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Results for “thermodynamic” 54 papers
Operational Axioms Do Not Select the Standard Model: A Formal Audit of a Generalized-Probabilistic-Theory Reconstruction Conjecture
A conjecture in the foundations of physics holds that four operational axioms of generalized probabilistic theories (GPTs) — causality, no-signaling, local tomography, and continuous reversibility — extended to systems with infinitely many degrees of freedom, necessarily yield quantum field theory…
Thermodynamic Feasibility of Tubulin Conformational Switching as a Heat‑Free Parallel Computation Substrate
Cellular information processing is limited by the heat generated during molecular state changes, which constrains the scalability of intracellular computing architectures. The hypothesis that tubulin dimers in microtubules can act as binary switches with near‑Landauer‑limited energy consumption has…
THz-Driven Synthetic-Dimension Lattices in Thin-Film Lithium Niobate: Thermal-Photon Occupation Limits and the Operating-Point Criterion at 3.5 THz
Synthetic-dimension photonics uses the frequency modes of a single optical waveguide as the sites of an artificial lattice, promising high-dimensional photonic circuits without three-dimensional fabrication. Progress toward interaction-capable synthetic lattices in thin-film lithium niobate (TFLN)…
When Reconstruction Knowledge Exceeds System Information: Thermodynamic and Algorithmic Limits
Reconstructing a scrambled physical or digital system—such as a burned manuscript, a highly entangled quantum state, or a tomographic image—requires auxiliary information that is not contained in the scrambled object itself. Existing reconstruction techniques often assume that the required knowledge…
Computation as Hamiltonian Isomorphism: A Mode-Based Taxonomy of Physical Computing Substrates
Special-purpose accelerators, neuromorphic chips, and optical processors are today evaluated by qubit or transistor counts, yet the machines that deliver the largest effective speedups are those whose physical dynamics directly embodies the target problem. This paper addresses a specific gap: no…
Passive Error Rejection via Cryo-Fluidic Topological Phases: A Feasibility Analysis of the Topological Matter Engine
Active quantum error correction imposes a large and growing overhead of physical qubits, control electronics, and entropy-exporting measurement cycles on every scalable quantum processor. This paper examines a proposed alternative: a "Topological Matter Engine" in which errors are rejected…
Re‑Entry Modes in Solid‑State Quantum Devices: A Calculus of Distinctions with Fully Shown Quantitative Benchmarks
Re‑entry, the self‑referential insertion of a distinction into its own indicational space, is a primitive operation identified in the Laws of Form tradition. Whether this operation can be given operational meaning in solid‑state quantum devices is unknown. Existing solid‑state literature reports…
Appearance Under Relativistic Motion: A Quantitative Re‑Examination Across Thermodynamic, Radiative, and Structural Channels
A recurring question in relativistic physics is whether a physical system “appears” invariant to an observer moving at relativistic speed. The gap is definitional: “appears invariant” is ambiguous without specifying the observable and the measurement protocol. We operationally define appearance…
Passive Signal as Passive Controller: A Systems-Theoretic Feasibility Analysis of the Signal‑Worker Ontology
Engineers who must stabilize fragile quantum or mesoscopic states face a trade‑off between active control, which continuously injects energy, and passive structural control, which encodes stabilizing information in the environment but lacks a certification theory. The Signal‑Worker (S‑W) ontology…
Parity-Protected Superconducting Qubits at 4 K: A Reconciled Thermodynamic Error-Budget Analysis
Scalable superconducting quantum computing is conventionally operated at millikelvin temperatures, where the cooling power available from dilution refrigerators is severely limited. This paper tests the conjecture that a thermodynamic bottleneck at millikelvin temperatures could be relieved by…
Thermodynamic Bottlenecks on Floquet Driving of Superconducting Matter: Quasiparticle Poisoning, Heat Extraction, and Design Rules
