Close range photogrammetry is a sensing technique that allows the three-dimensional coordinates of selected points on a surface of almost any dimension and orientation to be assessed. Surface characterisations of paraboloidal reflecting surfaces at the ANU using photogrammetry have indicated that three-dimensional coordinate precisions approaching 1:20,000 are readily achievable using this technique. This allows surface quality assessments to be made of large solar collecting devices with a precision that is difficult to achieve with other methods.
Issue Section:
Research Papers
1.
Beyer, H. A., 1995, “Digital photogrammetry in industrial applications,” ISPRS Intercommission Workshop “From Pixels to Sequences,” Zurich, Switzerland, pp. 373–378.
2.
Elfick
M. H.
1986
, “MPS2—A new analytical photogrammetric system for small format photography
,” International Archives of Photogrammetry and Remote Sensing
, Vol. 26
, No. 2
, pp. 607
–614
.3.
Fraser
C. S.
1986
, “Microwave antenna measurement by photogrammetry
,” Photogrammetric Engineering and Remote Sensing
, Vol. 52
, No. 10
, pp. 1627
–1635
.4.
Fraser
C. S.
1992
, “Photogrammetric measurement to one part in a million
,” Photogrammetric Engineering and Remote Sensing
, Vol. 58
, No. 3
, pp. 305
–310
.5.
Fraser
C. S.
Shortis
M. R.
1995
, “Metric exploitation of still video imagery
,” The Photogrammetric Record
, Vol. 15
, No. 85
, pp. 107
–122
.6.
Grossman, J. W., 1994, “Development of a 2f Optical Performance Measurement System,” Proceedings, ASME Joint Solar Engineering Conference, pp. 25–32.
7.
Gustafson
P. C.
1990
, “Photogrammetric surveys of the mirror support cell of the Keck optical telescope
,” International Archives of Photogrammetry and Remote Sensing
, Vol. 28
, No. 5/1
, pp. 417
–424
.8.
Karara, H. M., ed., 1989, Non-Topographic Photogrammetry, 2nd ed., ASPRS Science and Engineering Series, Falls Church, VA.
9.
Kowarschik, R., Ku¨hmstedt, P., and Schreiber, W., 1993, “3-coordinate measurements with structured light,” 2nd International Workshop on Automatic Processing of Fringe Patterns, Akademie Verlag Physical Research Series, Berlin, pp. 204–208.
10.
Nadeborn, W., Andra¨, P., and Osten, W., 1993, “Model Based Identification of System Parameters in Optical Shape Measurement,” 2nd International Workshop on Automatic Processing of Fringe Patterns, Akademie Verlag Physical Research Series, Berlin, pp. 215–221.
11.
Sainov, V., 1993, “Accuracy and Dynamic Range in Shape Measurement of Large-Format Objects,” 2nd International Workshop on Automatic Processing of Fringe Patterns, Akademie Verlag Physical Research Series, Berlin, pp. 182–187.
12.
Slama, C. C, ed., 1980, Manual of Photogrammetry, 4th ed., American Society for Photogrammetry, Falls Church, VA.
13.
Shortis, M. R., 1983, “Deformation analysis and monitoring by close range photogrammetry,” Symposium on the Surveillance of Engineering Structures, Department of Surveying, University of Melbourne, Australia, Paper #8.
14.
Shortis
M. R.
1988
, “Precision evaluations of digital imagery for close range photogrammetric applications
,” Photogrammetric Engineering and Remote Sensing
, Vol. 54
, No. 10
, pp. 1395
–1401
.15.
Shortis
M. R.
Hall
C. J.
1989
, “Network design methods for close range photogrammetry
,” Australian Journal of Geodesy, Photogrammetry and Surveying
, Vol. 50
, pp. 51
–72
.16.
Shortis, M. R., 1993, “CRAMPA Reference Guide,” Version 1.1, Department of Surveying and Land Information, University of Melbourne, Australia.
17.
Wendelin, T. J., Jorgensen, G. J., and Wood, R. L., 1991, “SHOT: A Method for Characterising the Surface Figure and Optical Performance of Point Focus Solar Concentrators,” Second ASME-JSES-JSME International Solar Energy Conference, Reno, NV, pp. 555–560.
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