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Costescu, Corneliu I.
- Towards a Mechanism Type Structure for Light, Part I: Crucial Verification of how Light Spreads at Large Distances; Experimental Design, Non-wave Results and Consequences for Light, Gravity, Generally for Physics
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Authors
Affiliations
1 Agora Lab, 1113 Fairview Ave, Urbana, IL 61801,, US
2 National Institute of Materials Physics,, RO
3 Agora Lab, 1113 Fairview Ave, Urbana, US
1 Agora Lab, 1113 Fairview Ave, Urbana, IL 61801,, US
2 National Institute of Materials Physics,, RO
3 Agora Lab, 1113 Fairview Ave, Urbana, US
Source
Journal of Physics & Astronomy, Vol 10, No 11 (2022), Pagination: 1-23Abstract
We recognize that the spreading of light at large distances (the whole space) is the only property which can decide by yes or no if light really behaves physically like waves, while the fit of the waves for describing the diffraction fringes is insufficient for this purpose. Indeed, the fringe space is too limited and hence, brings the possibility of misinterpretation. Hence, the experiment for the direct verification if light is spreading like waves at large distances is necessary in principle, and is crucial. However, very surprisingly and tragically, this direct experiment was totally missing in history. This experiment uses the simplest diffraction case, in which a beam of light falls perpendicularly with its axis on the line and the plane of a straight edge. Practically, this experiment verifies if there is a dependence of the diffracted light at large distances in the geometrical shadow, on the changes in beam thickness traversal to a single straight edge, while the distribution of light along the straight edge remains the same. If this dependence exists, as the wave theory for light fundamentally predicts, then the wave approach to light is physically true. If there is no dependence then light cannot behave physically like waves. This experiment can clearly be developed and performed without any calculation from the wave approach, just by a careful measurement practice. However, for a broader view, we describe in detail wave results for spreading of light at large distance, which illustrate the experiment–what are the spatial points where the measurement must be done to see if the above dependence exists, and which is the big picture for the wave approach. We attempted this experiment for many years, but could not finish it because of the lack of resources to measure at 100 m–500 m. However, we show alternatively that the answer to how light spreads also comes from comparing the well-known wave results for the diffraction on macroscopic holes with relatively recent data for the diffraction on nanoscopic holes. This comparison clearly shows that light does not spread physically like waves, which makes necessary a new, non-wave but periodic structure for light. On this line, we show here the big-picture for developing this non-wave structure, that is a mechanismtype structure for light. With this new structure for light one can see that there is also a missing experiment at the foundation of gravity. Finally, the above alternative answer regarding the spreading of light also makes absolutely necessary to perform the above missing experiment, as a direct way that convinces anybody how light is spreading. The present article will empower big labs to perform this crucial experiment.Keywords
Light spreading at large distances; Missing experiment for the wave approach.References
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- Pearson JE, McGill TC, Kurtin S, et al. Diffraction of Gaussian laser beams by a semi-infinite plane. JOSA. 1969;59(11):1440-5.
- Born M, Wolf E. Principles of optics: electromagnetic theory of propagation, interference and diffraction of light. Elsevier; 2013.
- The CVI Melles Griot Technical Guide, All Things Photonic,2(1)
- Yariv A. Optical electronics in modern communications. Oxford University Press, USA; 1997.
- Siegman AE. Lasers. Univ. sci. books; 1986.
- Abramowitz M. Handbook of mathematical functions, National Bureau of Standards. Appl. Math. Ser. 1964(55).
- K.S. Kölbig, C335: Complex Error Function, Mathlib gen, CERN Library, Submitted 1970, Revised, 1993.
- W. Gautschi, Algorithm 363, Complex Error Function, Collected Algorithms from CACM (1969).
- Gautschi W. Some elementary inequalities relating to the gamma and incomplete gamma function. J. Math. Phys. 1959;38(1):77-81.
- Kölbig KS. Certification of algorithm 363 [S15]. Commun. ACM. 1972;15(6):465-6.
- Yariv A. Quantum electronics. John Wiley & Sons; 1989.
- Part II: The Feasibility and the Consequences of a Mechanism-Type Structure for Light Based on a Non-Wave but Periodic Spreading in Free Space
Abstract Views :84 |
PDF Views:1
Authors
Affiliations
1 Agora Lab, 1113 Fairview Ave, Urbana, IL 61801,, US
1 Agora Lab, 1113 Fairview Ave, Urbana, IL 61801,, US
Source
Journal of Physics & Astronomy, Vol 10, No 12 (2022), Pagination: 1-26Abstract
In a previous article we draw the attention that the spreading of light at large distances (the whole space) is the only property which can decide by yes or no if light really spreads physically like waves, while the fit of the waves for describing the diffraction fringes is insufficient for this purpose. Indeed, the fringe space is too limited and hence, brings the possibility of misinterpretation. Hence, the experiment for the verification if light is spreading like waves at large distances is necessary in principle, and is crucial. However, very surprisingly and tragically, this experiment was totally missing in history. As described in detail in the previous article, this experiment uses the simplest diffraction case, in which a beam of light falls perpendicularly with its axis on the line and the plane of a straight edge. Practically, this experiment verifies if there is a dependence of the diffracted light at large distances in the geometrical shadow, on the changes in beam thickness traversal to a single straight edge, while the distribution of light along the straight edge remains the same. If this dependence exists, as the wave theory for light fundamentally predicts, then the wave approach to light is spreading physically true. If there is no dependence then light cannot behave physically like the waves do. We attempted this experiment for many years, but could not finish it because of the lack of resources to measure at 100m–500 m. Our detailed description and attempt for this experiment, presented in the previous article, will empower big labs to perform this absolutely necessary experiment. However, our previous article also shows the alternative experimental proof that the answer to how light spreads also comes from comparing the well-known wave results for the diffraction on macroscopic holes with relatively recent data for the diffraction on nanoscopic holes. This comparison clearly shows that light does not spread physically like the waves do, which clearly demonstrates the necessity of a new, mechanism-type, non-wave but periodic structure for light in free space. Such an alternative answer regarding the spreading of light also makes absolutely necessary to perform the above missing experiment, as a direct way that convinces anybody how light is spreading. The present article shows that such a new structure for light is feasible based on the concept of finely dispersed matter or dark matter, with immense consequences in physics. This would be the start for further developments, or for alternative and better developments.Keywords
Light spreading at large distances; Missing experiment for light; Bi-structure - a mechanism-type non-wave structure for light.References
- Costescu C.I., Costescu M.R., Costescu D.M., Towards the mechanism-type structure for light. Part I. Crucial verification of how light spreads at large distances: experimental design, non-wave results and consequences for light, gravity, generally for physics. J. Phys. Astron.2022;10(11):310.
