The author presents a simple algebraic quantum language sharpening and deepening that of Bohr, Heisenberg, and von Neumann, with its own epistemology, modal structure, and connectives. The core of the language is semigroup of physical actions. The work extends quantum algebra from first-order to high-order propositions, classes, and actions; from positive to indefinite metrics; and from quantum systems to quantum sets, quantum semigroups, and quantum groups. The reader learns the theory by applying it to simple quantum problems at gradually higher levels. The author applies the extended quantum theory to a spacetime structure, which was taken as a fixed part of the classical framework of the original quantum theory. This leads to a simple proposal connecting the internal variables of spin, color, and isospin with the fine structure of spacetime.

Klappentext

Over the past years the author has developed a quantum language going beyond the concepts used by Bohr and Heisenberg. The simple formal algebraic language is designed to be consistent with quantum theory. It differs from natural languages in its epistemology, modal structure, logical connections, and copulatives. Starting from ideas of John von Neumann and in part also as a response to his fundamental work, the author bases his approach on what one really observes when studying quantum processes. This way the new language can be seen as a clue to a deeper understanding of the concepts of quantum physics, at the same time avoiding those paradoxes which arise when using natural languages. The work is organized didactically: The reader learns in fairly concrete form about the language and its structure as well as about its use for physics.

Inhalt

Act 1 One.- 1. Quantum Action.- 1.1 The Quantum Evolution.- 1.2 Quantum Concepts.- 1.2.1 Initial and Final Modes.- 1.2.2 Quantum Relativity.- 1.2.3 Time.- 1.2.4 Being, Becoming and Doing.- 1.2.5 Ontism and Praxism.- 1.3 Quantum Entities.- 1.3.1 Sharp Actions.- 1.3.2 Complete Actions.- 1.3.3 Quantum Acts.- 1.3.4 Quantum Activity.- 1.3.5 Quantum Superposition.- 1.4 The Quantum Project.- 1.4.1 Understanding Quantum Theory.- 1.4.2 The Quantum-Relativity Analogy.- 1.5 Quantum Nomenclature.- 1.6 Summary.- 2. Elementary Quantum Experiments.- 2.1 Malusian Experiments.- 2.2 Adjoint.- 2.3 Action Vector Semantics.- 2.3.1 General Actions.- 2.3.2 Action Vectors of Classical Systems.- 2.3.3 Equivalent Actions.- 2.3.4 Semantics and Ensembles.- 2.3.5 Logic, Kinematics, and Dynamics.- 2.3.6 Complex Vectors.- 2.3.7 Adjoint and Time Reversals.- 2.4 Quantum and Classical Kinematics.- 2.4.1 Classical Kinematics.- 2.4.2 Bohr Quantum Principle.- 2.4.3 Quantum Kinematics.- 2.4.4 Logical Modes.- 2.4.5 Causes.- 2.4.6 Completeness.- 2.4.7 Connectedness.- 2.5 Quantum and Classical Relativities.- 2.6 Sums Over Paths.- 2.7 Discrete Quantum Theory.- 2.8 Summary.- 3. Classical Matrix Mechanics.- 3.1 Operations and Cooperations.- 3.1.1 Classical Operators.- 3.1.2 Classical Cooperations and Coarrows.- 3.1.3 Linearization.- 3.1.4 Vacuum.- 3.2 Ordinates and Coordinates.- 3.2.1 Classical Eigenvalue Principle.- 3.2.2 Spectral Analysis.- 3.2.3 Complete Coordinates.- 3.2.4 OR, XOR, and POR.- 3.2.5 Averages.- 3.2.6 Framed Algebras.- 3.3 Some Classical Systems.- 3.3.1 Bit.- 3.3.2 N-ring.- 3.3.3 Bin and Commuting Calculus.- 3.3.4 Bits and Anticommuting Calculus.- 3.3.5 Top Bin.- 3.3.6 Extended Bin.- 3.4 Summary.- 3.5 References.- 4. Quantum Jumps.- 4.1 Quantum Arrows and Coarrows.- 4.1.1 Quantum Operations.- 4.1.2 Quantum Systems Are Not Categories.- 4.2 Adjoints and Metrics.- 4.2.1 Quantum Types.- 4.2.2 Negative Norms.- 4.2.3 Projections.- 4.2.4 Quantum Coordinates.- 4.2.5 Interpretations of Coordinates.- 4.2.6 Projective Coordinates.- 4.2.7 Non-numerical Coordinates.- 4.3 Transformation Theory.- 4.3.1 Frames.- 4.3.2 Operator Kinematics, Quantum and Classical.- 4.3.3 Quantum Entity.- 4.4 Quantizing.- 4.4.1 Re-relativizing.- 4.4.2 Rephasing.