Floquet engineering—periodic modulation of a Hamiltonian to synthesize effective dynamics—is attractive for superconducting circuits and materials, but a driven superconductor is an open system: every absorbed drive photon must be dissipated into a cryogenic bath, and above-gap absorption breaks…
The Thermodynamic Wall: Heat Dissipation as a Boundary Condition on Quantum Coherence Time
We introduce the thermodynamic wall: a boundary-condition formulation of the trade-off between macroscopic heat dissipation and quantum coherence time in engineered systems. Just as computational wall models in fluid dynamics encode unresolved near-boundary physics into an enriched boundary…
Finite-Distinction Quantum Mechanics: Unitary Evolution and Superposition as the Large-Distinction Limit of Stochastic Thermodynamics
The continuum is an infinite-information object: a single real coordinate specifies infinitely many yes/no distinctions, and a finite-entropy world cannot contain such coordinates. This paper assembles the consequences of that observation into a three-part thesis. First, the finite-information…
ZX Diagrams at the Seam: Spiders, Pauli Webs, Gadgets, and the Cafeteria Problem of Cross-Disciplinary Imports
Diagrammatic languages are the most successful interface between quantum computing and the human mind. The ZX calculus — with its spiders, Pauli webs, and gadgets — is taught as the intuitive picture of quantum processes, and its completeness theorems are among the finest results in the field. Yet…
A Critical Treatise on the Load-Bearing Assumptions of Quantum Mechanics, Thermodynamics, and Computation
The electron is the most precisely measured particle in physics and the workhorse of modern computation, yet the theoretical structure in which it lives rests on assumptions that are load-bearing but rarely interrogated: the complex Hilbert-space postulate, the spin-statistics theorem's premises,…
Quasiparticles as Rational Functions: Extending ODR to Condensed Matter
The Ontological Distribution of Reality (ODR) framework identifies a particle with its Compton count \(N_C = m/m_P \in \mathbb{Q}^+\), a dimensionless rational number whose prime factorization assigns it a fixed vertex on the Bruhat–Tits tree. This paper extends that framework to address a natural…
Project Rosetta: The Approximation Entropy & The Fractal Limits of Digital Physics — v2.0
Digital computation has been elevated from an engineering convenience to an ontological assumption -- the belief that physical reality is, at bottom, computable in binary. We challenge this assumption. Through a systematic metamathematical analysis connecting symplectic geometry, transcendental…
The Informational Universe: A Synthesis of Holographic Bounds, Thermodynamic Gravity, and Finite-Dimensional Quantum Constraints
We present a synthesis of three established research programs — the holographic entropy bound, thermodynamic gravity, and the finite-dimensional Hilbert space constraint — into a unified informational framework for physical law. The framework's core claim is that entanglement entropy in any finite…
The Revolutionary Beginner's Guide to Quantum Computing: Why We Don't Have Quantum Computers Yet — and What the Geometric Alternative Offers
A 20-chapter beginner's guide to quantum computing that starts with an honest question — why don't we have quantum computers yet? — rather than the usual "here's what a qubit is." The guide teaches the standard curriculum (qubits, entanglement, algorithms, error correction) accurately, explains why…
Alpha Pi Project
The Alpha Pi project begins with a practical engineering challenge: quantum states are exquisitely fragile, decohering rapidly due to environmental noise. This fragility stems not merely from technical limitations but from a deeper mathematical vulnerability: the continuous real‑number field that…
Non-Archimedean Syntactic Paradigm for Physics
The prevailing paradigm in modern physics assumes that the universe operates over continuous, Archimedean geometries, leading directly to the widespread belief that quantum information is intrinsically fragile. By projecting fundamentally discrete quantum states onto smooth vector spaces, standard…
Ratio-Based Adelic Physics
The tension between continuous Archimedean spacetime paradigms and discrete, non-Archimedean topological realities constitutes the central mathematical bottleneck in modern complexity science, hindering the unification of quantum mechanics, spin glass phase dynamics, and cognitive psychophysics.…
Syntactic Token Calculus
