104 The Significance of Probability Theory in Multi-Origin High-Dimensional Geometry
305
0
·
2026/04/24
·
5 mins read
☕
WriterShelf™ is a unique multiple pen name blogging and forum platform. Protect relationships and your privacy. Take your writing in new directions. ** Join WriterShelf**
WriterShelf™ is an open writing platform. The views, information and opinions in this article are those of the author.
Article info
This article is part of:
分類於:
⟩
⟩
日期:
創作於:2026/04/24,最後更新於:2026/07/22。
合計:1216字
Like
or Dislike
About the Author
I love science as much as art, logic as deeply as emotion.
I write the softest human stories beneath the hardest sci-fi.
May words bridge us to kindred spirits across the world.
More from this author
More to explore

The Meaning of Probability Theory in Multi-Origin High-Dimensional Geometry
In the classical framework of probability theory and single-origin Euclidean geometry, intrinsic randomness serves as the foundational presupposition of the theory. Probability is directly defined as the quantitative description of random phenomena—probability is equivalent to the mathematical representation of randomness. Frequency is merely observational data generated by repeated trials, an acquired appearance posterior to the fact, and the two share no internal essential connection. The classical sample space is constructed upon a single global coordinate system, and statistical quantities such as mean, variance, and expectation universally presuppose a flat space with a unique center. This framework describes only the distributional patterns of random phenomena and is incapable of answering the question of the very origin of randomness.
Transitioning into the Multi-Origin high-dimensional Geometry (MOC) framework, the underlying paradigm undergoes a fundamental inversion. This paper establishes the core proposition: frequency is the sole origin of probability. Within MOC space, each local origin possesses its own intrinsic frequency; the coexistence of multiple origins necessarily generates frequency differences. All probability distributions, all random appearances observed at the empirical level, and all statistical weightings are endogenously generated through the coupling effects of frequency differences among origins. Probability is neither an innate property of space nor an intrinsic randomness of the universe, but rather the stable statistical expression precipitated from the competition, interference, and cross-domain transitions of frequency differences in multi-origin space.
One core assertion:
Frequency is the sole origin of probability; probability is the geometric weighting and topological selection tendency corresponding to frequency differences in multi-origin high-dimensional space.
---
I. The Fundamental Positioning of Probability Theory Is Radically Transformed
· Single-origin geometry (classical framework)
· Foundational basis: intrinsic randomness. Probability serves to characterize random events; frequency is merely an observational byproduct of trials, essentially independent of probability. The coordinate origin is merely an artificial reference zero point, and space possesses no intrinsic oscillation or intrinsic frequency structure.
· Multi-origin high-dimensional geometry (MOC framework)
· Foundational basis: ordered intrinsic frequencies.
· Probability = the jurisdiction intensity of each origin's competition over spatial regions.
· Probability = the transition weight for conversions between different local topological domains.
· Probability = the allocation ratio of generalized curvature evolution across various evolutionary branches.
In the classical framework, randomness is inherent to the world; in the MOC framework, randomness is not an ontological property of the world but an externally observed appearance generated by the coexistence of multiple origins and the mutual interference of multiple frequencies.
---
II. Core Significance: Probability Becomes the "Frequency-Difference Selection Mechanism" of Multi-Origin Space
1. Frequency-difference expression of origin competition
Multiple origins simultaneously act upon the same spatial region, each carrying its own intrinsic frequency. The magnitude of the frequency difference directly determines the spatial influence of each origin. The smaller the frequency difference, the more intense the coupling and interference among origins, and the more balanced the spatial attribution; the larger the frequency difference, the more a single origin dominates, and the more deterministic the evolutionary trajectory. The magnitude of probability is essentially the quantitative result of frequency competition among origins.
2. Path-selection weights of high-dimensional branches
Multi-origin high-dimensional geometry naturally possesses bifurcating, recursive, and fractal topological structures. Each high-dimensional evolutionary path corresponds to a particular configuration of origin frequencies. Which branch the system follows, which domain it belongs to, and which local coordinate system it adheres to—these are not groundless random draws but rather path-probability tendencies pre-locked by frequency differences.
