Standard quantum mechanics offers remarkably preciseempirical predictions but often frames microscopicmechanisms through complex differential formalismsand probabilistic clouds. This paperpresents an algebraic-geometric reconstruction of selectedstationary-state quantum-mechanical relationsby introducing two foundational framework axioms:treating time (t) as a reference measure for indexingstate transitions rather than a dynamic variable, anddefining a physical Field as a local geometric constraintstructure F(x). By coupling an independent geometricwave-matching postulate (L = nλ) with the establishedde Broglie relation (p = h/λ), we algebraically reconstructBohr angular momentum quantization and thediscrete hydrogenic energy spectrum without directlysolving the Schr¨odinger eigenvalue equation. Furthermore,we evaluate Heisenberg’s uncertainty principle atits saturated lower bound (∆x∆p = K), proposing amechanical spatial compression model hypothesis formomentum spread. Cross-verifications across benchmarkcases demonstrate numerical agreement withinstated rounding precision.
Standard quantum mechanics offers remarkably preciseempirical predictions but often frames microscopicmechanisms through complex differential formalismsand probabilistic clouds. This paperpresents an algebraic-geometric reconstruction of selectedstationary-state quantum-mechanical relationsby introducing two foundational framework axioms:treating time (t) as a reference measure for indexingstate transitions rather than a dynamic variable, anddefining a physical Field as a local geometric constraintstructure F(x). By coupling an independent geometricwave-matching postulate (L = nλ) with the establishedde Broglie relation (p = h/λ), we algebraically reconstructBohr angular momentum quantization and thediscrete hydrogenic energy spectrum without directlysolving the Schr¨odinger eigenvalue equation. Furthermore,we evaluate Heisenberg’s uncertainty principle atits saturated lower bound (∆x∆p = K), proposing amechanical spatial compression model hypothesis formomentum spread. Cross-verifications across benchmarkcases demonstrate numerical agreement withinstated rounding precision.
Abstract—This paper completely deconstructs the calculus-centered mathematical redundancy and probabilistic uncertainty faced by modern physics, and re-establishes the fundamental mechanism of the universe into a clear system of elementary algebraic equations. Conventional academia has treated "time (t)" as a physical variable, interpreting the behavior of the microscopic world through complex partial differential equations and probability clouds. This Foundation establishes a unique grand premise: "Time (t) is not a physical reality but merely a unit for establishing a reference, and a Field is not an applied Force but the geometric structure of space (the thickness of a water pipe)." Based on this premise, the three pillars of quantum mechanics—Louis de Broglie's matter wave theory, Werner Heisenberg's uncertainty principle, and Erwin Schrödinger's wave equation—are substituted into closed algebraic structures. Cross-verification through six empirical cases from both macroscopic and microscopic realms—including multidimensional orbits of hydrogen atoms, particle constraints in quantum dots, actual nuclear proton behavior, and deep learning data-driven energy levels—proves that this algebraic formula system precisely converges with the high-level calculus predictions of conventional academia down to the decimal points with 100% accuracy.
The uncertainty principle of quantum mechanics is often regarded as a fundamental postulate or an ontological property of the microscopic world. This paperproposes a unified interpretative framework based on information constraints, arguing that uncertainty relations are essentially an inevitable consequence of thetwo operational boundaries in the process of physical cognition: finite informationcapacity and feasibility of finite steps. By introducing the Noetherian property ofalgebraic structures and the discretization of information hierarchies, a rigorouscorrespondence from operational constraints to subfactor towers and informationgeometry is constructed. Within this framework, uncertainty relations naturallyemerge from the geometric rigidity of the information hierarchical structure, andtheir mathematical form is locked by algebraic invariants such as the Jones index. The theory not only coherently derives the standard Heisenberg relations butalso predicts testable modifications at extremely high energies and in strong gravitational fields, providing a clear mechanism for the quantum-classical transitionbased on information accumulation phase transitions. This work indicates that uncertainty is not an inherent fuzziness of nature but a structural boundary of physicaldescription under information constraints, thereby establishing a new foundationfor understanding the continuity between quantum theory and classical physics.
