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µÚ 1 Ìõ£¬¹² 7 Ìõ
±êÌâ: Tunable Surface Electron Spin Splitting with Electric Double-Layer Transistors Based on InN
×÷Õß: Yin, CM (Yin, Chunming); Yuan, HT (Yuan, Hongtao); Wang, XQ (Wang, Xinqiang); Liu, ST (Liu, Shitao); Zhang, S (Zhang, Shan); Tang, N (Tang, Ning); Xu, FJ (Xu, Fujun); Chen, ZY (Chen, Zhuoyu); Shimotani, H (Shimotani, Hidekazu); Iwasa, Y (Iwasa, Yoshihiro); Chen, YH (Chen, Yonghai); Ge, WK (Ge, Weikun); Shen, B (Shen, Bo)
À´Ô´³ö°æÎï: NANO LETTERS  ¾í: 13  ÆÚ: 5  Ò³: 2024-2029  DOI: 10.1021/nl400153p  ³ö°æÄê: MAY 2013  
ÕªÒª: Electrically manipulating electron spins based on Rashba spin-orbit coupling (SOC) is a key pathway for applications of spintronics and spin-based quantum computation. Two-dimensional electron systems (2DESs) offer a particularly important SOC platform, where spin polarization can be tuned with an electric field perpendicular to the 2DES. Here, by measuring the tunable circular photogalvanic effect (CPGE), we present a room-temperature electric-field-modulated spin splitting of surface electrons on InN epitaxial thin films that is a good candidate to realize spin injection. The surface band bending and resulting CPGE current are successfully modulated by ionic liquid gating within an electric double-layer transistor configuration. The clear gate voltage dependence of CPGE current indicates that the spin splitting of the surface electron accumulation layer is effectively tuned, providing a way to modulate the injected spin polarization in potential spintronic devices.
Èë²ØºÅ: WOS:000318892400024
×÷Õßʶ±ðºÅ:
×÷Õß        ResearcherID ºÅ        ORCID ºÅ
Wang, Xinqiang         B-8798-2013          
Iwasa, Yoshihiro         C-1719-2009          
Yuan, Hongtao         C-9807-2012          
Yin, Chunming         F-5763-2011         0000-0003-0117-8225
ISSN: 1530-6984
µÚ 2 Ìõ£¬¹² 7 Ìõ
±êÌâ: Temperature sensitive photoconductivity observed in InN layers
×÷Õß: Guo, L (Guo, Lei); Wang, XQ (Wang, Xinqiang); Feng, L (Feng, Li); Zheng, XT (Zheng, Xiantong); Chen, G (Chen, Guang); Yang, XL (Yang, Xuelin); Xu, FJ (Xu, Fujun); Tang, N (Tang, Ning); Lu, LW (Lu, Liwu); Ge, WK (Ge, Weikun); Shen, B (Shen, Bo)
À´Ô´³ö°æÎï: APPLIED PHYSICS LETTERS  ¾í: 102  ÆÚ: 7  ÎÄÏ׺Å: 072103  DOI: 10.1063/1.4793190  ³ö°æÄê: FEB 18 2013  
ÕªÒª: Photoconductivity has been systematically studied in unintentionally doped n-type InN film with super-bandgap excitation (1.53 eV) at temperatures varying in the range of 100-300K. A negative photoconductivity is observed at room temperature, whereas it gradually changes to be positive with decreasing temperature. Transition temperature from negative to positive photoconductivity is found to be greatly related to the residual electron concentration as the higher the electron concentration, the lower the transition temperature. An energy band model including a donor state with large lattice relaxation as well as a recombination center is proposed, which explains the experimental observation well. (C) 2013 American Institute of Physics. [http://dx.doi.org/10.1063/1.4793190]
Èë²ØºÅ: WOS:000315596700029
×÷Õßʶ±ðºÅ:
×÷Õß        ResearcherID ºÅ        ORCID ºÅ
Wang, Xinqiang         B-8798-2013          
ISSN: 0003-6951
µÚ 3 Ìõ£¬¹² 7 Ìõ
±êÌâ: Effect of Grain Boundary Scattering on Electron Mobility of N-Polarity InN Films
×÷Õß: Zhang, YW (Zhang, Yuewei); Wang, XQ (Wang, Xinqiang); Zheng, XT (Zheng, Xiantong); Chen, G (Chen, Guang); Ma, DY (Ma, Dingyu); Xu, FJ (Xu, Fujun); Tang, N (Tang, Ning); Ge, WK (Ge, Weikun); Shen, B (Shen, Bo)
