A previous conceptual work, called the Cordus conjecture, has proposed a non-local hidden-variable (NLHV) design for the photon, and thereby proposed a solution to photon entanglement and wave-particle duality. This paper applies a systems design approach to extend the theory to matter, specifically to differentiate between the matter-antimatter species. This concept rests on two premises: that particules have span (physical separation between reactive ends); and that their externally emitted discrete forces have an energisation sequence. Specific hidden-variable models are proposed for the electron, positron, and proton. This concept provides a better explanation of the difference between matter and antimatter in ways that make physical sense. It also provides foundational concepts from which new solutions to other problems, like annihilation and baryogenesis, can be envisaged. The Cordus theory goes beyond conventional NLHV solutions, such as the de Broglie-Bohm model, by offering a solution not only for the inner contents of a particle, the hidden variables, but also predicting how its discrete fields operate. This theory provides a physically natural explanation for spin, handedness, chirality, and related directional attributes of particles, which are otherwise only abstract concepts in quantum mechanics. The theory also explains parity violation, and why the photon does not have an antiparticle. This work makes a conceptual contribution of presenting a new concept of handedness and the matter-antimatter species differentiation. It demonstrates the potential of hidden-variable designs to provide solutions of high explanatory power. Une etude conceptuelle precedente, appelee conjecture Cordus, a propose une variable cachee non-locale (VCNL) pour le photon, et ainsi propose une solution a l'enchevetrement des photons et la dualite onde-particule. Cet article applique une approche de conception des systemes afin d'etendre la theorie de la matiere, en particulier pour differencier les especes matiereantimatiere. Ce concept repose sur deux piliers: que les particules ont une distance (separation physique entre les extremites reactives), et que leurs forces discretes emises vers l'exterieur ont une sequence de mise sous tension. Des modeles de variables cachees sont proposees specifiquement pour l'electron, le positron et le proton. Ce concept offre une meilleure explication de la difference entre matiere et antimatiere dans des termes physiques comprehensibles. Il fournit egalement des concepts fondamentaux a partir desquels de nouvelles solutions a d'autres problemes, comme l'aneantissement et la baryogenese, peuvent etre PREPRINT Please cite this paper as: Pons DJ, Pons AD, Pons AJ (2014) Differentiation of Matter and Antimatter by Hand: Internal and External Structures of the Electron and Antielectron. Physics Essays 27:26-35 No DOI, instead please see this link to the journal page. A preprint is available on the physics archive at http://vixra.org/abs/ 1305.0157
A previous conceptual work, called the Cordus conjecture, has proposed a non-local hidden-variable (NLHV) design for the photon, and thereby proposed a solution to photon entanglement and wave-particle duality. This paper applies a systems design approach to extend the theory to matter, specifically to differentiate between the matter-antimatter species. This concept rests on two premises: that particules have span (physical separation between reactive ends); and that their externally emitted discrete forces have an energisation sequence. Specific hidden-variable models are proposed for the electron, positron, and proton. This concept provides a better explanation of the difference between matter and antimatter in ways that make physical sense. It also provides foundational concepts from which new solutions to other problems, like annihilation and baryogenesis, can be envisaged. The Cordus theory goes beyond conventional NLHV solutions, such as the de Broglie-Bohm model, by offering a solution not only for the inner contents of a particle, the hidden variables, but also predicting how its discrete fields operate. This theory provides a physically natural explanation for spin, handedness, chirality, and related directional attributes of particles, which are otherwise only abstract concepts in quantum mechanics. The theory also explains parity violation, and why the photon does not have an antiparticle. This work makes a conceptual contribution of presenting a new concept of handedness and the matter-antimatter species differentiation. It demonstrates the potential of hidden-variable designs to provide solutions of high explanatory power. Une etude conceptuelle precedente, appelee conjecture Cordus, a propose une variable cachee non-locale (VCNL) pour le photon, et ainsi propose une solution a l'enchevetrement des photons et la dualite onde-particule. Cet article applique une approche de conception des systemes afin d'etendre la theorie de la matiere, en particulier pour differencier les especes matiereantimatiere. Ce concept repose sur deux piliers: que les particules ont une distance (separation physique entre les extremites reactives), et que leurs