- J.W. Goodman, Introduction to Fourier Optics, pg. 245, (McGraw-Hill, NY, 1968)
- Yi JM, Cuche A, de León-Pérez F, et al. Diffraction regimes of single holes. Physical review letters. 2012;109(2):023901.
- Yi JM. Diffraction of single holes through planar and nanostructured metal films (Doctoral dissertation, Université de Strasbourg).
- Borovikov VA, Borovikov VA, Kinber BY, et al. Geometrical theory of diffraction. Iet; 1994.
- James GL. Geometrical theory of diffraction for electromagnetic waves. IET; 1986.
- Morton N. Thomas Young and the theory of diffraction. Phys. Educ. 1979;14(7):450.
- Goodman W. Statistical Optics, J. Wilwy & Sons. Inc., New York. 1985.
- O.S. Heavens, R.W. Ditchburn, “Insight into Optics”, John Wiley & Sons, Chichester, 199.
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- Part III: The Systematic Practice of the Method of Broad Thinking on the Major Opposing Views, as the Only Way to See the Missing Facts and to adopt Functional and Wise Views for the Problems and Solutions at the Foundations of Light, Physics, Science in General, and of Society
Abstract Views :92 |
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Authors
Affiliations
1 Agora Lab, 1113 Fairview Ave, Urbana, IL 61801, USA., US
1 Agora Lab, 1113 Fairview Ave, Urbana, IL 61801, USA., US
Source
Journal of Physics & Astronomy, Vol 11, No 2 (2023), Pagination: 01-09Abstract
We show here the missing way along history for growing functional, stable and wise broad views in physics, generally in science and society, instead of dysfunctional views that are based on missing facts and we show that this way brings the stability that is absolutely necessary for the inherently unstable science and society. This way is based on a systematic practice of the method for broad thinking on the major opposing views that empowers people to see the missing facts at the foundation of science and society, and to see and adopt the solutions for functional, stable and wise structures instead of ones dominated by crises, conflicts, wars, and self-destruction. This method was, long time ago, the basis for initiating the broad views of Atomism and Democracy, but was insufficiently practiced and later it was forgotten. We describe here the demonstration of this method for two major cases. One case is for the major opposing views on light in physics (a summary of Part I and Part II) which shows the missing fact at the foundation of light (how light spreads at large distances) and a mechanism-type structure for light instead of the current non-mechanism, physically impossible, structure (light spreads like waves, but nothing oscillates). In the second case the demonstration is for the opposing views of liberals and conservatives in society which shows the missing system at the foundation of society – the system for growing common ground and functional, stable and wise broad views, individual and society. These cases and demonstrations are important enough to show that this method can and must be systematically practiced in physics/ science and especially in society. Learning this method and these two demonstrations turns on the necessary “light” in physics and in society, and becomes the basis for a systematic practice of this method. This is necessary because, as M.L. King said, “Darkness cannot drive out darkness, only light can do that.” Therefore, in our time a system for spreading the concept and the practice of this simple method is absolutely necessary, such that this method becomes a habit for the regular individual and society. Indeed, in this model the individual and the society see the big-picture knowledge for growing functional common ground and functional, stable and wise broad views, science and society, instead of poor views, division, conflicts, wars, and self-destruction. Without this big-picture people, science and society live in darkness. We show here that such a system is easy feasible based on simple requirements in the science activity and in the Constitution of society. In our time this method can and must be practiced systematically to define and adopt a system for growing functional common ground and functional, stable and wise broad views instead of poor views, division, etc.Keywords
Method for Broad Thinking; Major Opposing Views; Functional, Stable and Wise Broad Views; Individual, Science and Society.References
- Costescu C.I., Costescu R.M., Costescu D.M, “Towards a mechanism-type structure for light, Part I. The crucial verification of how light spreads at large distances, experimental design, non-wave results and consequences for light, gravity, generally for physics.”, J. Phys. Astron.2022;10(11):1-23.
- Costescu C.I., “Part II: The Feasibility and the Consequences of a Mechanism-Type Structure for Light Based on a NonWave but Periodic Spreading in Free Space.”, J. Phys. Astron.2022;10(12):1-26.
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- James GL. Geometrical theory of diffraction for electromagnetic waves. IET; 1986.
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