À´Ô´³ö°æÎï: APPLIED PHYSICS EXPRESS  ¾í: 6  ÆÚ: 2  ÎÄÏ׺Å: 021001  DOI: 10.7567/APEX.6.021001  ³ö°æÄê: FEB 2013  
ÕªÒª: Transport properties of InN layers with both lattice polarities are reported. It is proposed that grain boundaries form potential barriers for electrons and thus lead to a reduction of electron mobility. However, these grain boundaries are important scattering centers only in the N-polarity InN films, but not in the In-polarity ones, which is consistent with the grain feature of the N-polarity InN surfaces. The carrier mobility in grain boundaries is estimated to be about 75 cm(2) V-1 s(-1) at room temperature for our sample, far less than the carrier mobility in the grains. (C) 2013 The Japan Society of Applied Physics
Èë²ØºÅ: WOS:000314748200001
×÷Õßʶ±ðºÅ:
×÷Õß        ResearcherID ºÅ        ORCID ºÅ
Wang, Xinqiang         B-8798-2013          
ISSN: 1882-0778
µÚ 4 Ìõ£¬¹² 7 Ìõ
±êÌâ: Fe-doped InN layers grown by molecular beam epitaxy
×÷Õß: Wang, XQ (Wang, Xinqiang); Liu, ST (Liu, Shitao); Ma, DY (Ma, Dingyu); Zheng, XT (Zheng, Xiantong); Chen, G (Chen, Guang); Xu, FJ (Xu, Fujun); Tang, N (Tang, Ning); Shen, B (Shen, Bo); Zhang, P (Zhang, Peng); Cao, XZ (Cao, Xingzhong); Wang, BY (Wang, Baoyi); Huang, S (Huang, Sen); Chen, KJ (Chen, Kevin J.); Zhou, SQ (Zhou, Shengqiang); Yoshikawa, A (Yoshikawa, Akihiko)
À´Ô´³ö°æÎï: APPLIED PHYSICS LETTERS  ¾í: 101  ÆÚ: 17  ÎÄÏ׺Å: 171905  DOI: 10.1063/1.4764013  ³ö°æÄê: OCT 22 2012  
ÕªÒª: Iron(Fe)-doped InN (InN:Fe) layers have been grown by molecular beam epitaxy. It is found that Fe-doping leads to drastic increase of residual electron concentration, which is different from the semi-insulating property of Fe-doped GaN. However, this heavy n-type doping cannot be fully explained by doped Fe-concentration ([Fe]). Further analysis shows that more unintentionally doped impurities such as hydrogen and oxygen are incorporated with increasing [Fe] and the surface is degraded with high density pits, which probably are the main reasons for electron generation and mobility reduction. Photoluminescence of InN is gradually quenched by Fe-doping. This work shows that Fe-doping is one of good choices to control electron density in InN. (C) 2012 American Institute of Physics. [http://dx.doi.org/10.1063/1.4764013]
Èë²ØºÅ: WOS:000310726200028
×÷Õßʶ±ðºÅ:
×÷Õß        ResearcherID ºÅ        ORCID ºÅ
Wang, Xinqiang         B-8798-2013          
Zhou, Shengqiang         C-1497-2009         0000-0002-4885-799X
ISSN: 0003-6951
µÚ 5 Ìõ£¬¹² 7 Ìõ
±êÌâ: High-Electron-Mobility InN Layers Grown by Boundary-Temperature-Controlled Epitaxy
×÷Õß: Wang, XQ (Wang, Xinqiang); Liu, ST (Liu, Shitao); Ma, N (Ma, Nan); Feng, L (Feng, Li); Chen, G (Chen, Guang); Xu, FJ (Xu, Fujun); Tang, N (Tang, Ning); Huang, S (Huang, Sen); Chen, KJ (Chen, Kevin J.); Zhou, SQ (Zhou, Shengqiang); Shen, B (Shen, Bo)
À´Ô´³ö°æÎï: APPLIED PHYSICS EXPRESS  ¾í: 5  ÆÚ: 1  ÎÄÏ׺Å: 015502  DOI: 10.1143/APEX.5.015502  ³ö°æÄê: JAN 2012  
ÕªÒª: A boundary-temperature-controlled epitaxy, where the growth temperature of InN is controlled at its maximum, is used to obtain high-electron-mobility InN layers on sapphire substrates by molecular beam epitaxy. The Hall-effect measurement shows a recorded electron mobility of 3280 cm(2) V-1 s(-1) and a residual electron concentration of 1.47 x 10(17) cm(-3) at room temperature. The enhanced electron mobility and reduced residual electron concentration are mainly due to the reduction of threading dislocation density. The obtained Hall mobilities are in good agreement with the theoretical modelling by the ensemble Monte Carlo simulation. (C) 2012 The Japan Society of Applied Physics
