Cheng zhang

Dr. Cheng zhang


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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26 November 2021 in Journal of Mountain Science
Verified
Journal Article
Closed access
PDF file
CZCheng zhang
Cheng zhang
ZSZhang Shulei
Zhang Shulei
Cheng ZHangCheng ZHang
Cheng ZHang
YZYu Zhou
Yu Zhou

23 April 2024 in Geoenergy Science and Engineering
Verified
Journal Article
Closed access
TQTang Qiongiqong
Tang Qiongiqong
YZYu Zhou
Yu Zhou
CZCheng zhang
Cheng zhang
ZSZhang Shulei
Zhang Shulei
XXXiangYang Xu
XiangYang Xu
ZSZhang Shulei
Zhang Shulei

20 September 2022 in Geofluids
Verified
Journal Article
Open access
CZCheng zhang
Cheng zhang
ZSZhang Shulei
Zhang Shulei
DZDajun Zhao
Dajun Zhao
Effect of Amplitude and Confining Pressure on Granite Failure under Ultrahigh Frequency (UHF) Impact Based on Radiation Temperature: Ultrahigh frequency impact technology has great potential to break hard rocks with lower energy consumption. Based on the infrared nondestructive testing technology, the effects of load (i.e., amplitude) and boundary (i.e., confining pressure) conditions on granite damage under ultrahigh frequency impact have been investigated to promote the application of this technology in rock engineering. Experimental results demonstrate that the evolution law of the maximum radiation temperature on granite surface reflects the granite damage state. Under ultrahigh impact, granite specimens are damaged effectively with the impact amplitude exceeding 32μm, and the failure mode of the specimen is changed by the confining pressure. Depending on Griffiths theory, the extension angle of the fatigue crack changes from 60 to 30 degrees with increasing confining pressure. And the transverse fracture occurs in the upper part of the specimen under ultrahigh frequency impact subjected to confining pressure. This research determines the amplitude threshold of the ultrahigh frequency impact load and verifies the effectiveness of ultrahigh frequency impact technology for granite failure subjected to confining pressure.