| 光谱学与光谱分析 |
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| Analysis of Theory and Performance of Multi Layer Graphene Nanoribbons Photodetector |
| LIU Hai-yue1, 2, 3, NIU Yan-xiong1, 2, 3*, YIN Yi-heng1, 2, 3, DING Ming1, YANG Bi-yao1, 2, 3, LIU Shuai1, 2, 3 |
1. School of Instrumentation Science and Opto-electroncis Engineering, Beijing University of Aeronautics and Astronautics, Beijing 100191, China
2. Key Laboratory of Micro-nano Measurement-Manipulation and Physics Ministry of Education, Beijing University of Aeronautics and Astronautics, Beijing 100191, China
3. Precision Opto-Mechatronics Technology Key Laboratory of Ministry of Education, Beijing University of Aeronautics and Astronautics, Beijing 100191, China |
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Abstract Multilayer graphene, with wide absorption spectrum and unique photoelectric properties, is an ideal material to make the next generation of photoelectric detector. Taking graphene interband tunneling theory as the foundation, a photoelectric detector model with the structure of multilayer graphene nanoribbons was proposed. Nanoribbons which contacted with source and drain electrode at the end were sandwiched between the semiconductor substrate and the top and back gate. Using this model, a photoelectric conversion mechanism of multilayer graphene nanoribbon detector was established. It discussed the working principle of the detector at different top gate voltage, studied the relationship between the source-drain current and the incident light energy, researched the influence of the bias voltage, the length of depletion and the values of band gap on the dark current, and analyzed the change of detector responsibility and detectivity with the incident light energy under the different parameters. The results show that, the responsibility of detector increases with the layers of nanoribbons, and are affected by the band gap, the length of depletion and the bias voltage. The maximum responsibility up to 103 A·W-1; By limiting on the top gate voltage, the band gap and other variables can control the dark current of system and increase the detectivity, the detectivity up to a maximum value of 109 cm Hz1/2·W-1. The structure of multilayer graphene nanoribbons can enhance the absorption of the incident light, improve the sensitivity of the detector and the detection capability of weak light, and realize the detection from THz to far infrared wavelength of incident light. The detection performance is far better than that of many quantum structures and narrow-band semiconductor structure of photoelectric detector.
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Received: 1900-01-01
Accepted: 1900-01-01
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Corresponding Authors:
NIU Yan-xiong
E-mail: niuyx@buaa.edu.cn
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[1] Sun Zhenhua, Chang Haixin. ACS Nano, 2014, 8(5): 4133.
[2] Konstantatos G, Badioli M, Gaudreau L, et al. Nature Nanotechnology, 2012, 7(6): 363.
[3] Otsuji T, Watanabe T, Tombet B, et al. Optical Engineering, 2014, 53(3): 031206.
[4] Ribeiro Jr L A, da Cunha W F, Fonseca A L A, et al. The Journal of Physical Chemistry Letters, 2015, 6(3): 510.
[5] Liu W, Cheng J, Zhao J, et al. Journal of Modern Physics, 2015, 6(2): 95.
[6] Lee C H, Chen S C, Su W S, et al. Synthetic Metals，2011, 161(5-6): 489.
[7] Lee C H, Yang C K, Lin M F, et al. Physical Chemistry Chemical Physics，2011, 13(9): 3925.
[8] Yunus R M, Endo H, Tsuji M, et al. Physical Chemistry Chemical Physics, 2015, 17(38): 25210.
[9] Ahmadi E, Asgari A. Journal of Applied Physics, 2013, 113(9): 093106.
[10] Xia T, Yang P, Zhang L, et al. Solid-State and Integrated Circuit Technology, Xi’an: IEEE, 2012. 10.
[11] Chitara B, Panchakarla L S, Krupanidhi S B, et al. Adv. Mater.，2011, 23(45): 5419.
[12] Ahmadi E, Asgari A, Ahmadiniar K. Superlattices and Microstructures, 2012, 52(4): 605.
[13] Ostovari F, Moravvej-Farshi M K. Applied Physics Letters, 2014, 105(7): 072407.
[14] Ostovari F, Moravvej-Farshi M K. Applied Surface Science, 2014, 318: 108.
[15] Freitag M, Low T, Martin-Moreno L, et al. ACS Nano, 2014, 8(8): 8350. |
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