This chapter introduces the concept of a “Quantum Object Code,” a fourfold structure based on quantized space, time, energy, and gravity that governs the emergence and behavior of quantum objects. This code arises from the interplay between the speed of light (c) and Planck’s constant (h), proposing an inverse proportionality where h defines a fundamental lower limit corresponding to the upper limit of c at the observable layer of reality (B-layer). This relationship is mathematically supported by combining electromagnetic and photoelectric equations, building upon Planck’s quantization of energy and Einstein’s concept of light quanta. The traditional constancy of c is challenged by evidence suggesting variations, supported by the Heisenberg Uncertainty Principle, theoretical meta-levels, and research on phenomena like the Scharnhorst effect, as discussed by Feynman and others. These variations in c are linked to wave-particle duality and the stability maintained by h. Crucially, this model posits that space, time, energy, and gravity are emergent and quantized due to the finite nature of c, forming the very basis of the proposed Quantum Object Code and providing a structured framework for understanding quantum phenomena.

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Quanta and Quantum Object Code

  • Pravir Malik

摘要

This chapter introduces the concept of a “Quantum Object Code,” a fourfold structure based on quantized space, time, energy, and gravity that governs the emergence and behavior of quantum objects. This code arises from the interplay between the speed of light (c) and Planck’s constant (h), proposing an inverse proportionality where h defines a fundamental lower limit corresponding to the upper limit of c at the observable layer of reality (B-layer). This relationship is mathematically supported by combining electromagnetic and photoelectric equations, building upon Planck’s quantization of energy and Einstein’s concept of light quanta. The traditional constancy of c is challenged by evidence suggesting variations, supported by the Heisenberg Uncertainty Principle, theoretical meta-levels, and research on phenomena like the Scharnhorst effect, as discussed by Feynman and others. These variations in c are linked to wave-particle duality and the stability maintained by h. Crucially, this model posits that space, time, energy, and gravity are emergent and quantized due to the finite nature of c, forming the very basis of the proposed Quantum Object Code and providing a structured framework for understanding quantum phenomena.