Linfei Hao

Dr. Linfei Hao


Research Focus & Metrics

Academic Career Length

6Years (2021-Present)

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

Representative Publications

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1 November 2021 in Soil Dynamics and Earthquake Engineering
Verified
Journal Article
Closed access
LHLinfei Hao
Linfei Hao
HHHui He
Hui He
Ping TANPing TAN
Ping TAN

23 April 2023 in International Journal of Mechanical Sciences
Verified
Journal Article
Closed access
LHLinfei Hao
Linfei Hao
HHHui He
Hui He
Ping TANPing TAN
Ping TAN
KJKiwoong Jin
Kiwoong Jin
XLXinyu Liu
Xinyu Liu

25 May 2024 in Journal of Sound and Vibration
Verified
Journal Article
Closed access
HHHui He
Hui He
LHLinfei Hao
Linfei Hao
YZYun Zhou
Yun Zhou
ZLZicong Lin
Zicong Lin
YXYue Xiang
Yue Xiang
YLYafeng Li
Yafeng Li

26 April 2021 in Bulletin of Earthquake Engineering
Verified
Journal Article
Closed access
PDF file
KJKiwoong Jin
Kiwoong Jin
LHLinfei Hao
Linfei Hao
KKKazuhiro Kitayama
Kazuhiro Kitayama

25 May 2025 in Structures
Verified
Journal Article
Closed access
LHLinfei Hao
Linfei Hao
JWJiacheng Wu
Jiacheng Wu
JHJian Huang
Jian Huang
Ping TANPing TAN
Ping TAN
KJKiwoong Jin
Kiwoong Jin
HHHui He
Hui He

22 February 2023 in Applied Sciences
Verified
Journal Article
Open access
PDF file
KJKiwoong Jin
Kiwoong Jin
RORiku Ota
Riku Ota
LHLinfei Hao
Linfei Hao
KKKazuhiro Kitayama
Kazuhiro Kitayama
In this paper, a prestressed precast reinforced concrete (PC) beam–column connection incorporating posttensioned debonded partial tendons is introduced for PC frame structure. Compared with the conventional cast-in-place frames and many previously proposed connections for PC frames, this connection has the advantage of self-centering and low damage in strong earthquakes. In addition, the debonded partial tendons can reduce the posttensioning demand and further reduce site labor during construction and repair. In order to establish a performance evaluation method for the ultimate flexural limit of the proposed PC connection, an analytical model was developed to accurately reflect the deformation compatibility and force equilibrium conditions of the PC beam and column members, as well as the debonded partial tendons. Based on this, iterative and direct evaluation methods for the strength and deformation of the PC connections, as well as the strains of the debonded tendons, were developed. The proposed methods were verified by cyclic loading test on the beam–column connection subassemblages. It is concluded that the proposed method is sufficiently accurate and simple to be applied in engineering design, and is helpful to guarantee the self-centering and low-damage characteristics of the proposed connection against a strong earthquake.