Discrete Lens: An Analysis of Quantization as a Human Artifice in the Modeling of Reality
Year: 2025
Type: article
Abstract: This paper meticulously investigates the foundational tension in physics between continuous and discrete descriptions of reality. It rigorously posits that the pervasive and apparent quantization of the natural world is not solely an intrinsic feature of existence, but is profoundly shaped by a formal framework of five intricately stacked human-created artifices. Each layer introduces cumulative variance between our scientific models and an underlying, potentially continuous reality. These artifices are: (1) the mathematical artifice, the fundamental language of separation (integers, group theory, set theory, variables); (2) the procedural artifice, the formal grammar of quantization (canonical quantization, renormalization, lattice methods, regularization schemes); (3) the observational artifice, where measurement (wave function collapse, Quantum Zeno Effect, detector engineering) actively extracts discrete outcomes; (4) the taxonomic artifice, the grid of classification (elements, particle generations, quasiparticles, topological phases) that carves continuous spectra; and (5) the foundational artifice, the ultimate assumption of pixelation (Planck scale, black hole thermodynamics, quantum gravity models) projecting granularity onto spacetime itself. By deconstructing the historical and conceptual development of this framework, the analysis concludes that the continuous-versus-discrete debate may be a false dichotomy, stemming from the inherent limits and structural biases of our descriptive models. The discrete lens is presented not as a flaw, but as an indispensable tool for scientific modeling, ultimately co-creating the structured, intelligible reality we observe. Keywords: Quantization, Discrete vs. Continuous, Philosophy of Physics, Measurement Problem, Quantum Gravity, Scientific Modeling, Human Artifice, Epistemology, Foundations of Physics, Renormalization, Black Hole Thermodynamics, Group Theory, Set Theory, Quantum Zeno Effect, Emergence, Metaphysics, Regularization.
Author: Quni-Gudzinas, Rowan Brad
Institution: Oldham Council
Language: English
Subfield: Statistical and Nonlinear Physics
Field: Physics and Astronomy
Domain: Physical Sciences
Open Access status: green
OpenAlex ID: W7077516735
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