TY - JOUR
T1 - 3-D stress analysis using the Jones Matrix image fourier polarimetry technique
AU - Katsumata, Souichirou
AU - Sakaue, Kenichi
AU - Takashi, Masahisa
PY - 2005
Y1 - 2005
N2 - Although various kinds of optical techniques for the analysis of 3-D stress fields have been proposed up to date, they are still far from being satisfied. The integrated photoelastic technique is widely adopted in the analysis of 3-D stress field over the world including the Jones matrix image Fourier polarimetry Technique in this study. In the previous research, it has been confirmed that three optical parameters which has been related to stress components, can be measured in high accuracy, and the separation of stress components by the Simplex method was examined. Moreover, the authors successfully separated and determined the optical parameters in each laminated thin disk loaded in different directions each other standing on the equivalence theorem in polarimetry. In this paper, the authors evaluate laminated layer 2-D stress fields in a set of 3 sliced disks and compare them with an actual 3-D stress field under an equivalent loading condition. Namely, disks made of quartz 2mm and 3mm in thickness were loaded at several locations and directions to realize 3-D stress field. A 3-D stress field on laminated layers model was loaded in the similar condition. Since the phase difference and azimuth angle are measured in high accuracy, the technique is expected to be an effective technique for the analysis of actual 3-D stress field.
AB - Although various kinds of optical techniques for the analysis of 3-D stress fields have been proposed up to date, they are still far from being satisfied. The integrated photoelastic technique is widely adopted in the analysis of 3-D stress field over the world including the Jones matrix image Fourier polarimetry Technique in this study. In the previous research, it has been confirmed that three optical parameters which has been related to stress components, can be measured in high accuracy, and the separation of stress components by the Simplex method was examined. Moreover, the authors successfully separated and determined the optical parameters in each laminated thin disk loaded in different directions each other standing on the equivalence theorem in polarimetry. In this paper, the authors evaluate laminated layer 2-D stress fields in a set of 3 sliced disks and compare them with an actual 3-D stress field under an equivalent loading condition. Namely, disks made of quartz 2mm and 3mm in thickness were loaded at several locations and directions to realize 3-D stress field. A 3-D stress field on laminated layers model was loaded in the similar condition. Since the phase difference and azimuth angle are measured in high accuracy, the technique is expected to be an effective technique for the analysis of actual 3-D stress field.
KW - 3-D Photoelastisity
KW - Rotation of principal birefringence axes
KW - Separation of optical parameter
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U2 - 10.1117/12.621520
DO - 10.1117/12.621520
M3 - Conference article
AN - SCOPUS:28444479151
SN - 0277-786X
VL - 5852 PART I
SP - 245
EP - 250
JO - Proceedings of SPIE - The International Society for Optical Engineering
JF - Proceedings of SPIE - The International Society for Optical Engineering
M1 - 40
T2 - Third International Conference on Experimental Mechanics and Third Conference of the Asian Committee on Experimental Mechanics
Y2 - 29 November 2004 through 1 December 2004
ER -