Èë²ØºÅ: WOS:000299312400028
×÷Õßʶ±ðºÅ:
×÷Õß        ResearcherID ºÅ        ORCID ºÅ
Zhou, Shengqiang         C-1497-2009         0000-0002-4885-799X
Wang, Xinqiang         B-8798-2013          
ISSN: 1882-0778
µÚ 6 Ìõ£¬¹² 7 Ìõ
±êÌâ: Dependence of Mg acceptor levels in InN on doping density and temperature
×÷Õß: Fujiwara, M (Fujiwara, Masayuki); Ishitani, Y (Ishitani, Yoshihiro); Wang, XQ (Wang, Xinqiang); Kusakabe, K (Kusakabe, Kazuhide); Yoshikawa, A (Yoshikawa, Akihiko)
À´Ô´³ö°æÎï: JOURNAL OF APPLIED PHYSICS  ¾í: 110  ÆÚ: 9  ÎÄÏ׺Å: 093505  DOI: 10.1063/1.3656990  ³ö°æÄê: NOV 1 2011  
ÕªÒª: Infrared (IR) reflectance and transmission spectra of Mg doped InN films are analyzed using a dielectric function consisting of the terms of phonon, plasmon, and electronic transition between the valence band and the acceptor levels. The reflectance spectra at lower temperatures than 200K are highly affected by the electronic transition. Acceptor activation energy E(a) decreases with the increase in ionized acceptors because of the Coulomb potential overlap of acceptors charged by the background electrons and/or hole generation by the temperature increase. It is found that E(a) is 69(+/- 5) meV at low Mg(-) density limit and decreases to 50 meV at 5K because of the charging by the background electrons of the density of 1 x 10(18) cm(-3). Temperature increase causes the further decrease in E(a), which causes the high hole density of the order of 10(18) cm(-3) at room temperature in spite of the high degeneracy of the acceptor states. The heavy hole mass is obtained as 0.59(+/- 0.06)m(0). (C) 2011 American Institute of Physics. [doi:10.1063/1.3656990]
Èë²ØºÅ: WOS:000297062100021
×÷Õßʶ±ðºÅ:
×÷Õß        ResearcherID ºÅ        ORCID ºÅ
Wang, Xinqiang         B-8798-2013          
ISSN: 0021-8979
µÚ 7 Ìõ£¬¹² 7 Ìõ
±êÌâ: Recent advances and challenges for successful p-type control of InN films with Mg acceptor doping by molecular beam epitaxy
×÷Õß: Yoshikawa, A (Yoshikawa, Akihiko); Wang, XQ (Wang, Xinqiang); Ishitani, Y (Ishitani, Yoshihiro); Uedono, A (Uedono, Akira)
À´Ô´³ö°æÎï: PHYSICA STATUS SOLIDI A-APPLICATIONS AND MATERIALS SCIENCE  ¾í: 207  ÆÚ: 5  Ò³: 1011-1023  DOI: 10.1002/pssa.200983118  ³ö°æÄê: MAY 2010  
ÕªÒª: InN is still the least studied material among III-nitrides and there are several problems to be overcome for better understanding of its material properties and also its material control for device application. In particular, successful p-type doping is a quite important issue but quite difficult in InN. In this article, we present a study on the latest advances in material control paying special attention to the p-type doping of InN films using Mg-acceptors by MBE, the demonstration of successful p-type control and p-type conduction, and their electrical and optical properties as well. Furthermore, as a prerequisite of successful p-type doping of InN, epitaxy behaviors of InN on GaN and effects of threading dislocations on high-purity undoped InN epilayers grown on GaN template are also discussed. (C) 2010 WILEY-VCH Verlag GmbH & Co. KGaA, Weinheim
Èë²ØºÅ: WOS:000278610700002
»áÒéÃû³Æ: Fall Meeting of the European-Materials-Research-Society
»áÒéÈÕÆÚ: SEP 14-18, 2009
»áÒ鵨µã: Warsaw, POLAND
»áÒéÔÞÖúÉÌ : European Mat Res Soc
×÷Õßʶ±ðºÅ:
×÷Õß        ResearcherID ºÅ        ORCID ºÅ
Wang, Xinqiang         B-8798-2013          
ISSN: 1862-6300
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