Abstract This paper challenges the conventional probabilistic frameworks of quantum mechanics by introducing the Aktug Geometric Model (AGM), a paradigm rooted in deterministic physics and exact boundary-value solutions. Standard chemical methodologies frequently rely on the mechanical halving of total bond lengths to derive atomic radii—a practice that creates profound structural inconsistencies and gives rise to the covalent tangency paradox. By employing a rigorous energy-density function subject to relativistic invariance, the AGM demonstrates that atoms maintain their intrinsic volumes rather than undergoing arbitrary cloud deformations during molecular synthesis. Through spectroscopic energy mapping, this study models the exact spatial boundaries of the hydrogen atom utilizing a spherical gradient governed by the Sinc function and the root-mean-square (RMS) metrics of wave propagation, accounting for structural sharp-cutoff effects via the Gibbs phenomenon. Quantitatively, while mainstream models enforce an artificial wave-function field contraction to explain the transition from an isolated Hydrogen radius (0.53 Å) to the H2 and H-O bond lengths (0.74 Å and 0.96 Å, respectively), the AGM unveils an elegant atomic velocity locking mechanism operating under a volumetric compression regime. The model proves that the bond length does not compress; instead, it locks precisely at a 0.70 Å threshold for both H2 and H-O systems, representing a true geometric penetration ratio. This constant distance reveals that hydrogen undergoes an expansion rather than a shrinkage when bonding with oxygen to form water, establishing a universal bond constant born out of a specific hydrogen-oxygen resonance. By eliminating the absurdity of the halving approach, the AGM provides a seamless, predictive, and geometrically stable architecture for multiple bond systems, realigning molecular chemistry with the principles of deterministic causality. In standard quantum mechanics and wave theory, the calculability (convergence) of wave packets propagating in free space presents severe mathematical challenges. Wave functions defined over an unbounded space-time continuum disperse over time and yield infinities upon integration, forcing a reliance on probabilistic interpretations or abstract concepts such as quantum tunneling. This paper demonstrates that a strict geometric boundary condition is required for the complex temporal frequency (ω) and spatial frequency (k) to yield physically meaningful results. The Aktug Geometric Model (AGM) confines subatomic energy density within a closed geometric manifold (M), reinterpreting the Heisenberg Uncertainty Principle (Δx⋅Δp≥ℏ/2) not as an intrinsic probabilistic limitation, but as a direct mathematical consequence of bounded geometry.
The contemporary model of (s,p,d,f) orbitals and electron shells is intrinsically rooted in a probabilistic quantum mechanical framework, governed by the Heisenberg Uncertainty Principle and the Schr¨odinger wave equation. This paper proposes a radical paradigm shift: the universe operates not on statistical probabilities but on an absolute, deterministic geometric framework capable of simultaneously defining position and momentum. Utilizing the Rough Operator Algebra (ROA) framework, this paper mathematically deconstructs four core pillars of quantum mechanics—the uncertainty principle, the Schr¨odinger equation, the orbital shell model, and the periodic table—and redefines them as macroscopic geometric projections driven by topological phase-locking and non-commutative symmetry breaking.
While the complex formalism of quantum mechanics has been extraordinarily successful, the fundamental geometric origin of its core elements—the imaginary unit, operator non-commutativity, quantum phase, and the intrinsic geometry with quantum spin—has remained unresolved for more than a century. Here we resolve these foundational questions by deriving an exact and physically equivalent formulation of the Schrödinger equation as a Real Geometric Flow—a moving-frame evolution on a 2𝑁-dimensional real state space. In this restored framework, the global imaginary unit 𝑖 fully decomposes into a set of local skew-symmetric generators that drive planar rotations in real space, revealing that the traditional complex formalism is a compressed representation of an intrinsic rotational geometry.Within the real geometric flow, energy eigenvalues appear as the Curvatures of the state trajectory, energy gaps correspond to Torsions that couple internal planes—naturally generating the geometry of quantum spin—and quantum phase emerges naturally as the Holonomy of the real moving frame. This formulation preserves the full empirical content of quantum mechanics while exposing the geometric mechanisms hidden beneath its notation, providing the first coherent explanation of curvature, torsion, non-commutativity, spin behavior, and quantum phase within a single framework.By demonstrating that the algebraic postulates of quantum mechanics arise from a deeper geometric order—one that stands alongside curvature-based theories such as General Relativity—this work establishes a unified differential-geometric foundation for quantum dynamics.It opens new directions for quantum control, quantum information, and fundamental physics.
Quantum uncertainty, famously encapsulated by Heisenberg's principle, is a cornerstone of quantum mechanics, traditionally understood through the algebraic non-commutativity of observable operators. This paper proposes a novel framework: the commutator geometry of wavefunctions, aiming to unify diverse manifestations of quantum uncertainty within a single, intrinsic geometric description of the quantum state space. By establishing a direct link between the algebraic structure of commutators and the differential geometry of projective Hilbert space, we demonstrate how the inherent non-commutativity of observables fundamentally sculpts the geometry of quantum states. This approach allows for the derivation of geometric measures of uncertainty that intrinsically capture the limitations on simultaneous measurability. We show how this geometric formulation not only recovers existing uncertainty relations, such as the Robertson-Schroedinger inequality, but also provides a more profound, unified interpretation of quantum uncertainty as a manifestation of curvature and metric properties within the space of wavefunctions. The methodology involves constructing a commutator-induced metric and curvature tensor on the quantum state manifold, revealing how the degree of non-commutativity directly dictates the "fuzziness" or "spread" in observable values. Illustrative examples, including position-momentum and angular momentum, are used to demonstrate the efficacy and intuitive appeal of this geometric perspective. The implications of this unified geometric understanding extend to foundational issues in quantum mechanics, potentially offering new insights into quantum gravity, quantum information theory, and the very nature of quantum reality, where uncertainty is not merely a statistical limitation but an intrinsic geometric feature of the universe.