Jianhui Li

Jianhui Li


Research Focus & Metrics

Academic Career Length

7Years (2020-Present)

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

Representative Publications

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21 July 2025 in Advances in Colloid and Interface Science
Verified
Journal Article
Closed access
RGRui Guo
Rui Guo
SLShutong Li
Shutong Li
JLJianhui Li
Jianhui Li
LWLianjun Wang
Lianjun Wang
WJWan Jiang
Wan Jiang

3 February 2020 in Rare Metals
Verified
Journal Article
Closed access
PDF file
ZFZhi‐Hao Feng
Zhi‐Hao Feng
XSXin‐Yang Sun
Xin‐Yang Sun
PHPeng‐Biao Han
Peng‐Biao Han
HFHang Fu
Hang Fu
HDHui‐Cong Dong
Hui‐Cong Dong
JLJianhui Li
Jianhui Li

2 December 2025 in Advanced Composites and Hybrid Materials
Verified
Journal Article
Open access
PDF file
RGRui Guo
Rui Guo
SLShutong Li
Shutong Li
RDRongXia Duan
RongXia Duan
YSYunjun Sun
Yunjun Sun
JLJianhui Li
Jianhui Li
WJWan Jiang
Wan Jiang
Overcoming the challenge of decoupling impedance matching from attenuation for low-frequency (2–10 GHz) electromagnetic wave absorption, this work presents a defect-engineered multiphase medium-entropy sulfide composite. Synthesized via integrated mechanical alloying and surfactant-assisted hydrothermal sulfidation, the composite integrates sulfur vacancy-rich (Fe,Co,Ni)9S8, anisotropic FeCoNi alloy, CoFe₂O₄, and porous MoS2. This architecture creates abundant heterogeneous interfaces and interfacial sulfur vacancies, significantly enhancing defect-induced polarization and dielectric loss via the “Janus effect.” Concurrently, the magnetic components boost magnetic loss while optimizing impedance matching. Benefiting from this magneto-dielectric synergy, the composite achieves exceptional absorption: a minimum reflection loss (RLmin) of -50.4 dB at 3.96 GHz and a remarkable RLmin -77.5 dB at 9 GHz. Radar cross-section simulations confirm application potential. This work provides strategic insights for designing innovative low-/mid-frequency absorbers through synergistic dielectric-magnetic loss in polymetallic sulfide heterostructures.

9 February 2024 in Bioelectrochemistry
Verified
Journal Article
Closed access
DLDan Liu
Dan Liu
YLYongmei Liang
Yongmei Liang
HWHuijun Wei
Huijun Wei
PLPengjun Liu
Pengjun Liu
DJDaiqiang Jin
Daiqiang Jin
Dake XuDake Xu
Dake Xu

15 June 2024 in Bioelectrochemistry
Verified
Journal Article
Closed access
MLMankun Li
Mankun Li
JZJunye Zhou
Junye Zhou
YLYaqiang Li
Yaqiang Li
GZGuangqian Zhu
Guangqian Zhu
ZHZishuai Hu
Zishuai Hu
JLJianhui Li
Jianhui Li

8 August 2021 in Coatings
Verified
Journal Article
Open access
PDF file
JWJiangang Wang
Jiangang Wang
WSWenjing Shen
Wenjing Shen
XZXin Zhang
Xin Zhang
JLJianhui Li
Jianhui Li
JMJing Ma
Jing Ma
In this research, Al-doped and (Al, Fe) codoped ZnO films were prepared on glass substrate by the sol–gel method. The surface morphology, structure, and optical property were characterized by scanning electron microscope (SEM), X-ray diffraction (XRD), X-ray photoelectron spectroscopy (XPS), and Ultraviolet-Visible-Near-infrared (UV-Vis-NIR) spectroscopy. The film surface morphologies all exhibited granular characteristics. With the Fe doping concentration increasing, the codoped films had smaller grain size and tended to be smoother. XRD analysis revealed that all films had a hexagonal wurtzite structure. The codoping can contribute to more Al and Fe ions entering the ZnO crystal structure, but result in the crystalline degree of the films decreasing. XPS results showed that the Al and Fe irons in the films exist in the form of trivalent. Moreover, the doped films had higher transmission, especially for codoped (Fe:Al = 3) film, but their absorption edge shifted to the short-wavelength direction.