forces discretes emises vers l'exterieur ont une sequence de mise sous tension. Des modeles de variables cachees sont proposees specifiquement pour l'electron, le positron et le proton. Ce concept offre une meilleure explication de la difference entre matiere et antimatiere dans des termes physiques comprehensibles. Il fournit egalement des concepts fondamentaux a partir desquels de nouvelles solutions a d'autres problemes, comme l'aneantissement et la baryogenese, peuvent etre PREPRINT Please cite this paper as: Pons DJ, Pons AD, Pons AJ (2014) Differentiation of Matter and Antimatter by Hand: Internal and External Structures of the Electron and Antielectron. Physics Essays 27:26-35 No DOI, instead please see this link to the journal page. A preprint is available on the physics archive at http://vixra.org/abs/ 1305.0157
A previous conceptual work, called the Cordus conjecture, has proposed a non-local hidden-variable (NLHV) design for the photon, and thereby proposed a solution to photon entanglement and wave-particle duality. This paper applies a systems design approach to extend the theory to matter, specifically to differentiate between the matter-antimatter species. This concept rests on two premises: that particules have span (physical separation between reactive ends); and that their externally emitted discrete forces have an energisation sequence. Specific hidden-variable models are proposed for the electron, positron, and proton. This concept provides a better explanation of the difference between matter and antimatter in ways that make physical sense. It also provides foundational concepts from which new solutions to other problems, like annihilation and baryogenesis, can be envisaged. The Cordus theory goes beyond conventional NLHV solutions, such as the de Broglie-Bohm model, by offering a solution not only for the inner contents of a particle, the hidden variables, but also predicting how its discrete fields operate. This theory provides a physically natural explanation for spin, handedness, chirality, and related directional attributes of particles, which are otherwise only abstract concepts in quantum mechanics. The theory also explains parity violation, and why the photon does not have an antiparticle. This work makes a conceptual contribution of presenting a new concept of handedness and the matter-antimatter species differentiation. It demonstrates the potential of hidden-variable designs to provide solutions of high explanatory power.
Problem- There are deep unanswered questions about photon emission, specifically how the field structures of the photon emerge from the electron. While this problem cannot be answered from within quantum mechanics, due to its premise that particles are zero dimensional points, other theories of physics have better prospects. Purpose- A conceptual theory is developed for the processes of photon emission and absorption, in a non-local hidden-variable (NLHV) design called the Cordus theory. Approach- Logical inference is used to predict the structures of the discrete fields of the photon and electron under this framework. From this is extracted an explanation of how electron bonding constraints require the electron to emit its excess energy, and how the photon is created and emerges from the electron. Findings- Emission is found to be an escapement mechanism whereby matter particles that are over-prescribed in position can get rid of that energy, and the details of this are explained. The results show excellent qualitative agreement with classical electromagnetic wave theory and quantum mechanics, many conceptual features of which can be recovered. Originality- A novel conceptual theory is developed for the processes of photon emission and absorption. Particularly important here is the proposed causality whereby bonding constraints affect geometric span of the particule, which affects frequency. Hence this constrains the energy that the electron can contain, and explains why the emitted photon has a specific quantum of energy. A second contribution is the proposed differentiation between the discrete fields of the photon and electron. This yields an explanation for the exponential nature of the evanescent field, and recovery of the inverse radius squared relationship for the electro-magneto-gravitational fields. The theory also offers a physical interpretation of the fine structure constant α as a measure of the transmission efficacy of the fabric, i.e. α determines the relationship between the electric constant of the vacuum fabric, and the speed of propagation c through the fabric. There is further novelty in achieving this from the non-local hidden-variable sector of physics. Implications- Quantum mechanics originated with the observation that the movement of electrons between orbitals resulted in emission of photons with discrete quanta of energy. However it does not explain how the transitions occur. The original contribution here is showing that a solution does exist in NLHV physics. Assuming this is valid then the implications are that particles have internal structure and that quantum mechanics is merely a quantitative statistical summary of a deeper physics.