Formalize the observer as a self-enclosing boundary that applies a finite-resolution truncation to the infinite syntactic web. Model thermodynamics, the arrow of time, and quantum decoherence as epistemic artifacts of lossy boundary projection, expressed entirely without numerical probabilities,…
Quantum Brain Dynamics
Historically, scientists viewed the human mind as a purely chemical and electrical machine operating under standard thermodynamic laws. This classical model defines the brain as a complex network of biological wires and chemical baths, where all information processing is governed by the predictable,…
Superdeterministic Amplification of Macroscopic Neural State Vectors
The historical consensus in biophysics has long maintained that the human brain is a strictly classical thermodynamic system, arguing that the “warm, wet, and noisy” biological environment forces rapid quantum decoherence. However, emerging theoretical models and empirical anomalies in quantum…
Quantum Architectonics
The engineering of robust, decoherence-resistant topological qubits is currently impeded by a fragmented approach to material design that often treats control parameters in isolation. This study introduces and computationally supports the “Superconducting Quadrangle,” a unified framework integrating…
Structural Mediation of Planckian Dissipation in Strongly Correlated Electron Systems
The pursuit of macroscopic quantum coherence in strongly correlated electron systems is fundamentally limited by Planckian dissipation, a universal scattering rate that renders active-dynamic control thermodynamically untenable. This paper introduces “Quantum Architectonics,” a design paradigm that…
Superconductivity Quadrangle
The engineering of robust, decoherence-resistant topological qubits is currently impeded by a fragmented approach to material design that often treats control parameters in isolation. This study introduces and computationally validates the “Superconductivity Quadrangle,” a unified framework…
Ultrametric Relaxation Dynamics in Topological Quantum Memory
The scalability of Topological Quantum Computing (TQC) is currently impeded by a “Thermodynamic Wall,” where the entropy generation from active error correction cycles scales exponentially with logical qubit count. This paper proposes a paradigm shift from active gate synthesis to passive…
Hamiltonian Dynamics as the Engine of Biological Computation
This study investigates the physical basis of biological computation, focusing on the tension between static structuralism and dynamic evolution. Utilizing a Hamiltonian formulation of the Kuramoto model, we simulate a biological reservoir to rigorously evaluate the relationship between “Scale…
Non-Markovian Hamiltonian Dynamics of Boson-Mediated Energy Transfer
Photosynthetic light-harvesting complexes exhibit near-unity quantum efficiency at physiological temperatures, a phenomenon that defies classical thermodynamic expectations and challenges standard quantum decoherence models. This “warm quantum” behavior suggests that biological systems have evolved…
Process Ontology and Hydrodynamic Vacuum
Standard cosmological models face a foundational epistemic crisis at the Big Bang singularity, where the geometric description of General Relativity breaks down. This paper proposes a unified framework integrating Whiteheadian Process Philosophy with the hydrodynamics of a “stiff” superfluid vacuum.…
Structural vs Driven Quantum Coherence
The pursuit of ambient superconductivity is hampered by a fundamental trade-off between active, energy-intensive control and passive, structural stability. Current literature lacks a unified framework that connects the thermodynamic costs of information, substrate complexity, and the disparate…
Thermodynamics of Knowing
This paper re-frames the physical basis of knowledge as a non-equilibrium thermodynamic process. We reject equilibrium models and identify the “Epistemic Cut” as a dissipative phase transition in a driven open quantum system, specifically the Dicke Model. Through mean-field simulations, we…
Twisted Cuprate Twistronics and the Thermodynamic Scaling of Topological Quantum Computation
The induction of a 25 meV chiral topological gap in 45-degree twisted Bi-2212 heterostructures enables intrinsically protected quantum computation at 4 Kelvin, effectively resolving the thermodynamic and input-output bottlenecks that constrain current millikelvin superconducting architectures.
