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Terubumi Honjou - One of the best experts on this subject based on the ideXlab platform.
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The Elementary Particle Pulsation Principle. the Complete Table of Contents.
viXra, 2016Co-Authors: Terubumi HonjouAbstract:Chapter1.Elementary Particle pulsation principle.[1] Basic concept of the Elementary Particle pulsation principle. [2] The concepts of Elementary Particle pulsation principle. and the existing facts. [3] The grounds that came up with the idea of the hypothesis of the pulsation principle.Its history. [4] The first step to Elementary Particle pulsation principle birth. [5] I built the geometric model of the Elementary Particle pulsation principle. [6] Summary of the Elementary Particle pulsation principle. [7] The hypothesis of the Elementary Particle pulsation principle. (The original of the 1980 announcement) [8] An Elementary Particle is a lump of the energy. It is super-high-speed and pulsates. The reason. [9] The application of the Elementary Particle pulsation principle. The grounds of the idea. [10] The characteristic list of the Elementary Particle pulsation principle. (Timing distinction). [11] Figure of the quantum-mechanical uncertainty principle. [12] The idea of Elementary pulsation principle apply the concepts. [13] Elementary pulsation principle concepts of theoretical physics puzzler. (1-33)
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Elementary Particle Pulsation Principle Hypothesis.
viXra, 2016Co-Authors: Terubumi HonjouAbstract:The author announced the Elementary Particle pulsation hypothesis in the Physical Society of Japan of 1980. To date, I study an Elementary Particle pulsation hypothesis. This page is the gravity in the Elementary Particle pulsation hypothesis and an article about the electromagnetic force.
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A Prime Number and Elementary Particle Pulsation Principle Hypothesis.(2).
viXra, 2016Co-Authors: Terubumi HonjouAbstract:The author announced the Elementary Particle pulsation hypothesis in the Physical Society of Japan of 1980. To date, I study an Elementary Particle pulsation hypothesis. The author contributed the article that let a prime number and physics fuse. youtube (December, 2012). This page is the gravity in the Elementary Particle pulsation hypothesis and an article about the electromagnetic force.
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The Correlation Chart with Elementary Particle Pulsation
viXra, 2016Co-Authors: Terubumi HonjouAbstract:1) An Elementary Particle is the quantum which assumed darkness energy to meet outer space a place and repeats a Particle trip, a wave trip, the pulsation of the minus number Particle trip. 2)The pulsation is expressed in the wave function of the Schrodinger equation, and the real number axis of the equation is equivalent to horizon (mc²=0) of the pulsation model. 3)The wave packet representing the Particle which an equation shows is Elementary Particle pulsation, and the natural collapse of the wave packet does not occur. It is not a pilot wave leading a Particle. 4)The Elementary Particle has minus number mass by original mass, a minus number Particle trip by a Particle trip, and it is a Particle having size intermittently, and it is by the wave trip with the point that there is not of the size. 5)All mass of the Elementary Particle converts it into energy by a pulsatile wave trip and are released in the horizon (three-dimensional space) and it is absorbed again and becomes the Particle. 6)Negative energy is offset plus every pulsation 1 cycle, and the energy grand total of the place of the dark energy to pulsate becomes zero. (supersymmetry).
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The Elementary Particle Has Size Intermittently.
viXra, 2016Co-Authors: Terubumi HonjouAbstract:Hypothesis of the Elementary Particle pulsation principle By the wave trip that electromagnetic willpower acts on, the Elementary Particle "is the point" that does not have size. By a Particle trip and the minus number Particle trip, the Elementary Particle has size. The Elementary Particle of the Particle trip has size, but the electric charge does not last. An electric charge is not distributed over the inside such as an electron or the proton with size. The power that acted in the end of the Elementary Particle because the Elementary Particle of the Particle trip with size is not a rigid body does not act more than velocity of light in the end of the other side. The Elementary Particle is not rigid, but it is not disintegrated by outside action such as the enlargement. Around an electron or a proton with an electric charge, a cloud of the photon group is distributed as a pulsatile ripple, but, as for the wave (material wave) of the dark energy, as for the energy grand total, it is with zero by offset (supersymmetry) of the energy with a mountain and the valley of the wave every pulsation 1 cycle, and it is not with infinite energy, the infinite mass. The gravitation is similar and a virtual gravity baby and the outbreak with the gravitational field continue like a chain reaction and do not become infinite energy, the infinite mass. The energy grand total of a pulsating place is zero. It is equivalent to what it adds only the original energy of the material wave to it adopts only modulus squared of the equation of the material wave (dark energy), and to calculate, and it is a proper result that an energy grand total becomes infinite.
