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Why Michelson and Morley Expected the Wrong Result from Their Experiment

Cyrus Master-Khodabakhsh

Published Jun 1, 2017• 0 citations
OpenAlex

Abstract

This paper endeavours to explain why light and elementary particles have dual wave and particle characteristics, and proposes a physical interpretation of Huygens’ principle. It also explains why the famous Michelson and Morley experiment did not give the expected result, and to show that it did, in fact, detect the ether but was not correctly interpreted.

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"Our Universe does not have a real cosmic medium". "Light is fundamentally dual, comprising a wave aspect and a particle aspect". These two statements are jointly present in most physics textbooks, but they are logically incompatible. The argument against mediation is based on the outcome of the Michelson-Morley experiment. It only works under the assumption that light is a running wave in the ether, similar to a sound wave in the air. Without such an assumption, invariance only proves that the speed of light is not the speed of a wave. If light has a dual nature, then the speed of light is the speed of the particle aspect. In quantum mechanics, it can be described as the speed of the photon. Classical models would suggest that the speed of light is equal to the rate of mutual generation of electric and magnetic fields across space. Alternatively, the speed of light can be described as the speed of a train of fields, propagating like a stream of particles. There is no room for running waves in these models, except as a constituent element of static fields. For a coherent account of our knowledge, the second statement should be preserved, and the first one should be rejected.

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The wave-particle dual nature of light was discovered from experimental observations and from theoretical works of Max Planck and Albert Einstein during the beginning of the twentieth century. This paper reveals that wave-particle duality is just one aspect of the all dual nature of light (electromagnetic waves) and electromagnetic fields and that light and electromagnetic fields manifest dual natures in other ways also. For example, light is not only a local phenomenon as conventionally viewed, but also a non-local phenomenon. Light behaves both according to ether theory and emission theory. The speed of light is both constant (c) and variable ( c ± V). The phase velocity of light is independent of source and observer velocity and is always constant c, while the group velocity of light varies with observer velocity but is independent of source velocity. Light acts as if it travels both in a straight line and in curved path, at the same time! Electrostatic lines of force behave as if they are both straight and curved lines. Electrostatic fields behave as if they ‘propagate’ both at the speed of light and with infinite speed, at the same time! This paper is a summary of the findings reported in previous papers published by this author. An extensive theoretical research carried out by this author in an attempt to explain the Michelson-Morley experiment, the Sagnac effect and other light speed experiments led to uncovering of the broader and more fundamental nature of duality in electromagnetism.

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Phenomena of interference and Young’s double slit experiment : A Review

Seema

The double-slit experiment in quantum mechanics is an experiment devised by physicist Thomas Young. It shows that light has both a wave nature or characteristic and a particle nature or characteristic, and that these natures are inseparable. So light is said to have wave–particle duality rather than be only a wave or only a particle. The same is true of electrons and other quantum particles. Although Christiaan Huygens thought that light was a wave, Isaac Newton did not. Newton felt that there were other explanations for color, and for the interference and diffraction effects that were observable at the time. Owing to Newton’s tremendous stature, his view generally prevailed. The fact that Huygens’s principle worked was not considered evidence that was direct enough to prove that light is a wave. The acceptance of the wave character of light came many years later when, in 1801, the English physicist and physician Thomas Young (1773–1829) did his now-classic double slit experiment

Innovative Research Thoughts•Mar 30, 2018•0 citations
This paper endeavours to explain why light and elementary particles have dual wave and particle characteristics, and proposes a physical interpretation of Huygens’ principle. It also explains why the famous Michelson and Morley experiment did not give the expected result, and to show that it did, in fact, detect the ether but was not correctly interpreted.
"Our Universe does not have a real cosmic medium". "Light is fundamentally dual, comprising a wave aspect and a particle aspect". These two statements are jointly present in most physics textbooks, but they are logically incompatible. The argument against mediation is based on the outcome of the Michelson-Morley experiment. It only works under the assumption that light is a running wave in the ether, similar to a sound wave in the air. Without such an assumption, invariance only proves that the speed of light is not the speed of a wave. If light has a dual nature, then the speed of light is the speed of the particle aspect. In quantum mechanics, it can be described as the speed of the photon. Classical models would suggest that the speed of light is equal to the rate of mutual generation of electric and magnetic fields across space. Alternatively, the speed of light can be described as the speed of a train of fields, propagating like a stream of particles. There is no room for running waves in these models, except as a constituent element of static fields. For a coherent account of our knowledge, the second statement should be preserved, and the first one should be rejected.
The wave-particle dual nature of light was discovered from experimental observations and from theoretical works of Max Planck and Albert Einstein during the beginning of the twentieth century. This paper reveals that wave-particle duality is just one aspect of the all dual nature of light (electromagnetic waves) and electromagnetic fields and that light and electromagnetic fields manifest dual natures in other ways also. For example, light is not only a local phenomenon as conventionally viewed, but also a non-local phenomenon. Light behaves both according to ether theory and emission theory. The speed of light is both constant (c) and variable ( c ± V). The phase velocity of light is independent of source and observer velocity and is always constant c, while the group velocity of light varies with observer velocity but is independent of source velocity. Light acts as if it travels both in a straight line and in curved path, at the same time! Electrostatic lines of force behave as if they are both straight and curved lines. Electrostatic fields behave as if they ‘propagate’ both at the speed of light and with infinite speed, at the same time! This paper is a summary of the findings reported in previous papers published by this author. An extensive theoretical research carried out by this author in an attempt to explain the Michelson-Morley experiment, the Sagnac effect and other light speed experiments led to uncovering of the broader and more fundamental nature of duality in electromagnetism.
The double-slit experiment in quantum mechanics is an experiment devised by physicist Thomas Young. It shows that light has both a wave nature or characteristic and a particle nature or characteristic, and that these natures are inseparable. So light is said to have wave–particle duality rather than be only a wave or only a particle. The same is true of electrons and other quantum particles. Although Christiaan Huygens thought that light was a wave, Isaac Newton did not. Newton felt that there were other explanations for color, and for the interference and diffraction effects that were observable at the time. Owing to Newton’s tremendous stature, his view generally prevailed. The fact that Huygens’s principle worked was not considered evidence that was direct enough to prove that light is a wave. The acceptance of the wave character of light came many years later when, in 1801, the English physicist and physician Thomas Young (1773–1829) did his now-classic double slit experiment