Adaptive Thick Skin
Standard approaches to robustness in open systems rely on static topological protection, maintaining a constant energy bias to enforce non-reciprocity. However, this strategy incurs a prohibitive thermodynamic cost, or “quiet tax,” during benign environmental conditions. Here, the “Adaptive Thick…
Base State–Disturbance (BS-D) Ontology
This presents the formalization and computational validation of the Base State–Disturbance (BS-D) Ontology, a framework proposed to resolve the conceptual fragmentation between Quantum Field Theory (QFT) and General Relativity. We posit that physical reality is reducible to two interdependent…
Coherent Tunneling
Standard biological paradigms conceptualize the organism as a stochastic chemical engine governed by reaction-diffusion kinetics. However, this classical view fails to account for the thermodynamic anomaly of living matter, which sustains macroscopic order against the entropic decay of the…
Hydrodynamic Gating of Nuclear Spin Coherence v2
Standard neurobiological models assume the mammalian brain is too warm and wet to sustain macroscopic quantum states, creating a “thermal wall” that seemingly precludes quantum cognition. However, the “viscosity paradox” of the cytoplasm reveals that while the cellular interior is structurally…
REYNOLDS FILTER AND THE OBSERVABILITY OF CHAOS
The transition to turbulence is characterized by universal scaling laws, specifically the Feigenbaum constants, which govern the onset of chaos in nonlinear systems. While these constants are traditionally viewed as topological invariants of the underlying dynamical maps, their observability in…
Superfluid Substrate
The paradoxes limiting contemporary physics—from the vacuum energy catastrophe to the thermodynamic scaling of quantum computers—are artifacts of a static ontology. A unified framework is defined where physical systems are topological modes within a dynamic, relativistic condensate. By modeling the…
THERMODYNAMIC GENESIS OF THE STANDARD MODEL
This paper investigates the thermodynamic viability of the Base State-Disturbance ontology, which posits that the Standard Model emerges from a topological phase transition in the early universe. We hypothesize that the vacuum is the ground state of a Rank-42 Walker-Wang model derived from the…
THERMODYNAMIC STABILITY OF A FILAMENTARY VACUUM
The theoretical program of analogue gravity has established a robust kinematic correspondence between the propagation of excitations in condensed matter systems and the behavior of quantum fields in curved spacetime. This framework, developed over decades of research, posits that the geometric…
TOPOLOGICAL HYDRODYNAMICS AND THE SPECTRAL GAP
Standard quantum field theory conceptualizes the vacuum as a probabilistic void, yet phenomenological isomorphism with superfluid Helium-3 suggests a deeper hydrodynamic ontology. While this topological substrate theoretically supports analog computation via vorticity, the practical realization is…
Entropic-Operational Paradigm
Thesis: Gravity, spacetime, and quantum mechanics are not fundamental geometric structures, but emergent artifacts of thermodynamic information processing, necessitating the rejection of mathematical Platonism in favor of strict operational realism.
SPACETIME CONDENSATE
Standard cosmology (\(\Lambda\)CDM) is currently fractured by two statistically significant anomalies: the \(5\sigma\) Hubble tension between early-universe (Planck) and late-universe (SH0ES) expansion rates, and the 120-order-of-magnitude vacuum catastrophe separating the theoretical Planck density…
Open Thinkers Guide to the Universe
The standard cosmological model describes an expansion of matter and energy into a pre-existing spatial vacuum, conceptualizing the universe as a fragmentation event. However, the thermodynamic state of the early universe presents a significant anomaly for models based on random expansion.…
Hydrodynamic-Topological Continuum
The reconciliation of general relativity with quantum field theory remains the premier open problem in theoretical physics, exemplified by the “vacuum catastrophe”—the 120-order-of-magnitude discrepancy between the calculated vacuum energy density and the observed cosmological constant—and the…
KINETIC ISOMORPHISM
The schism between the time-reversible, unitary laws of quantum mechanics and the irreversible, adaptive nature of biological systems constitutes a central failure of modern ontology. We propose the kinetic isomorphism, a unified theoretical framework demonstrating that “static” matter and “active”…
Emergent Physical Reality
This work presents a comprehensive, first-principles derivation of physical reality, positing that the universe is a hierarchical, emergent structure founded upon a minimal set of foundational postulates governing information, conservation, and logical inference. The argument proceeds in two stages:…
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