E P J De Haas - One of the best experts on this subject based on the ideXlab platform.
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a dark matter halo for every Elementary Particle in a zwicky de broglie synthesis
viXra, 2015Co-Authors: E P J De HaasAbstract:In this paper I introduce a new Dark matter hypothesis. I assume that every Elementary Particle has a Dark Matter halo. Given a rest mass m_0 at r=0, it will have an additional spherical Dark Matter halo containing an extra mass in the sphere with radius r as m_DM = (r/R_DM)m_0 with the constant Dark Matter radius R_DM having a measured value somewhere in between 10 kpc and 20 kpc, so approximately once or twice the radius of an average luminous galaxy. The total rest mass of an Elementary Particle contained within a sphere with radius r will then be given by m = m_0 + (r/R_DM)m_0. The correlated mass density is \rho_DM = m_0/(4 pi r^2 R_DM). The new Newtonian gravitational energy will be U_g = - GM_0 m_0/r - G M_0 m_0/R_DM resulting in an unchanged Newtonian force of gravity but with a correct galaxy velocity rotation curve, due to the still applicable virial energy theorem. The axiom is theory of gravity neutral because it is a statement about mass and mass density distribution only. But it implies that WIMP's and the like aren't necessary to explain Dark Matter; my proposal isn't WIMP neutral. Beyond the scale of galaxy clusters the model becomes problematic due to an extra halo halo interaction term becoming active at that scale.
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the baryonic tully fisher relation combined with the Elementary Particle dark matter halo hypothesis lead to a universal dark matter gravitational acceleration constant for galaxies
viXra, 2015Co-Authors: E P J De HaasAbstract:In this paper I combine the Elementary Particle Dark matter halo hypothesis with the Baryonic Tully-Fisher relation. It results in a universal Dark Matter galaxy gravitational centripetal acceleration and connects the galaxy specific Dark Matter radius uniquely to the galaxy rotation curve's final velocity. This allows the precise operational definition of the galaxy specific Dark Matter density function and mass function.
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a critical review of mond from the perspective of the dark matter halo for every Elementary Particle model
viXra, 2015Co-Authors: E P J De HaasAbstract:In this paper I look at MOND from the perspective of my Elementary Particle Dark matter halo hypothesis. First I repeat the core elements of my model, in order for the paper to be self contained. Then I show how the energy equation for the rotation curve with an extra constant term can give the natural but deceptive impression that Newton's Laws have to be corrected for the ultra low regime, if this energy perspective is missing. Special attention is given to the virtual aspect of the acceleration, virtual as in not caused by Newton's force of gravity, due to a constant kinetic energy caused by the Dark Matter halo at large distances. The rotation curve equations are discussed and the one from my model is given. Conclusions are drawn from the $\Lambda$CDM core-cusp problem in relation to this new perspective on MOND as hiding a Dark Matter model perspective. My model might well be the bridge between MOND at the galactic scale and $\Lambda$CDM at the cosmic level.
P Vogel - One of the best experts on this subject based on the ideXlab platform.