La lumière est un excellent candidat comme support d'information quantique en raison de la possibilité de réaliser des qubits optiques qui peuvent être transmis par des fibres optiques, manipulés au moyen de l'optique linéaire et interfacés avec la matière.La dualité onde-particule de la lumière a conduit à deux type d' encodages, traditionnellement séparés, de l'information quantique : une approche "à variables discrètes" (DV), basée par exemple sur des photons uniques, et une approche "à variables continues" (CV), qui repose sur des degrés de liberté continus tels que l'amplitude et la phase d'un champ lumineux.Les deux régimes présentent des avantages et des inconvénients spécifiques. L'approche DV a donné lieu à de nombreuses expériences révolutionnaires et permet de réaliser la téléportation avec une fidélité proche de l'unité, mais elle est dans la plupart des cas probabiliste et affectée par les limites des détecteurs de photons uniques. À l'inverse, l'approche CV peut bénéficier d'opérations inconditionnelles et d'une discrimination d'état non ambiguë, mais elle souffre d'une forte sensibilité aux pertes et de fidélités intrinsèquement limitées. Dans ce contexte, très récemment, l'hybridation entre les outils et concepts DV et CV a été envisagée comme une approche clé pour rassembler les avantages des deux régimes et contourner leurs limitations individuelles.Cette thèse s'inscrit dans cette démarche émergente mais potentiellement puissante. Plus précisément, elle explore l'intrication hybride entre des qubits optiques de type particule et de type onde. Cette ressource photonique complexe réunit les approches DV et CV et promet, entre autres, de transférer l'information d'un codage à l'autre. Dans la perspective d'applications futures des états hybrides aux communications longue distance sur fibres optiques et aux réseaux quantiques, la thèse se concentre en particulier sur l'étude et la réalisation d'états hybrides avec codage en time-bin sur le qubit de type particule. En time-bin, l'information est codée sur deux temps de génération/détection des photons. Par rapport aux autres approches, ce type d'encodage est particulièrement bien adapté à toute application impliquant des liaisons par fibre optique, car il est particulièrement robuste aux pertes et à la dispersion de polarisation. Dans le même esprit, la thèse explore également des ressources originales s'appuyant sur l'optique intégrée comme technologie habilitante pour la mise en œuvre future, hors laboratoire, de technologies quantiques basées sur l'intrication hybride.
PROBLEM- There are many integration problems of fundamental physics that still lack ontologically coherent solutions. NEED- There is a need to find a new theory of physics with wide-ranging logical consistency. The idea that particles could have internal structure has long been a consideration in the development of theories of physics, as evidenced in the EPR criticism (Einstein, Podolsky, & Rosen, 1935). DIFFICULTY- However Local hidden-variable solutions are excluded by the Bell-type inequalities and by the empirical evidence of entanglement. The non-local hidden-variable (NLHV) sector is not entirely excluded on theoretical grounds. However, if any solution existed it would have to be counterintuitive as all the obvious candidates have been excluded [4]. Unfortunately the hidden-variable sector has proved incapable of offering suitable solutions. APPROACH- Conceptual design methods were borrowed from engineering design and applied to create an initial conjectural solution for the double-slit device. This was then validated against multiple other phenomena. RESULTS- This paper offers a candidate solution, in the form of a new theory of physics wherein particles have internal structures. This Cordus theory proposes a specific structure for particles, for both the structure internal to the particle and the nature of the external discrete field emissions. FINDINGS- It also has good external construct validity, as it: explains path dilemmas in interferometers; recovers basic laws of optics from first principles (reflection, refraction, Brewster’s angle); identifies the causes of contextual measurement; explains the transition from coherence to discoherence; explains pair-production and annihilation; offers a solution to the asymmetrical baryogenesis and leptogenesis problems; explains time dilation; conceptually unifies the electro-magneto-gravitational forces with the strong interaction; explains the selective spin attributes of the neutrino species; predicts the internal structure of the atomic nucleus and explains the stability, instability and non-existence of the table of nuclides from Hydrogen to Neon. ORGINALITY- The Cordus theory is a novel conceptual framework for fundamental physics. It shows that a specific structure of particles has excellent explanatory power for many phenomena. The strengths of the theory are: Explanatory (ontological) power; Coherent solution across multiple phenomena; Offers candidate solutions to otherwise intractable problems. IMPLICATIONS- The Bell-type inequalities are falsified. Physical realism is re-asserted. The stochastic nature of the wave-function is subsumed in a deeper explanation. The theory is not inimical to quantum mechanics, which it reinterprets as a stochastic approximation of a deeper determinism. The new theory has philosophical implications because it shows that it is possible to conceive of a solution for fundamental physics that is grounded in physical realism. The theory therefore rebuts the idea that the deeper level of physics is purely mathematical, and it rejects the many-worlds interpretation.
