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Your search keyword '"Su, Teng"' showing total 11 results
Start Over Author "Su, Teng" Journal acs nano
11 results on '"Su, Teng"'

1. Design of Core–Shell Quantum Dots–3D WS2 Nanowall Hybrid Nanostructures with High-Performance Bifunctional Sensing Applications

Author

Tang, Shin-Yi, primary, Yang, Chun-Chuan, additional, Su, Teng-Yu, additional, Yang, Tzu-Yi, additional, Wu, Shu-Chi, additional, Hsu, Yu-Chieh, additional, Chen, Yu-Ze, additional, Lin, Tzu-Neng, additional, Shen, Ji-Lin, additional, Lin, Heh-Nan, additional, Chiu, Po-Wen, additional, Kuo, Hao-Chung, additional, and Chueh, Yu-Lun, additional

Published
2020
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2. Three-Dimensional Molybdenum Diselenide Helical Nanorod Arrays for High-Performance Aluminum-Ion Batteries

Author

Ai, Yuanfei, primary, Wu, Shu-Chi, additional, Wang, Kuangye, additional, Yang, Tzu-Yi, additional, Liu, Mingjin, additional, Liao, Hsiang-Ju, additional, Sun, Jiachen, additional, Chen, Jyun-Hong, additional, Tang, Shin-Yi, additional, Wu, Ding Chou, additional, Su, Teng-Yu, additional, Wang, Yi-Chung, additional, Chen, Hsuan-Chu, additional, Zhang, Shan, additional, Liu, Wen-Wu, additional, Chen, Yu-Ze, additional, Lee, Ling, additional, He, Jr-Hau, additional, Wang, Zhiming M., additional, and Chueh, Yu-Lun, additional

Published
2020
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6. Mesenchymal Stem Cell/Red Blood Cell-Inspired Nanoparticle Therapy in Mice with Carbon Tetrachloride-Induced Acute Liver Failure

Author

Liang, Hongxia, primary, Huang, Ke, additional, Su, Teng, additional, Li, Zhenhua, additional, Hu, Shiqi, additional, Dinh, Phuong-Uyen, additional, Wrona, Emily A., additional, Shao, Chen, additional, Qiao, Li, additional, Vandergriff, Adam C., additional, Hensley, M. Taylor, additional, Cores, Jhon, additional, Allen, Tyler, additional, Zhang, Hongyu, additional, Zeng, Qinglei, additional, Xing, Jiyuan, additional, Freytes, Donald O., additional, Shen, Deliang, additional, Yu, Zujiang, additional, and Cheng, Ke, additional

Published
2018
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7. Thermally Strained Band Gap Engineering of Transition-Metal Dichalcogenide Bilayers with Enhanced Light–Matter Interaction toward Excellent Photodetectors

Author

Wang, Sheng-Wen, primary, Medina, Henry, additional, Hong, Kuo-Bin, additional, Wu, Chun-Chia, additional, Qu, Yindong, additional, Manikandan, Arumugam, additional, Su, Teng-Yu, additional, Lee, Po-Tsung, additional, Huang, Zhi-Quan, additional, Wang, Zhiming, additional, Chuang, Feng-Chuan, additional, Kuo, Hao-Chung, additional, and Chueh, Yu-Lun, additional

Published
2017
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8. Design of Core–Shell Quantum Dots–3D WS2Nanowall Hybrid Nanostructures with High-Performance Bifunctional Sensing Applications

Author

Tang, Shin-Yi, Yang, Chun-Chuan, Su, Teng-Yu, Yang, Tzu-Yi, Wu, Shu-Chi, Hsu, Yu-Chieh, Chen, Yu-Ze, Lin, Tzu-Neng, Shen, Ji-Lin, Lin, Heh-Nan, Chiu, Po-Wen, Kuo, Hao-Chung, and Chueh, Yu-Lun

Abstract

Transition metal dichalcogenides (TMDCs) have recently attracted a tremendous amount of attention owing to their superior optical and electrical properties as well as the interesting and various nanostructures that are created by different synthesis processes. However, the atomic thickness of TMDCs limits the light absorption and results in the weak performance of optoelectronic devices, such as photodetectors. Here, we demonstrate the approach to increase the surface area of TMDCs by a one-step synthesis process of TMDC nanowalls from WOxinto three-dimensional (3D) WS2nanowalls. By utilizing a rapid heating and rapid cooling process, the formation of 3D nanowalls with a height of approximately 150 nm standing perpendicularly on top of the substrate can be achieved. The combination of core–shell colloidal quantum dots (QDs) with three different emission wavelengths and 3D WS2nanowalls further improves the performance of WS2-based photodetector devices, including a photocurrent enhancement of 320–470% and shorter response time. The significant results of the core–shell QD–WS2hybrid devices can be contributed by the high nonradiative energy transfer efficiency between core–shell QDs and the nanostructured material, which is caused by the spectral overlap between the emission of core–shell QDs and the absorption of WS2. Besides, outstanding NO2gas-sensing performance of core–shell QDs/WS2devices can be achieved with an extremely low detection limit of 50 ppb and a fast response time of 26.8 s because of local p–n junctions generated by p-type 3D WS2nanowalls and n-type core–shell CdSe-ZnS QDs. Our work successfully reveals the energy transfer phenomenon in core–shell QD–WS2hybrid devices and shows great potential in commercial multifunctional sensing applications.

Published
2020
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11. Design of Core-Shell Quantum Dots-3D WS 2 Nanowall Hybrid Nanostructures with High-Performance Bifunctional Sensing Applications.

Author

Tang SY, Yang CC, Su TY, Yang TY, Wu SC, Hsu YC, Chen YZ, Lin TN, Shen JL, Lin HN, Chiu PW, Kuo HC, and Chueh YL

Abstract

Transition metal dichalcogenides (TMDCs) have recently attracted a tremendous amount of attention owing to their superior optical and electrical properties as well as the interesting and various nanostructures that are created by different synthesis processes. However, the atomic thickness of TMDCs limits the light absorption and results in the weak performance of optoelectronic devices, such as photodetectors. Here, we demonstrate the approach to increase the surface area of TMDCs by a one-step synthesis process of TMDC nanowalls from WO x into three-dimensional (3D) WS 2 nanowalls. By utilizing a rapid heating and rapid cooling process, the formation of 3D nanowalls with a height of approximately 150 nm standing perpendicularly on top of the substrate can be achieved. The combination of core-shell colloidal quantum dots (QDs) with three different emission wavelengths and 3D WS 2 nanowalls further improves the performance of WS 2 -based photodetector devices, including a photocurrent enhancement of 320-470% and shorter response time. The significant results of the core-shell QD-WS 2 hybrid devices can be contributed by the high nonradiative energy transfer efficiency between core-shell QDs and the nanostructured material, which is caused by the spectral overlap between the emission of core-shell QDs and the absorption of WS 2 . Besides, outstanding NO 2 gas-sensing performance of core-shell QDs/WS 2 devices can be achieved with an extremely low detection limit of 50 ppb and a fast response time of 26.8 s because of local p - n junctions generated by p - type 3D WS 2 nanowalls and n - type core-shell CdSe-ZnS QDs. Our work successfully reveals the energy transfer phenomenon in core-shell QD-WS 2 hybrid devices and shows great potential in commercial multifunctional sensing applications.

Published
2020
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