Preservation of Distinguishability and the Dissipative Projection: Classical Fields and Gravity from a Single Spectral Generator

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Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-09-17
DOI
https://doi.org/10.5281/zenodo.22772013
Primary Topic
Quantum and Classical Electrodynamics
Type
preprint
Controls
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preprint

Preservation of Distinguishability and the Dissipative Projection: Classical Fields and Gravity from a Single Spectral Generator

Optical Eyez XL
Zenodo (CERN European Organization for Nuclear Research)
Quantum and Classical Electrodynamics
preprint

Preservation of Distinguishability and the Dissipative Projection: Classical Fields and Gravity from a Single Spectral Generator

Optical Eyez XL
preprint en

Abstract

Rather than starting from the equations of existing physical theories and mapping them onto a generator, this paper first unfolds the dynamics of the single self-adjoint dissipative generator established in prior work [5], Δeₙ = n²eₙ and shows how, once time is treated not as a background parameter but as a structural coordinate axis, the mathematical structure that emerges corresponds to structures independently discovered in existing classical-field and quantum theory. This paper establishes the classical-field consequences produced by the dissipative projection (e^(−Δt)) — the way of reading this generator along the real axis, in real time. We show, both analytically and numerically, that this single projection alone yields the foundational frameworks of classical mechanics, electromagnetism, and fluid dynamics, together with the origin of quantum-probabilistic structure. Beyond identifying the observed physical quantities (mass, charge, viscosity, etc.) and the spatial dimension (d_space = 3) with existing physical inputs, no additional field equation or new generator is introduced to produce this structure. Numerical verification (mpmath) confirms that the time integral of the dissipative semigroup ∫₀^∞ e^(−2tΔ) dt = (1/2)Δ⁻¹ corresponds to the three-dimensional Newtonian/Coulomb Green's function G(r) = 1/(4πr) This mapping, however, presupposes d_space = 3 as a physical input; the paper makes explicit that this is not a necessity derived from Δ, but something existing classical-field theory has already tacitly presupposed. Three of Maxwell's equations (Gauss's law, absence of magnetic monopoles, Faraday's law) arise from the combination of the geometric identity d² = 0 with the coordinate axis t under dt > 0. Ampère's law first appears in a static form without a displacement-current term, but once charge conservation (the continuity equation) is introduced as a physical input, the exact form of the displacement current is algebraically forced by d² = 0 together with the already-derived Gauss's law alone, completing all four Maxwell equations. Applying the chain rule to t yields the nonlinear advection term of the Navier–Stokes equation; we further show that the triple-coupling tensor this advection term generates is energy-neutral — that is, it redistributes the total among modes without dissipating it — as an incidental exploration borrowing the standard energy method rather than a result of Δ itself. A probabilistic structure formally corresponding to the Born rule is obtained from the spectral theorem, with the probability postulate replaced by an identity that follows, without any separate probability postulate, from the spectral structure secured by Δ's self-adjointness together with the normalization (positivity, trace-class) of C₀. From the same mode-coupling structure, the relaxation–decoherence inequality Γ_decoh(m,n) > Γ_relax(min(m,n)) is derived as an algebraic identity (confirmed by exhaustive numerical checking over all mode pairs). What is deterministic here, however, is the decay rate (m²+n²) itself: a purely algebraic fact determined solely by Δ's eigenvalue structure and the linearity of the semigroup action, with no environment, probability, or approximation entering — and the fact