The purpose of this paper was to look for non-local designs of particles. We show that the Bell-type theorems are not proof against a hidden variable solution, by presenting such a model complete with the first level of internal functional structures. A design method was used to infer the internal structures that would be necessary to explain the observed phenomena of entanglement. The result is a novel model called the cordus particule, which is proposed to have two reactive ends that are separated in space. The model proposes the internal structures and provides mechanisms showing how the external behaviour arises from those structures. A mechanism is given for superluminal entanglement. The model predicts outcomes from Bell-type tests that are consistent with empirical results. This shows that it is conceptually possible to create hidden-variable solutions that are based on physical sub-structures. We suggest that the better interpretation of entanglement and the Bell-type theorems is that both local realism and the zero-dimensional point construct are false. The cordus model produces a new concept for the mechanism for locality and the extents thereof, and implies the need to abandon strict locality and local realism, at least at the deeper level. Nonetheless an approximate retention of both locality and realism is provided. The results suggest it is worthwhile questioning the established ideas of physics regarding the composition of particules, and we particularly identify the zero-dimensional point construct as ripe for revision.
La lumière est un excellent candidat comme support d'information quantique en raison de la possibilité de réaliser des qubits optiques qui peuvent être transmis par des fibres optiques, manipulés au moyen de l'optique linéaire et interfacés avec la matière.La dualité onde-particule de la lumière a conduit à deux type d' encodages, traditionnellement séparés, de l'information quantique : une approche "à variables discrètes" (DV), basée par exemple sur des photons uniques, et une approche "à variables continues" (CV), qui repose sur des degrés de liberté continus tels que l'amplitude et la phase d'un champ lumineux.Les deux régimes présentent des avantages et des inconvénients spécifiques. L'approche DV a donné lieu à de nombreuses expériences révolutionnaires et permet de réaliser la téléportation avec une fidélité proche de l'unité, mais elle est dans la plupart des cas probabiliste et affectée par les limites des détecteurs de photons uniques. À l'inverse, l'approche CV peut bénéficier d'opérations inconditionnelles et d'une discrimination d'état non ambiguë, mais elle souffre d'une forte sensibilité aux pertes et de fidélités intrinsèquement limitées. Dans ce contexte, très récemment, l'hybridation entre les outils et concepts DV et CV a été envisagée comme une approche clé pour rassembler les avantages des deux régimes et contourner leurs limitations individuelles.Cette thèse s'inscrit dans cette démarche émergente mais potentiellement puissante. Plus précisément, elle explore l'intrication hybride entre des qubits optiques de type particule et de type onde. Cette ressource photonique complexe réunit les approches DV et CV et promet, entre autres, de transférer l'information d'un codage à l'autre. Dans la perspective d'applications futures des états hybrides aux communications longue distance sur fibres optiques et aux réseaux quantiques, la thèse se concentre en particulier sur l'étude et la réalisation d'états hybrides avec codage en time-bin sur le qubit de type particule. En time-bin, l'information est codée sur deux temps de génération/détection des photons. Par rapport aux autres approches, ce type d'encodage est particulièrement bien adapté à toute application impliquant des liaisons par fibre optique, car il est particulièrement robuste aux pertes et à la dispersion de polarisation. Dans le même esprit, la thèse explore également des ressources originales s'appuyant sur l'optique intégrée comme technologie habilitante pour la mise en œuvre future, hors laboratoire, de technologies quantiques basées sur l'intrication hybride.