Shanwei Yang

Ms. Shanwei Yang


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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29 November 2016 in Sensors
Verified
Journal Article
Open access
PDF file
JQJie Qin
Jie Qin
Zhan GaoZhan Gao
Zhan Gao
XWXu Wang
Xu Wang
SYShanwei Yang
Shanwei Yang
A speckle interferometer which can measure whole field three-dimensional displacements continuously and dynamically has been built. Three different wavelength lasers are used to produce the speckle interferograms of the two in-plane displacements (displacements in the x- and y-direction) and one out-of-plane displacement (displacement in the z-direction), respectively. One color CCD camera is employed to collect these mixed speckle interferograms simultaneously. The mixed interferograms are separated by the Red, Green and Blue channels of the color CCD camera, and then are processed by the wavelet transform technique to extract the phase information of the measured object. The preliminary experiment is carried out to demonstrate the performance of this new device.

17 May 2018 in Applied Sciences
Verified
Journal Article
Open access
PDF file
SYShanwei Yang
Shanwei Yang
Zhan GaoZhan Gao
Zhan Gao
HAIHUI RUANHAIHUI RUAN
HAIHUI RUAN
CGChenjia Gao
Chenjia Gao
XWXu Wang
Xu Wang
XWXin Wen
Xin Wen
In this paper, a new non-contact and real-time measurement system for Kolsky bars is presented. This system uses two sets of temporal speckle interferometry in-plane displacement measurement devices to replace two strain gauges of conventional Kolsky bars. The in-plane displacement measurement of the Kolsky bar is mainly intended to provide a new test method for the dynamic mechanical properties of small-size material samples with diameters below 2 mm. This method is non-contact, does not require any intermediate medium, and can make the Kolsky bar applicable to characterizing the dynamic mechanical properties of materials under higher strain rates and smaller size conditions. The measuring devices and principles are described. In addition, a preliminary experiment is carried out to demonstrate the performance of this new device.