Hao Jin

Prof. Hao Jin

College of Information Science & Electronic Engineering, Zhejiang University, Hangzhou 310027, China
orcid

Research Focus & Metrics

Academic Career Length

18Years (2009-Present)

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

Representative Publications

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17 June 2020 in Science Advances
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Journal Article
Open access
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CWChengjun Wang
Chengjun Wang
CLChanghong Linghu
Changhong Linghu
SNShuang Nie
Shuang Nie
CLChenglong Li
Chenglong Li
QLQianjin Lei
Qianjin Lei
Jizhou SongJizhou Song
Jizhou Song
The shape-conformal stamp with active surface microstructures was used for programmable and scalable transfer printing.

7 February 2020 in ACS Sensors
Verified
Journal Article
Closed access
Arif Ul AlamArif Ul Alam
Arif Ul Alam
DCDennis Clyne
Dennis Clyne
Hao JinHao Jin
Hao Jin
NHNan-Xing Hu
Nan-Xing Hu
Jamal DeenJamal Deen
Jamal Deen

22 November 2017 in Journal of Chemical Education
Verified
Journal Article
Closed access
Hao JinHao Jin
Hao Jin
YQYiheng Qin
Yiheng Qin
SPSi Pan
Si Pan
Arif Ul AlamArif Ul Alam
Arif Ul Alam
SDShurong Dong
Shurong Dong
Jamal DeenJamal Deen
Jamal Deen

26 March 2019 in Physica Status Solidi (a)
Verified
Journal Article
Closed access
PDF file
XTXiang Tao
Xiang Tao
Hao JinHao Jin
Hao Jin
MMMengjuan Ma
Mengjuan Ma
LQLiwei Quan
Liwei Quan
JCJinkai Chen
Jinkai Chen
JLJikui Luo
Jikui Luo

9 January 2020 in ACS Applied Nano Materials
Verified
Journal Article
Closed access
XTXiang Tao
Xiang Tao
Hao JinHao Jin
Hao Jin
MMMona Mintken
Mona Mintken
NWNiklas Wolff
Niklas Wolff
YWYong Wang
Yong Wang
RFRichard Fu
Richard Fu

13 September 2023 in IEEE Transactions on Electron Devices
Verified
Journal Article
Closed access
DRding rui
ding rui
Weipeng XuanWeipeng Xuan
Weipeng Xuan
Feng GaoFeng Gao
Feng Gao
TCTengbo Cao
Tengbo Cao
Hao JinHao Jin
Hao Jin
Shurong DongShurong Dong
Shurong Dong
With the increase of operating frequency above 4 GHz, the required resonator size is reduced to hundreds of $\mu \text{m}^{{2}}$ , which is proportional to 1/ ${f}^{\,{2}}$ . In traditional, the size reduction of the resonator will induce its parallel resonant frequency decrease, thus resulting in the decrease of its effective coupling coefficient ( ${k}_{\,{t}}^{\,{2}}$ ). Besides the parallel resonant frequency, we found that the serial resonant frequency of resonators working above 3 GHz also varies with its area size. However, this effect is not taken into account in conventional circuit models, leading to the failure of high-performance filter design. To address this issue, a modified Mason model of bulk acoustic wave (BAW) resonators was proposed in this work. Using the modified model, a high-performance N79 band (4.8–4.96 GHz) filter based on Al0.904Sc $_{{0.096}}\text{N}$ piezoelectric film was designed and fabricated, which achieved a minimum insertion loss of −0.93 dB and a bandwidth of 240 MHz. The power capacity and wire-bond package of BAW filters were further studied. The whole process of the Mason model modification, filter design, and fabrication pave the road for high-frequency filter applications.