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comparison of continuum random phase approximation and the Elementary Particle model for the inclusive muon neutrino reaction on 12c
Nuclear Physics, 1997Co-Authors: E Kolbe, K Langanke, P VogelAbstract:Abstract We have shown previously that the continuum random phase approximation (CRPA) reproduces the muon capture rate on 12 C and the inclusive 12 C( ν e , e − ) 12 N cross section for Michel spectrum neutrinos, while it overestimates the inclusive 12 C( ν μ , μ − ) 12 N cross section for the LAMPF pion decay-in-flight ν μ neutrino beam. On the other hand, the Elementary Particle model of Mintz and collaborators is in rough agreement with the ν μ LAMPF data using the muon capture rate as input. In this paper we show that the CRPA also consistently reproduces inelastic electron scattering data at the excitation energies in 12 C probed by the LAMPF experiment. To understand the different results of the two models, we compare the assumptions of the Elementary Particle model with the results of the CRPA and discuss whether experiments can decide which of them is correct.
K Langanke - One of the best experts on this subject based on the ideXlab platform.
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comparison of continuum random phase approximation and the Elementary Particle model for the inclusive muon neutrino reaction on 12c
Nuclear Physics, 1997Co-Authors: E Kolbe, K Langanke, P VogelAbstract:Abstract We have shown previously that the continuum random phase approximation (CRPA) reproduces the muon capture rate on 12 C and the inclusive 12 C( ν e , e − ) 12 N cross section for Michel spectrum neutrinos, while it overestimates the inclusive 12 C( ν μ , μ − ) 12 N cross section for the LAMPF pion decay-in-flight ν μ neutrino beam. On the other hand, the Elementary Particle model of Mintz and collaborators is in rough agreement with the ν μ LAMPF data using the muon capture rate as input. In this paper we show that the CRPA also consistently reproduces inelastic electron scattering data at the excitation energies in 12 C probed by the LAMPF experiment. To understand the different results of the two models, we compare the assumptions of the Elementary Particle model with the results of the CRPA and discuss whether experiments can decide which of them is correct.
Michael E. Peskin - One of the best experts on this subject based on the ideXlab platform.
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Concepts of Elementary Particle Physics - Tools for Calculation
Concepts of Elementary Particle Physics, 2019Co-Authors: Michael E. PeskinAbstract:This chapter discusses the calculation of quantities observable in Elementary Particle reactions — cross sections and partial decay widths. It introduces relativistic phase space. It introduces Feynman diagrams and describes their role in visualizing Elementary Particle reactions.
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Concepts of Elementary Particle Physics - Detectors of Elementary Particles
Concepts of Elementary Particle Physics, 2019Co-Authors: Michael E. PeskinAbstract:This chapter discusses the detection and measurement of Elementary Particles. It describes mechanisms of the energy loss of relativistic Particles in matter and the use of those mechanisms to create tracking and calorimetric detectors. It then describes detector systems for high-energy Particle colliders.
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supersymmetry in Elementary Particle physics
Lectures given at Exploring New Frontiers Using Colliders and Neutrinos (TASI 2006) Boulder Colorado 4-30 Jun 2006, 2008Co-Authors: Michael E. PeskinAbstract:These lectures give a general introduction to supersymmetry, emphasizing its application to models of Elementary Particle physics at the 100 GeV energy scale. I discuss the following topics: the construction of supersymmetric Lagrangians with scalars, fermions, and gauge bosons, the structure and mass spectrum of the Minimal Supersymmetric Standard Model (MSSM), the measurement of the parameters of the MSSM at high-energy colliders, and the solutions that the MSSM gives to the problems of electroweak symmetry breaking and dark matter.
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supersymmetry in Elementary Particle physics
arXiv: High Energy Physics - Phenomenology, 2008Co-Authors: Michael E. PeskinAbstract:These lectures, presented at the 2006 TASI summer school, give a general introduction to supersymmetry, emphasizing its application to models of Elementary Particle physics at the 100 GeV energy scale. I discuss the following topics: the construction of supersymmetric Lagrangians with scalars, fermions, and gauge bosons, the structure and mass spectrum of the Minimal Supersymmetric Standard Model (MSSM), the measurement of the parameters of the MSSM at high-energy colliders, and the solutions that the MSSM gives to the problems of electroweak symmetry breaking and dark matter.