that decoherence is always faster than relaxation likewise follows from this without any separate assumption. This does not mean the standard theory's account of decoherence ("information is probabilistically lost through interaction with an environment") is thereby reproduced as such: what is determined is the entire trajectory this decay rate generates, and the spectral distribution read at a given moment (§11–§12). Regarding the measurement paradox, we show that the three mechanisms invoked by standard decoherence theory (an external environment, selection of a pointer basis, vanishing of off-diagonal interference terms) are, from the fact that the three layers of measure, topology, and dissipation are already completed by C₀ and Δ alone, not replaced by something else but simply unnecessary from the outset. The question of how a single outcome is "selected" from that distribution itself presupposes the standard-theory frame in which a state space is set up first and a separate selection operation then acts on it; in this paper (and in its basis, [5]), Δ's dynamics is itself already the act of distinguishing (= observing), so that frame does not apply to begin with. That is, this is not an unanswered open problem, but a demonstration that the question itself does not fit this framework's premises. The zero-point-energy correspondence proposed in the previous version (treating ωₙ as the harmonic oscillator's angular frequency) is withdrawn in this revision: the structure of this paper never required the quantifying apparatus of "field," "lowered state," or "energy" to begin with (§9). That is, this theory requires neither the conceptual tools of the harmonic oscillator, field, and energy, nor — as confirmed above — the conceptual tools of standard decoherence theory: environment, probabilistic information loss, and approximation. 본 논문은 기존 물리 이론의 방정식을 출발점으로 삼아 이를 생성자에 대응시키는 것이 아니라, 선행연구 [5]에서 확립된 단일 자기수반 소산 생성자 Δeₙ = n²eₙ 의 동역학을 먼저 전개하고, 시간을 배경 매개변수가 아니라 구조적 좌표축으로 놓았을 때 그 결과로 나타나는 수학적 구조가 기존 고전장·양자이론에서 독립적으로 발견되어 온 구조와 어떻게 대응하는지를 보인다. 본 논문은 이 생성자를 실수축·실시간으로 읽는 방식인 소산 사영(e^(−Δt))이 낳는 고전장 귀결들을 확립한다. 이 사영 하나만으로 고전역학, 전자기학, 유체역학의 기초 틀과 양자적 확률구조의 기원이 도출됨을 해석적·수치적으로 보인다. 관측되는 물질적 양(질량, 전하, 점성 등)과 공간 차원(d_space = 3)을 기존 물리적 입력으로 동일시하는 것 외에는, 이 구조를 생성하기 위해 별도의 장방정식이나 새로운 생성자를 추가하지 않는다. 수치검증(mpmath)은 소산 반군의 시간적분 ∫₀^∞ e^(−2tΔ) dt = (1/2)Δ⁻¹ 이 3차원 뉴턴/쿨롱 그린함수 G(r) = 1/(4πr) 로 사상됨을 확인한다. 다만 이 사상은 d_space = 3을 물리적 입력으로 전제하며, 이는 Δ로부터 유도된 필연이 아니라 기존 고전장 이론이 이미 암묵적으로 전제해온 것임을 본 논문은 명확히 한다. 맥스웰 방정식 중 세 개(가우스 법칙, 자기단극 부재, 패러데이 법칙)는 기하학적 항등식 d² = 0과 dt > 0 하의 좌표축 t의 결합에서 나온다. 앙페르 법칙은 처음엔 변위전류항 없는 정적 형태로 나오지만, 전하보존(연속방정식)을 물리적 입력으로 추가하면 d² = 0과 이미 도출된 가우스 법칙만으로 변위전류의 정확한 형태가 대수적으로 강제되어, 맥스웰 방정식 4개 전부가 완결된다. 연쇄법칙을 t에 적용하면 나비에-스토크스 방정식의 비선형 이류항이 나오며, 이 이류항이 만드는 삼중결합텐서가(Δ 자체가 아니라 표준 에너지법을 빌린 부수적 탐구로서) 에너지 중립적임을, 즉 총량을 소산시키지 않고 모드 사이에서 재분배할 뿐임을 추가로 보인다. 스펙트럴 정리로부터 Born rule과 형식적으로 대응하는 확률구조가 얻어지며, 이때 확률 공준은 Δ의 자기수반성에 의해 확보되는 스펙트럴 구조와 C₀의 정규화(양성·trace-class)로부터, 별도의 확률 공준 없이 항등식으로 성립한다. 같은 모드결합 구조로부터 완화-결어긋남 부등식 Γ_decoh(m,n) > Γ_relax(min(m,n)) 이 대수적 항등식으로 도출된다(전 모드쌍 수치 전수검사로 확인). 다만 여기서 결정론적인 것은 감쇠율(m²+n²) 그 자체다: 환경도, 확률도, 근사도 개입하지 않고 Δ의 고유값 구조와 반군 작용의 선형성만으로 결정되는 순수한 대수적 사실이며, 결어긋남이 완화보다 항상 빠르다는 것 역시 별도 가정 없이 이 사실에서 성립한다. 이것이 표준이론의 결어긋남 서술("환경과의 상호작용으로 정보가 확률적으로 소실된다")을 그대로 재현한다는 뜻은 아니다: 결정되어 있는 것은 이 감쇠율이 만드는 전체 궤적과, 특정 시점에서 읽히는 스펙트럴 분포까지다(§11–§12). 측정 역설에 대해서는, C₀와 Δ만으로 측도·위상·소산의 세 층이 이미 완결되어 있다는 사실로부터, 표준 디코히어런스 이론이 요구하는 세 장치(외부 환경, 포인터 기저 선택, 비대각 간섭항의 소멸)가 다른 것으로 대체되는 것이 아니라 애초에 필요하지 않았음을 보인다. 그 분포에서 단일 결과가 어떻게 "선택"되는가라는 질문 자체는, 상태공간을 먼저 놓고 그 위에서 별도의 선택 연산이 작동한다는 표준이론의 틀을 전제하는데, 본 논문(과 그 근거인 [5])에서는 Δ의 동역학 자체가 이미 구별(=관측)이므로 그런 틀이 애초에 적용되지 않는다. 즉 이는 답하지 못한 열린 문제가 아니라, 질문 자체가 이 프레임워크의 전제와 맞지 않음을 보이는 것이다. 이전 판이 제시했던 영점에너지 대응(조화진동자의 각주파수로서의 ωₙ)은 이 갱신본에서 철회한다: 본 논문의 구조는 애초에 "장", "낮은 상태", "에너지"라는 정량화 도구를 필요로 하지 않는다(§9). 즉 이 이론은 조화진동자·장·에너지라는 개념적 도구뿐 아니라, 위에서 확인한 환경·확률적 정보손실·근사라는 표준 디코히어런스 이론의 개념적 도구 역시 요구하지 않는다.

Zenodo (CERN European Organization for Nuclear Research)
Quantum and Classical Electrodynamics
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