PhotonIcs and Electromagnetics Research Symposium,
also known as Progress In Electromagnetics Research Symposium
PIERS Proceedings
Published: 2015-07-09
Geometry and Its Physical Meaning
By
Proceedings of 2015 Photonics & Electromagnetics Research Symposium, Prague, July 6 - 9,Page(s)45-50
Abstract
Until the end of 1800s, the graphical aspect of geometry used to be compared to the external world, called “physical space”, and justified on the basis of mechanics. As a con- sequence of the foundational crisis of mathematics, geometry switched to axiomatic programs and disengaged from the physical intuition of space. Its logical structure was formalized and further developed, neglecting geometrical constructions. Endorser of formalist programs, physics evolved toward more and more sophisticated interpretations of the world, also supported by advancements of surveying and measurement techniques. Physical laws are regarded as interpre- tative algorithms tied to recurring process patterns, no longer as interpretations of a code that Nature is written in the language of. What got lost during that transition, in our opinion, is the ability to avail of both experience and deduction in geometrical models of field theories, so as to provide a logical foundation for interpreting the extent in a physically meaningful way. In particular, (1) irrespectively of whatever code, the optical channel does convey a huge amount of the data, which our experience consists of, and (2) geometry allows to model non-optical elec- tromagnetic signals consistently with the optical ones, so as to analyze them uniformly. In this paper, we stem from models entailed by geometrical optics and discuss the relationships among them, imaging based on projective geometry, and mathematical analysis.
Citation
Sara Liyuba Vesely, and Alessandro Alberto Vesely, "Geometry and Its Physical Meaning," Proceedings of 2015 Photonics & Electromagnetics Research Symposium, Prague, July 6 - 9,Page(s)45-50
References

1. Rodin, A., On constructive axiomatic method, 2014.        Google Scholar

2. Mach, E., The Science of Mechanics and The Open Court Publishing Co. and Chicago and 1919., , 1919.        Google Scholar

3. Herman, R. A., A Treatise on Geometrical Optics and University Press and Cambridge and 1900., R. A., 1900.        Google Scholar

4. Cauer, W., Synthesis of Linear Communication Networks and McGraw-Hill and New York and 1958., , 1958.        Google Scholar

5. Bloomfield, P., Fourier Analysis of Time Series. An Introduction and Wiley-Interscience and New York and 2000., , 2000.        Google Scholar

6. Pfeil, Albrecht v., Frank Wyrowski, Andreas Drauschke, and Harald Aagedal, "Analysis of optical elements with the local plane-interface approximation," Applied Optics, Vol. 39, No. 19, 3304, July 2000.
doi:10.1364/ao.39.003304        Google Scholar

7. Braunmühl, and A. and, Historische Studien über die organische Erzeugung ebener Curven von den ältesten Zeiten bis zum 18. Jahrhundert.        Google Scholar

8. Harman, P. M., The Natural Philosophy of James Clerk Maxwell and Cambridge University Press and Cambridge and 2001., P. M., 2001.        Google Scholar

9. Whittaker, E. T., The Theory of Optical Instruments and Cambridge University Press and Cambridge and 1907., E. T., 1907.        Google Scholar

10. Fantappiè and L. and, "Überblick über die theorie der analytischen funktionale und ihre Anwendun- gen,", 1-25, 1934.        Google Scholar

11. Biederman, Irving, "Human image understanding: Recent research and theory," Computer Vision, Graphics, and Image Processing, Vol. 31, No. 3, 400–401, September 1985.
doi:10.1016/0734-189x(85)90050-7        Google Scholar

12. Ronchi, Vasco, "Classical optics is a mathematical science," Archive for History of Exact Sciences, Vol. 1, No. 2, 160–171, December 1960.
doi:10.1007/bf00327402        Google Scholar