- 4.4.3 Quantization and Non-Commutativity.- 4.5 Born-Malus Law.- 4.6 Quantum Logic.- 4.6.1 Quantum Binary Variables.- 4.6.2 Quantum OR, POR, and XOR.- 4.6.3 Quantum Cooperations.- 4.7 Indefinite Quantum Kinematics.- 4.8 Simple Quantum Systems.- 4.8.1 Bit.- 4.8.2 Bin.- 4.8.3 Projective Quantum Bin.- 4.8.4 Indeterminacy Principle.- 4.8.5 Hydrogen Atom.- 4.8.6 Photon and Ghost.- 4.9 Summary.- 5. Non-Objective Physics.- 5.1 Descartes' Mathesis.- 5.2 Newton's Aether.- 5.2.1 Partial Reflection and Interference.- 5.2.2 Polarization.- 5.2.3 Diffraction.- 5.2.4 Quantum Principle.- 5.3 Planck's Constants.- 5.3.1 k is for Thermodynamics.- 5.3.2 c is for Special Relativity.- 5.3.3 G is for Gravity.- 5.3.4 h is for Quantum Theory.- 5.3.5 Planck Units.- 5.4 Einstein's Quantum.- 5.4.1 Photoelectric Effect.- 5.4.2 Unified Fields.- 5.4.3 How Did Newton Know?.- 5.5 Bohr's Atom.- 5.5.1 Correspondence Principle.- 5.6 Post-quantum Theories.- 5.6.1 Theory S.- 5.6.2 Theory N.- 5.6.3 Theory O.- 5.6.4 Theory E.- 5.6.5 Why So Many Theories?.- 6. Why Vectors?.- 6.1 Fundamental Theorem (Weak Form).- 6.2 Galois Lattices and Galois Connection.- 6.3 Multiplicity.- 6.4 Logic-based Arithmetic.- 6.4.1 Quantum-Logical Addition.- 6.4.2 Quantum-Logical Multiplication.- 6.5 Fundamental Theorem (Strong Form).- 6.5.1 Occlusion.- 6.5.2 Identification.- 6.5.3 Adjoint.- 6.5.4 Modularity.- 6.5.5 Irreducibility.- 6.5.6 Desarguesian Postulate.- 6.5.7 Proofs.- 6.6 Generators.- 6.7 Critique of the Lattice Logic.- 6.8 Summary.- Act 2 Many.- 7. Many Quanta.- 7.1 Classical Combinatorics.- 7.1.1 Ordered Pairs of Units.- 7.1.2 Unordered Pairs of Units.- 7.1.3 Symmetry and Duality.- 7.1.4 Sequence.- 7.1.5 Series.- 7.1.6 Sib.- 7.1.7 Set.- 7.2 Quantum Combinatorics.- 7.2.1 Quantum Sequence.- 7.2.2 Quantum Series.- 7.2.3 Quantum Sib.- 7.2.4 Quantum Set.- 7.3 Singleton.- 7.4 Why Tensors?.- 7.5 Summary.- 8. Quantum Probability and Improbability.- 8.1 Quantum Law of Large Numbers.- 8.1.1 Weak Law of Large Numbers.- 8.1.2 Strong Law of Large Numbers.- 8.2 Mixed Operations.- 8.2.1 Superpositions and Mixtures.- 8.2.2 Diffuse Initial Actions.- 8.2.3 Diffuse Final Actions.- 8.2.4 Diffuse Medial Actions.- 8.2.5 Coherent Cooperators.- 8.3 Classical Limit.- 8.3.1 Coherent States.- 8.3.2 Macroscopic Measurement.- 8.3.3 Equatorial Bulge.- 8.3.4 Coherent Plane.- 8.3.5 The ?qcs Process.- 8.4 Hidden States.- 9. The Search for Pangloss.- 9.1 Aristotle.- 9.2 Llull and Bruno.- 9.3 Leibniz.- 9.4 Grassmann.- 9.4.1 Extensors.- 9.4.2 Extensor Terminology.- 9.5 Boole.- 9.6 Peirce.- 9.6.1 Tychistic Logical Algebra.- 9.6.2 Synechism and Quantum Condensation.- 9.6.3 Nomic Evolution.- 9.7 Peano.- 9.8 Clifford.- 9.9 Summary.- 10. Quantum Set Algebra.- 10.1 Remarks on Set Algebra.- 10.2 Tensor Algebra of Sets.- 10.2.1 Opposite.- 10.2.2 Degree.- 10.2.3 Extensor Structure.- 10.2.4 Bases.- 10.2.5 Products.- 10.2.6 Complement.- 10.3 Recursive Construction.- 10.4 Infinite Sets.- 10.5 Classical, Mixed and Fully Quantum Set Algebras.- 10.6 Clifford Algebra.- 10.6.1 Classes as Clifford Extensors.- 10.6.2 Real Quantum Theory.- 10.6.3 Episystemic Variables.- 10.6.4 The Real World.- 10.7 Quantum Extensors.- 10.8 Summary.- Act 3 One.- 11. Classical Spacetime.- 11.1 Flat Spacetime.- 11.1.1 Chronometry.- 11.1.2 Causal Symmetry Implies Minkowski.- 11.1.3 Spinors and Minkowski.- 11.2 Causal Symmetries.- 11.2.1 Null Symmetric Metric.- 11.2.2 Poincaré.- 11.2.3 Lorentz.- 11.2.4 Infinitesimal Lorentz.- 11.3 Einstein Locality.- 11.3.1 Equivalence Principle.- 11.3.2 General Relativization.- 11.4 The Idea of Gauge.- 11.5 Tensor Differential Calculus.- 11.5.1 Covariant Derivative.- 11.5.2 Distortion.- 11.5.3 Curvature.- 11.5.4 Ricci Tensor.- 11.5.5 Torsion Tensor.- 11.6 Gravity.- 11.6.1 Special Relativistic Gravity.- 11.6.2 Einstein Gravity.- 11.7 Spin.- 11.7.1 Spinors and Polyspinors.- 11.7.2 Spin Algebra.- 11.7.3 Sesquispinors.- 11.7.4 Spin Adjoint.- 11.7.5 Spacetime Decomposition of Spin.- 11.7.6 Dirac Spinors.- 11.8 Spin Gauge.- 11.9 S…