Ning Wang

Prof. Ning Wang

University of Science and Technology Beijing, Beijing, China
orcid

Research Focus & Metrics

Academic Career Length

11Years (2016-Present)

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

Representative Publications

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26 January 2018 in Advanced Energy Materials
Verified
Journal Article
Closed access
PDF file
YJYang Jie
Yang Jie
XJXueting Jia
Xueting Jia
JZJingdian Zou
Jingdian Zou
YCYandong Chen
Yandong Chen
Ning WangNing Wang
Ning Wang
XCXia Cao
Xia Cao

23 March 2017 in ACS Nano
Verified
Journal Article
Closed access
TLTao Li
Tao Li
JZJingdian Zou
Jingdian Zou
FXFei Xing
Fei Xing
MZMeng Zhang
Meng Zhang
XCXia Cao
Xia Cao
Zhong Lin WangZhong Lin Wang
Zhong Lin Wang

5 January 2017 in ACS Nano
Verified
Journal Article
Closed access
HGHuijuan Guo
Huijuan Guo
TLTao Li
Tao Li
XCXiaotao Cao
Xiaotao Cao
JXJin Xiong
Jin Xiong
YJYang Jie
Yang Jie
Zhong Lin WangZhong Lin Wang
Zhong Lin Wang

26 July 2019 in Energy & Environmental Science
Verified
Journal Article
Closed access
PDF file
YCYandong Chen
Yandong Chen
YCYu Cheng
Yu Cheng
YJYang Jie
Yang Jie
XCXia Cao
Xia Cao
Ning WangNing Wang
Ning Wang
Zhong Lin WangZhong Lin Wang
Zhong Lin Wang
Energy harvesting and power delivery are key technologies for self-powered systems towards mobile electronics, the internet of things and sensor networks. A critical issue is not only how to efficiently harvest environmental mechanical energy, but also how we can wirelessly transmit the harvested energy. Here, we have demonstrated a rotating-disk-based hybridized electromagnetic–triboelectric nanogenerator for simultaneously scavenging rotational energy and wirelessly transmitting energy using coils. Under a rotating rate of 900 rpm, the electromagnetic generator (EMG) and triboelectric nanogenerator (TENG) can produce output powers of about 137.39 mW (power density 180 μW g−1) at a matched loading resistance of 300 Ω and 217.8 mW (power density 1152 μW g−1) at a matched loading resistance of 20 kΩ, respectively. Moreover, the output current of the hybridized nanogenerator is increased to about 130 mA for wireless transmission. The power can be wirelessly transmitted up to a distance of ∼60 cm in real time based on helical coils. LEDs can be lighted up. When a supercapacitor bank is applied for storing the generated electricity from the nanogenerator, the wireless transmitted power can charge a mobile phone located at 100 cm away from the transmitter by using a pair of customized helical wire coils. Furthermore, the received output of voltage can reach 153 V at a distance of 80 cm through a commercial voltage booster. The hybridized nanogenerator with wireless power transmission has potential applications in sustainably driving some self-powered and mobile electronic devices particularly for implantable medical devices and the internet of things.

2 January 2018 in Advanced Energy Materials
Verified
Journal Article
Closed access
PDF file
JZJingdian Zou
Jingdian Zou
MZMeng Zhang
Meng Zhang
JHJinrong Huang
Jinrong Huang
JBJie Bian
Jie Bian
YJYang Jie
Yang Jie
Zhong Lin WangZhong Lin Wang
Zhong Lin Wang

5 January 2018 in Advanced Materials
Verified
Journal Article
Closed access
PDF file
XCXia Cao
Xia Cao
MZMeng Zhang
Meng Zhang
JHJinrong Huang
Jinrong Huang
TJTao Jiang
Tao Jiang
JZJingdian Zou
Jingdian Zou
Zhong Lin WangZhong Lin Wang
Zhong Lin Wang