This study delves into the overlooked significance of the wave theory of matter within contemporary physics.Originating from de Broglie's pioneering wave theory and further advanced by Helmecke and Herkenrath into a theory of squared sinusoidal waves, this paper explores its far-reaching implications for nuclear physics.A novel atomic model is introduced, portraying protons, neutrons, and electrons as rotating arch waves 1 .This model crucially demonstrates how the disintegration of these fundamental particles results in the collapse of their wave structure.The paper further discusses the mass effects exhibited by electromagnetic waves, as evidenced in phenomena like the photoelectric effect.This provides a solid foundation for a deeper understanding of matter's properties.The study asserts that uniform building blocks across all elements are not just a theoretical construct but are substantiated by contemporary scientific analyses, underscoring its relevance to particle physics and nuclear fusion research 2-5 .Additionally, the energy potential harnessed from the wave theory is examined, highlighting how destabilizing the paths of squared sinusoidal waves could unlock novel avenues for energy production.The paper also sheds light on the possible economic and industrial impacts of this theory, especially concerning the current energy sector and the shift towards renewable energy sources 6 .In its conclusion, the paper notes a paradox: despite the promising potential of the wave theory, it encounters resistance in the scientific community due to prevailing financial and political interests.This observation invites a broader conversation on the acceptance and integration of innovative scientific ideas in our modern world 7 .
This study delves into the overlooked significance of the wave theory of matter within contemporary physics.Originating from de Broglie's pioneering wave theory and further advanced by Helmecke and Herkenrath into a theory of squared sinusoidal waves, this paper explores its far-reaching implications for nuclear physics.A novel atomic model is introduced, portraying protons, neutrons, and electrons as rotating arch waves 1 .This model crucially demonstrates how the disintegration of these fundamental particles results in the collapse of their wave structure.The paper further discusses the mass effects exhibited by electromagnetic waves, as evidenced in phenomena like the photoelectric effect.This provides a solid foundation for a deeper understanding of matter's properties.The study asserts that uniform building blocks across all elements are not just a theoretical construct but are substantiated by contemporary scientific analyses, underscoring its relevance to particle physics and nuclear fusion research 2-5 .Additionally, the energy potential harnessed from the wave theory is examined, highlighting how destabilizing the paths of squared sinusoidal waves could unlock novel avenues for energy production.The paper also sheds light on the possible economic and industrial impacts of this theory, especially concerning the current energy sector and the shift towards renewable energy sources 6 .In its conclusion, the paper notes a paradox: despite the promising potential of the wave theory, it encounters resistance in the scientific community due to prevailing financial and political interests.This observation invites a broader conversation on the acceptance and integration of innovative scientific ideas in our modern world 7 .
The overlooked narrative about the origin of quantum nature in atoms primarily stems from a close examination of two sequential events from the past. The first event was Einstein's attribution of quantum characteristics to light waves in his effort to elucidate the photoelectric effect, which ascribed both a corpuscular and wave nature to light. The second event involved de Broglie's proposal regarding the wave nature of material particles, such as electrons, suggesting that they too possessed both corpuscular and wave characteristics. This advancement led to the emergence of a new branch of mechanics, termed quantum mechanics, which posits that the energy associated with any particle cannot be continuously altered but can assume a specific or some finite value, thereby endowing energy with a quantum form. This quantum nature of matter was perceived to arise from its dual wave-particle nature. It was later revealed that this mechanics exhibits a probabilistic character, which has sparked considerable debate among physicists. Essentially, the prevailing question at that time revolved around how electrons are stabilized within atoms and how these atoms can emit light waves of specific frequencies. In addressing this question, physicists, despite their limited resources, conducted high-quality experiments during the initial three decades of the 20th century, yielding significant conclusions. However, they occasionally overlooked critical signals obtained from these experiments. Had they not done so, the current understanding of physics might have been markedly different. This paper seeks to reassess those signals that were intermittently disregarded and constructs a comprehensive narrative regarding the potential impact they could have had on the evolving mechanics of that era, as well as the alternative perspective of physics that might have emerged from them.
