The geometry of quantum potential : entropic information of the vacuum

Description

Machine generated contents note: ch. 1 The Geometry of the Quantum Potential in Different Contexts -- 1.1. Bohm's Original 1952 Approach on the Quantum Potential -- 1.2. The Geometrodynamic Information of the Quantum Potential -- 1.2.1. Grossing's thermodynamic approach to the quantum potential -- 1.2.2. Quantum potential as an information channel of a special superfluid vacuum -- 1.3. About the Link Between Weyl Geometries and the Quantum Potential -- 1.3.1. Weyl's conformal geometrodynamics -- 1.3.2. Santamato's geometric interpretation of quantum mechanics -- 1.3.3. Novello's, Salim's and Falciano's approach of quantum mechanics as a manifestation of the non-euclidean geometry -- 1.4. The Quantum Potential in the Relativistic Domain -- 1.4.1. The quantum potential in Bohm's approach to Klein-Gordon relativistic quantum mechanics -- 1.4.2. About a Bohmian approach to the Dirac relativistic quantum mechanics -- 1.5. The Quantum Potential in Relativistic Quantum Field Theory -- 1.5.1. The quantum potential in bosonic quantum field theory -- 1.5.2. The quantum potential in fermionic quantum field theory -- 1.6. The Quantum Potential in Bohmian Quantum Gravity -- 1.6.1. Bohm's quantum potential in relativistic curved space-time -- 1.6.2. Bohm's quantum potential in quantum gravity -- 1.7. The Quantum Potential in Bohmian Quantum Cosmology -- 1.7.1. F. Shojai's and A. Shojai's geometrodynamic approach to Wheeler-de Witt equation -- 1.7.2. Pinto-Neto's results about bohmian quantum cosmology -- 1.7.3. The quantum potential and the cosmological constant -- 1.8. About the Quantum Potential in the Treatment of Entangled Qubits -- ch. 2 Quantum Entropy and Quantum Potential -- 2.1. The Quantum Entropy as the Ultimate Source of the Geometry of Space in the Non-Relativistic Domain -- 2.2. The Quantum Entropy in Bohm's Approach to the Klein-Gordon Relativistic Quantum Mechanics -- 2.3. About the Quantum Entropy in a Bohmian Approach to the Dirac Relativistic Quantum Mechanics -- 2.4. Perspectives of the Quantum Entropy in Bohm's Relativistic Quantum Field Theory -- 2.5. The Quantum Entropy as the Ultimate Source of the Geometry of Space in the Relativistic de Broglie-Bohm Theory in Curved Space-Time -- 2.6. The Quantum Entropy as the Ultimate Source of the Geometry of Space in Bohmian Quantum Gravity -- 2.7. The Quantum Entropy as the Ultimate Source of the Geometry of Space in Bohmian Quantum Cosmology -- 2.8. About the Geometrodynamics of Bohm's Quantum Potential in an Entropic Approach in the Condition of Fisher Information -- ch. 3 Immediate Quantum Information and Symmetryzed Quantum Potential -- 3.1. The Symmetrized Quantum Potential in the Non-relativistic Domain -- 3.2. The Quantum Geometry in the Symmetrized Quantum Potential Approach -- 3.3. The Symmetrized Quantum Potential Approach in the Relativistic de Broglie-Bohm Theory in Curved Space-time -- 3.4. Towards a Symmetrized Extension of Bohm's Relativistic Quantum Field Theory -- 3.5. The Symmetrized Quantum Potential for Gravity in the Context of Wheeler-deWitt Equation -- ch. 4 The Quantum Potential and the Quantum Vacuum -- 4.1. The Space-time Arena and the Quantum Vacuum -- 4.2. Bohm's Quantum Potential Approach as the Epistemological Foundation of the Quantum Vacuum -- 4.3. From Bohm's View to Kastner's Possibilist Transactional Interpretation and Chiatti's and Licata's Approach about Transactions -- 4.4. From Transactions to a Three-dimensional Timeless Non-local Quantum Vacuum to the Emergence of the Geometrodynamics of Standard Quantum Theory from the Non-local Quantum Vacuum -- 4.5. About the Behaviour of Subatomic Particles in the Three-dimensional Timeless Non-local Quantum Vacuum -- 4.6. Unifying Perspectives of the Non-local Quantum Potential of the Vacuum.