Jingyan Huang

Dr. Jingyan Huang

Department of Materials Science and Engineering, ZhejiangUniversity, Hangzhou 310027, China

Research Focus & Metrics

Academic Career Length

19Years (2008-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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22 April 2024 in Nature Nanotechnology
Verified
Journal Article
Closed access
PDF file
HLHongjin Li
Hongjin Li
YFYifeng Feng
Yifeng Feng
MZMeiyi Zhu
Meiyi Zhu
YGYun Gao
Yun Gao
CFChao Fan
Chao Fan
ZYZhi-Zhen Ye
Zhi-Zhen Ye

1 September 2014 in Biosensors and Bioelectronics
Verified
Journal Article
Closed access
Ye MaYe Ma
Ye Ma
Minggang ZhaoMinggang Zhao
Minggang Zhao
BCBin Cai
Bin Cai
WWWei Wang
Wei Wang
ZYZhi-Zhen Ye
Zhi-Zhen Ye
Jingyan HuangJingyan Huang
Jingyan Huang

8 January 2018 in RSC Advances
Verified
Journal Article
Open access
PDF file
QXQian Xiang
Qian Xiang
Jingyan HuangJingyan Huang
Jingyan Huang
HHHuiyao Huang
Huiyao Huang
WMWeiwei Mao
Weiwei Mao
ZYZhizhen Ye
Zhizhen Ye
Based on the strong interaction between single-stranded DNA and graphene material, we have designed a simple but smart electrochemical platform to detect HBV-DNA by using a graphene quantum dot (GQD) modified glassy carbon electrode coupled with specific sequence DNA molecules as probes. The probe DNA is designed to be complementary to the HBV-DNA, when the probe DNA is strongly bound to the surface of the GQD modified electrode the transfer of an electron from the electrode to the electrochemically active species K3[Fe(CN)6] will become difficult. Nevertheless, if the target HBV-DNA is found in the test solution, the probe DNA will bind with the target HBV-DNA instead of GQDs. As a result, the obtained peak currents of K3[Fe(CN)6] will have a different degree of increase with the different concentrations of the target HBV-DNA. In particular, the proposed sensor exhibits high sensitivity with a detection limit of 1 nM, and the linear detection range is from 10 nM to 500 nM. Additionally, the sensor could be used in detecting other probe DNA, which may have potential applications in the future.

31 July 2014 in Chemical Communications
Verified
Journal Article
Closed access
PDF file
YMYe Ma
Ye Ma
MZMinggang Zhao
Minggang Zhao
BCBin Cai
Bin Cai
WWWei Wang
Wei Wang
ZYZhizhen Ye
Zhizhen Ye
Jingyan HuangJingyan Huang
Jingyan Huang
Combining colorimetric and electrochemical methods in one device, a recyclable freestanding 3D biosensor could detect H2O2, ascorbic acid and dopamine.

3 August 2024 in Nature Communications
Verified
Journal Article
Open access
PDF file
HLHongjin Li
Hongjin Li
XZXiaofang Zhu
Xiaofang Zhu
DZDingshuo Zhang
Dingshuo Zhang
YGYun Gao
Yun Gao
YFYifeng Feng
Yifeng Feng
XDXingliang Dai
Xingliang Dai
Despite the promising candidacy of perovskite nanocrystals for light-emitting diodes, their pure red electroluminescence is hindered by low saturated luminance, severe external quantum efficiency roll-off, and inferior operational stability. Here, we report ultra-bright and stable pure red light-emitting diodes by manipulating Joule heat generation in the nanocrystal emissive layer and thermal management within the device. Diphenylphosphoryl azide-mediated regulation of the nanocrystal surface synergistically enhances the optical properties and carrier transport of the emissive layer, enabling reduced Joule heat generation and thus lowering the working temperature. These merits inhibit ion migration of the CsPb(Br/I)3 nanocrystal film, promising excellent spectra stability. Combined with the highly thermal-conductive sapphire substrates and implementation of pulse-driving mode, the pure red light-emitting diodes exhibit an ultra-bright luminance of 390,000 cd m−2, a peak external quantum efficiency of 25%, suppressed efficiency roll-off, an operational half-life of 20 hours, and superior spectral stability within 15 A cm−2.

12 February 2016 in RSC Advances
Verified
Journal Article
Closed access
PDF file
YCYilan Chu
Yilan Chu
BCBin Cai
Bin Cai
YMYe Ma
Ye Ma
MZMinggang Zhao
Minggang Zhao
ZYZhi-Zhen Ye
Zhi-Zhen Ye
Jingyan HuangJingyan Huang
Jingyan Huang
By integrating thin-layer molybdenum disulfide (MoS2) and graphene through a hydrothermal process and an ultrasonic method, a label-free, amplification-free and ultrasensitive circulating tumor DNA electrochemical sensor was made.