The overlooked narrative about the origin of quantum nature in atoms primarily stems from a close examination of two sequential events from the past. The first event was Einstein's attribution of quantum characteristics to light waves in his effort to elucidate the photoelectric effect, which ascribed both a corpuscular and wave nature to light. The second event involved de Broglie's proposal regarding the wave nature of material particles, such as electrons, suggesting that they too possessed both corpuscular and wave characteristics. This advancement led to the emergence of a new branch of mechanics, termed quantum mechanics, which posits that the energy associated with any particle cannot be continuously altered but can assume a specific or some finite value, thereby endowing energy with a quantum form. This quantum nature of matter was perceived to arise from its dual wave-particle nature. It was later revealed that this mechanics exhibits a probabilistic character, which has sparked considerable debate among physicists. Essentially, the prevailing question at that time revolved around how electrons are stabilized within atoms and how these atoms can emit light waves of specific frequencies. In addressing this question, physicists, despite their limited resources, conducted high-quality experiments during the initial three decades of the 20th century, yielding significant conclusions. However, they occasionally overlooked critical signals obtained from these experiments. Had they not done so, the current understanding of physics might have been markedly different. This paper seeks to reassess those signals that were intermittently disregarded and constructs a comprehensive narrative regarding the potential impact they could have had on the evolving mechanics of that era, as well as the alternative perspective of physics that might have emerged from them.
The overlooked narrative about the origin of quantum nature in atoms primarily stems from a close examination of two sequential events from the past. The first event was Einstein's attribution of quantum characteristics to light waves in his effort to elucidate the photoelectric effect, which ascribed both a corpuscular and wave nature to light. The second event involved de Broglie's proposal regarding the wave nature of material particles, such as electrons, suggesting that they too possessed both corpuscular and wave characteristics. This advancement led to the emergence of a new branch of mechanics, termed quantum mechanics, which posits that the energy associated with any particle cannot be continuously altered but can assume a specific or some finite value, thereby endowing energy with a quantum form. This quantum nature of matter was perceived to arise from its dual wave-particle nature. It was later revealed that this mechanics exhibits a probabilistic character, which has sparked considerable debate among physicists. Essentially, the prevailing question at that time revolved around how electrons are stabilized within atoms and how these atoms can emit light waves of specific frequencies. In addressing this question, physicists, despite their limited resources, conducted high-quality experiments during the initial three decades of the 20th century, yielding significant conclusions. However, they occasionally overlooked critical signals obtained from these experiments. Had they not done so, the current understanding of physics might have been markedly different. This paper seeks to reassess those signals that were intermittently disregarded and constructs a comprehensive narrative regarding the potential impact they could have had on the evolving mechanics of that era, as well as the alternative perspective of physics that might have emerged from them.
This chapter examines the wave properties of matter. Early attempts to extend the quantum ideas to the theory of matter had some limited success, but did not progress very far. Another radical idea was required before a satisfactory theory could be developed. As light has both wave and particle properties, perhaps the same is true of 'ordinary' particles such as electrons. This bold suggestion was made by Louis de Broglie in 1923, and within a few years it had been confirmed experimentally. De Broglie's wave hypothesis formed the basis for Schrödinger's equation, which was found capable of predicting the allowed energy levels in atoms and molecules, and must be regarded as one of the most important mathematical equations of modern science. Before discussing these ideas, the chapter begins by considering the classical mechanics of particles, reviewing some simple concepts that form an essential background to the quantum theory of matter.