3. Frequency transitions and transition probabilities across domain boundaries
In single-origin flat space, boundaries are clear and rigidly partitioned; in multi-origin space, regional boundaries are interference-overlap zones of different frequency fields. The ambiguity of attribution at boundaries and the possibility of cross-domain transitions both arise from the oscillatory and interference effects of adjacent origin frequencies. Probability is precisely the natural transition probability across frequency-topological domains.
4. Statistical averaged appearances of curvature-frequency systems
Within MOC space, curvature and frequencies undergo continuous dynamic coupling and fluctuation. Low-dimensional observations cannot capture instantaneous fine-grained dynamical changes and can only collect long-term stable statistical results. Expectation, variance, entropy, and various distribution functions are all observational expressions simplified from this high-frequency dynamics.
5. Random appearances are low-dimensional projections of unobservable high-dimensional structures
The various random phenomena observed do not signify that the world is inherently disordered. In essence, they are the equivalent appearances formed when complex high-dimensional ordered structures of multiple origins and multiple frequencies are projected onto a low-dimensional flat observational perspective.
---
III. Fundamental Distinctions from Classical Probability Theory
Causal chain of classical probability theory:
Presuppose the objective existence of intrinsic randomness → define probability to describe random phenomena → conduct repeated trials to collect frequency as an observational reference.
Randomness is fundamental; probability is a descriptive tool; frequency is an independent observational byproduct with no essential connection to probability.
Causal chain of multi-origin high-dimensional geometry:
Multiple origins carry independent intrinsic frequencies → naturally generate frequency differences → give rise to spatial competition and path differentiation → long-term evolution forms stable weighting relationships, i.e., probability → low-dimensional observation interprets probabilistic effects as random phenomena.
Classical probability theory answers: What distributional characteristics do random phenomena possess?
The MOC framework further answers: Where does the randomness observed by humanity actually originate?
---
IV. Physical and Philosophical Significance
Current mainstream interpretations of quantum mechanics generally presume that microscopic randomness is an intrinsic property of the universe at the fundamental level, following the same line of thought as classical probability theory's "randomness as fundamental." Einstein consistently questioned the existence of intrinsic randomness, insisting that "God does not play dice" and that quantum theory remains incomplete. Bell inequality experiments have ruled out local hidden-variable models within the three-dimensional spacetime framework, leaving this viewpoint in a long-standing disadvantaged position.
Under the MOC geometric paradigm, quantum probability is not genuinely random in an ontological sense, but rather a statistical appearance formed by the mutual interference and competition of multiple local-origin frequency fields in high-dimensional space. This framework aligns with Einstein's core intuition that "randomness is appearance, while underlying deterministic order exists"; at the same time, distinct from Einstein's three-dimensional local hidden variables, this deterministic mechanism is rooted in multi-origin high-dimensional geometric topology and is not constrained by Bell inequalities against local models.
At the philosophical level, probability is no longer equivalent to a proxy for missing information or human cognitive limitation. It is the internal expression of the universe's multi-center, multi-frequency, multi-configuration coexistent structure. There is no ontological contingency in the world; all seemingly contingent phenomena are the inevitable statistical appearances brought forth by the evolution of frequency structures in multi-origin high-dimensional space.
---
Conclusion
In the classical theoretical framework constructed upon single-origin flat geometry: randomness is fundamental, probability serves to characterize randomness, and frequency is merely an independent observational byproduct of trials—these three are ontologically unrelated.
In the multi-origin high-dimensional geometric framework: frequency is fundamental, probability is born from frequency differences among origins, and randomness is merely an appearance formed through low-dimensional observation.
Probability characterizes the competition for influence among origins, transitional transitions between topological domains, the selection tendencies of high-dimensional evolutionary paths, and the allocation rules of the global frequency structure.
Probability is not a measure of chance;
it is the geometric language through which the multi-origin high-dimensional universe, relying upon ordered frequency structures, expresses its own order.