The paper is a rather informal introduction to the concepts and results of the E-infinity Cantorian theory of quantum physics. The fundamental tools of complexity theory and non-linear dynamics (Hausdorff dimensions, fat fractals, etc.) are used to give what we think to be a new interpretation of hi
VAK, vacuum fluctuation and the mass spectrum of high energy particle physics
β Scribed by M.S El Naschie
- Publisher
- Elsevier Science
- Year
- 2003
- Tongue
- English
- Weight
- 720 KB
- Volume
- 17
- Category
- Article
- ISSN
- 0960-0779
No coin nor oath required. For personal study only.
β¦ Synopsis
We introduce a fundamental hypothesis identifying quantum vacuum fluctuation with the vague attractor of Kolmogorov, the so-called VAK. This Hamiltonian conterpart of a dissipative attractor is then modelled by e ð1à , topology as a ''limit set'' of a wild dynamics generated by M⬠o obius-like transformation of space. We proceed as follows: First we give an introduction to the e ð1à quantum spacetime theory from the point of view of nonlinear dynamics, complexity, string and KAM theory. Subsequently we give without proof several theorems and conjectures that we consider to be fundamental to the foundation of any general theory for high energy particles interaction. The final picture seems to be a synthesis between compactified Kleinian groups acting on an essentially nonlinear dynamics of a KAM system which enables us to give a very accurate estimation of the mass spectrum of the standard model and further still we are granted a glimpse into the physics of grand unification as well as quantum gravity. It is concluded that VAK in the infinite dimensions of e ð1à is a valid model for stable quantum states.
π SIMILAR VOLUMES
The essay outlines the basic conceptual framework of a new space-time theory with application to high energy particle physics. Both achievements and limitations are discussed with direct reference to the mass spectrum problem.
The paper gives an outline of e Γ°1Γ theory in the context of quantum gravity and small world network topology. The so gained insights are subsequently used to elucidate the derivation of the mass spectrum of high energy particles physics.
In the present work we give an introduction to the e Γ°1Γ Cantorian space-time theory. In this theory every particle can be interpreted as a scaling of another particle. Some particles are a scaling of the proton and are expressed in terms of / and a 0 . Following the VAK suggestion of El Naschie, th