The famous 1927 Solvay Conference was considered a turning point in the world of Physics. The scientific realists like Albert Einstein had lost and the instrumentalists like Niels Bohr had won the fundamental conflict. Since then Physics has followed the path of the instrumentalists in which Quantum Physics has been determined by the concept of Elementary Particles and Probability Waves. Until May 2013, when for the first time a photo had been made of the Probability Waves Inside the Hydrogen Atom . It should be impossible to make a photo of a non-existing complex probability wave with mass zero But the fact could not be denied anymore that scientists had succeeded to make the complex and non-existing visible. This will be the fundamental question in this article. Does an alternative theory exist in which the existence of this particular photo could be explained. And that the famous photo of the Hydrogen Atom can be explained in a logical and a simple way. To find the answer, we have to go back in time. Back 300 years in time to the moment when Isaac Newton discovered the beauty and one of the many secrets of the light. The moment when science walked away from light. And we return to the fundamental question: “Is it possible to build matter out of Light (confined electromagnetic waves)?” To answer this question we first have to answer the question how we have come to this world of Probability Waves and Elementary Particles and Quantum Physics.Louis de Broglie described in 1924 in his PhD thesis the wave properties of matter. Erwin Schrödinger published in 1926 the well-known Schrödinger wave equation with the characteristic spherical and elliptical wave solutions. To describe these material waves, the immediately and first explanation was: “There is only one possibility. These are “electromagnetic waves”. De Broglie waves are ” Light Waves”. Because these were the only waves, known in the world of Physics. But there was a fundamental problem. These material waves, discovered by Louis de Broglie and mathematically described by Erwin Schrödinger could never be solutions of the well-known 4 equations of James Clerk Maxwell. The material waves were spherical and elliptical solutions and that was impossible for the solutions of the Maxwell Equations. According to the Maxwell Equations, light always travels along a straight path. A second problem was that the model of the atom of Bohr could not hold. How could an electron be everywhere at the same time in a kind of a spherical shell surrounding the nucleus. And be a particle at the same time. And Bohr found a compromise to declare the “De Broglie” waves to be the probability waves. Two problems were solved. Bohr’s planetary model could hold. And there was a name for the unknown material waves, discovered by Louis de Broglie and mathematically described by Erwin Schrödinger. The theory of “Probability Waves, Elementary Particles and Quantum Physics” had been created. To find a possibility, to create matter out of light we have to go back to the Equations of James Clerk Maxwell. The only possibility to declare the probability waves, discovered by Louis de Broglie, to be electromagnetic waves, to be light, and to be the building element of our universe, is to find evidence that he Maxwell Equations are not complete and that it is possible to confine light (electromagnetic waves) in spherical and elliptical shapes. A new equation has to be found. In this article it has been claimed that this missing equation is equation (5). Because the Theory of General Relativity has been built on the Einstein-Maxwell Equation, a new equation has to be found that describes in a generalized way the interaction between light and matter. This missing equation is equation (5-a).
By offering mathematical frameworks and experimental techniques for characterising matter, energy, space, time, and their interactions, physics plays a crucial role in comprehending the nature of reality. The evolution of contemporary physics, from classical mechanics and electromagnetism to quantum mechanics and relativity, has profoundly altered our comprehension of the cosmos and put traditional ideas of determinism, locality, causation, and observation to the test. The contribution of modern physics theories to our comprehension of reality at the microscopic and cosmological sizes is examined in this paper. The measurement problem, entanglement, quantum information, quantum physics, and the connection between physical information and the emergence of observable reality are all given special emphasis. The study also looks at how understanding space, time, matter, and the structure of the cosmos is affected by general relativity, quantum field theory, and new theories of quantum gravity. Additionally, the potential connection between information, awareness, and physical processes is rigorously examined, separating accepted scientific findings from theoretical and philosophical interpretations. The study shows that relationships, information, and physical rules may be a more fundamental way to define reality than traditional ideas of independently existent objects by combining findings from theoretical physics, quantum information science, and philosophy of physics. The study concludes that while unanswered problems about quantum measurement, the origin of spacetime, and consciousness point to significant avenues for future multidisciplinary research, physics is still a potent framework for examining fundamental reality.