Sensing Applications.

Authors: Usman Latif; Franz L Dickert
Journal: Sensors (Basel) Date: 2015-12-04 Impact factor: 3.576

4. Sulfophenyl-Functionalized Reduced Graphene Oxide Networks on Electrospun 3D Scaffold for Ultrasensitive NO₂ Gas Sensor.

Authors: Bin Zou; Yunlong Guo; Nannan Shen; Anshan Xiao; Mingjun Li; Liang Zhu; Pengbo Wan; Xiaoming Sun
Journal: Sensors (Basel) Date: 2017-12-19 Impact factor: 3.576

5. Compliment Graphene Oxide Coating on Silk Fiber Surface via Electrostatic Force for Capacitive Humidity Sensor Applications.

Authors: Kook In Han; Seungdu Kim; In Gyu Lee; Jong Pil Kim; Jung-Ha Kim; Suck Won Hong; Byung Jin Cho; Wan Sik Hwang
Journal: Sensors (Basel) Date: 2017-02-19 Impact factor: 3.576

A 3D scaffold for ultra-sensitive reduced graphene oxide gas sensors.

1. Ultrasensitive and highly selective graphene-based single yarn for use in wearable gas sensor.

2. Highly stretchable, mechanically stable, and weavable reduced graphene oxide yarn with high NO₂ sensitivity for wearable gas sensors.

Review 3. Graphene Hybrid Materials in Gas Sensing Applications.

4. Sulfophenyl-Functionalized Reduced Graphene Oxide Networks on Electrospun 3D Scaffold for Ultrasensitive NO₂ Gas Sensor.

5. Compliment Graphene Oxide Coating on Silk Fiber Surface via Electrostatic Force for Capacitive Humidity Sensor Applications.

6. Improved NO₂ Gas Sensing Properties of Graphene Oxide Reduced by Two-beam-laser Interference.

7. Thermal Transport in Graphene Oxide Films: Theoretical Analysis and Molecular Dynamics Simulation.

Review 8. Research Progress on Coating of Sensitive Materials for Micro-Hotplate Gas Sensor.

A 3D scaffold for ultra-sensitive reduced graphene oxide gas sensors.

1. Ultrasensitive and highly selective graphene-based single yarn for use in wearable gas sensor.

2. Highly stretchable, mechanically stable, and weavable reduced graphene oxide yarn with high NO2 sensitivity for wearable gas sensors.

Review 3. Graphene Hybrid Materials in Gas Sensing Applications.

4. Sulfophenyl-Functionalized Reduced Graphene Oxide Networks on Electrospun 3D Scaffold for Ultrasensitive NO₂ Gas Sensor.

5. Compliment Graphene Oxide Coating on Silk Fiber Surface via Electrostatic Force for Capacitive Humidity Sensor Applications.

6. Improved NO2 Gas Sensing Properties of Graphene Oxide Reduced by Two-beam-laser Interference.

7. Thermal Transport in Graphene Oxide Films: Theoretical Analysis and Molecular Dynamics Simulation.

Review 8. Research Progress on Coating of Sensitive Materials for Micro-Hotplate Gas Sensor.

2. Highly stretchable, mechanically stable, and weavable reduced graphene oxide yarn with high NO₂ sensitivity for wearable gas sensors.

6. Improved NO₂ Gas Sensing Properties of Graphene Oxide Reduced by Two-beam-laser Interference.