The Nature of Light and Matter a Background for the Quantum Theory

Luca Salasnich

M. A. TIJANI

Key Areas of the Consciousness Physics Research Project:•Entanglement Is Fundamental to the Universe: The Temic Principle of Consciousness Entanglement•Gravity: A consequence of Big Bang expansion/explosion by Fundamental Consciousness, a natural force•The Temic Theory of Gravity•The Temic Big Bang Principle: A generalization of the Big Bang in the Standard Big Bang Model•Fundamental Consciousness Wave Background (FCWB): FCWB, the Background Consciousness Wave of the Universe; how is it related to the Background Gravitational Wave of the Universe (GWB) and the Cosmic Microwave Background (CMB)?•The Temic Uncertainty Principle: A Generalization of Heisenberg's Uncertainty Principle•The Temic Superposition Principle: A Generalized version of the superposition principle•The Temic Principle of Consciousness-Energy Conservation: A generalized version of the principle of conservation of energy •Resolving the Einstein-Podolsky-Rosen Paradox (EPR)•The Temic Wave-Particle Duality: A generalization of the Wave-Particle Duality of Matter•Quantization of Conwaves•Objectivity, Observation, Measurement, and Subjectivity•The Temic Principle of Coherence•The Temic Principle of Conscious Perception•The Periodic Table of Lifeforms on Earth (PTL): A periodic table of living organisms on this planet based on their level of consciousness and other key factors essential to life•Applications: space exploration; time travel; brain-to-brain communication; transformator (converts matter to light, fermions to bosons, or light to matter, bosons to fermions)

Luca Salasnich

David V. Guerra

This chapter is centered upon the concepts of the quantum nature of light. It begins with a discussion of the photoelectric effect, which provides historical background and a vehicle to discuss the properties of photons. In addition, the photoelectric effect provides the starting point for the explanation of the production of X-rays. After a study of the X-ray spectrum, Compton scattering is introduced as another example of the photon nature of light. As an appendix, the second synthesis opportunity of the volume is presented about lasers. These quantum-electronic devices provide an opportunity to synthesize almost all the topics covered in the volume from the quantum nature of light and matter, to optics, electronics, and thermodynamics. This section is optional, but provides a way to bring the entire text together in the explanation of well-known devices.

Lin Zschiedrich, Felix Binkowski, Niko Nikolay +3 more

We introduce a theory to analyze the behavior of light emitters in nanostructured environments rigorously. Based on spectral theory, the approach opens the possibility to quantify precisely how an emitter decays to resonant states of the structure and how it couples to a background, also in the presence of general dispersive media. Quantification on this level is essential for designing and analyzing topical nanophotonic setups, e.g., in quantum technology applications. We use a numerical implementation of the theory for computing modal and background decay rates of a single-photon emitter in a diamond nanoresonator.

Dale M. Grimes, Craig A. Grimes