Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Log inSign up
Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Blog
Job Board
Q3AS

© 2026 Aqora Quantum S.A.S.

TermsPrivacyLegal Notice

Mathematical Design of a Topological Shield for Room-Temperature Quantum Coherence via Seonggil Rough Operator Algebra and Numerical Validation

Seonggil Lee

Published Sep 9, 2026• 0 citations
Publisher

Abstract

The absolute necessity of cryogenic cooling in contemporary quantum computing arises from rapid decoherence caused by thermal environmental noise. In this paper, we present a mathematical breakthrough that sustains quantum coherence at 300K (room temperature). By treating thermal fluctuations not as random classical noise, but as a well-defined ’Rough Perturbation’ within the Seonggil Rough Operator Algebra (ROA) framework, we construct a Topological Shield operator. This mathematical structure algebraically perfectly cancels the interaction terms between the environmental noise matrix and the quantum state matrix. Consequently, we provide the theoretical foundation for room-temperature quantum computing utilizing precision local defect systems, completely bypassing the need for extreme cooling infrastructure. Furthermore, we provide a complete numerical simulation framework validating the exact cancellation of decoherence under 300K thermal bombardment.

DOI
10.5281/zenodo.22669496

Related papers

New Theoretical Perspectives for Sustainable Quantum Engineering

Yassin Tanan

This treatise defines the pillars of a new sustainable quantum engineering, based on the Dynamic Mass Transduction (DMT) and Topological Chromodynamics (TCD) frameworks. We demonstrate that thermal decoherence, traditionally treated as stochastic noise, is in fact a deterministic geometric interaction resulting from the metric friction of the vacuum. Through the implementation of the TCD-Net protocol and active nullification of the Chern boundary, we achieve macroscopic quantum coherence at room temperature (300K). This breakthrough eliminates the necessity for energy-intensive dilution refrigeration, charting a path toward scalable, portable, and environmentally sustainable quantum computing.

•May 7, 2026•0 citations

New Theoretical Perspectives for Sustainable Quantum Engineering

Yassin Tanan

This treatise defines the pillars of a new sustainable quantum engineering, founded on the Dynamic Mass Transduction (DMT) and Topological Chromodynamics (TCD) frameworks. We demonstrate that thermal decoherence, traditionally treated as stochastic noise, is inherently a deterministic geometric interaction resulting from the metric friction of the vacuum.Through the implementation of the TCD-Net protocol and the active nullification of the Chern boundary via synthetic gauge fields, we demonstrate the theoretical feasibility of macroscopic quantum coherence at room temperature (300K). This breakthrough eliminates the necessity for energy-intensive dilution refrigeration, charting a robust path toward scalable, portable, and environmentally sustainable quantum computing.

•Jun 24, 2026•0 citations

Meta-Quantum Metrology via Universal Rough Operator Algebra (UROA): Subsuming SQL and Decoherence through Topological 8D Projection

Seonggil Lee

The fundamental precision limits in quantum sensing—dictated by the Standard Quantum Limit (SQL), multi-parameter incompatibility [2], and Markovian decoherence [1]—are deductively subsumed and algebraically elevated using the Seonggil Theory of Composite Torsion (STCT) and UROA. By redefining parameter estimation processes as trajectories within an 8-Dimensional Non-commutative Tensor Space, classical noise boundaries are topologically shielded. This framework rigorously yields robust Super-Heisenberg scaling and enables simultaneous optimal multi-parameter observability.

•Oct 4, 2026•0 citations

Topological Protection of Quantum Decoherence

Jincheng Zhang

Quantum decoherence represents a significant hurdle in the development of practical quantum computers. The inherent fragility of quantum states makes them susceptible to environmental noise, leading to rapid loss of quantum information. This work explores a novel approach to mitigating decoherence by leveraging the principles of topological protection. We propose constructing a quantum bit (qubit) array utilizing a topologically protected architecture. This design aims to isolate qubits from unwanted interactions, thereby significantly reducing the detrimental effects of decoherence. The core mechanism relies on the robust nature of topological invariants, which shield the quantum states from local perturbations. This approach offers a promising pathway toward enhancing the coherence times of qubits and ultimately improving the reliability of quantum computation. The theoretical framework presented here outlines the design considerations and potential advantages of this strategy.

•Sep 3, 2026•0 citations

Topological Seonggil-Magnetic Graph Quantum Computing Framework (TSMG-QC): Unifying Rabi Dynamics, Phase Frustration, and Scalable Architecture

Seonggil Lee

The generalized Quantum Rabi Model (QRM), when interpreted as a bipartite magnetic graph, reveals the deep structural topology of atom-light interactions. This paper elevates the Magnetic Graph Quantum Dynamics (MGQD) framework by fusing it with Rough Operator Algebra (ROA) and Seonggil Matrix Theory (SMT). By mapping the NP-hard subgraph disconnection cost C(η) to the polynomial-time invariant eigenvalue λ_max(S_M) and redefining quantum measurement as a Sashangmugak dimensional collapse at the Seonggil Critical Horizon, we establish a fully unified computational operating system for superposition, entanglement, compiling, and error mitigation in scalable quantum hardware.

•Sep 29, 2026•0 citations

Macroscopic Room-Temperature Quantum Coherence via Active Topological Screening and Chern Boundary Nullification

Yassin Tanan

The preservation of macroscopic quantum coherence at room temperature is severely fundamentally limited by thermal phonon scattering and metric vacuum fluctuations. Current paradigms treat thermal decoherence as stochastic noise, necessitating dilution refrigeration. In this Letter, we demonstrate the stabilization of silicon-germanium (SiGe) spin qubits at 300K via active topological screening. By modeling decoherence as a deterministic geometric interaction, we introduce a continuous-variable feedback mechanism that calculates environment-induced Berry curvature distortions. A coupled Organic Electrochemical Transistor (OECT) array injects a compensatory gauge field, dynamically enforcing a zero total Chern number (Ctot = 0). This synthetic topological protection suppresses wave-function collapse, extending coherence times into the microsecond regime without passive cooling. Our findings open a new pathway for realizing topologically protected quantum matter at ambient thermodynamic conditions.

•Apr 29, 2026•0 citations
The absolute necessity of cryogenic cooling in contemporary quantum computing arises from rapid decoherence caused by thermal environmental noise. In this paper, we present a mathematical breakthrough that sustains quantum coherence at 300K (room temperature). By treating thermal fluctuations not as random classical noise, but as a well-defined ’Rough Perturbation’ within the Seonggil Rough Operator Algebra (ROA) framework, we construct a Topological Shield operator. This mathematical structure algebraically perfectly cancels the interaction terms between the environmental noise matrix and the quantum state matrix. Consequently, we provide the theoretical foundation for room-temperature quantum computing utilizing precision local defect systems, completely bypassing the need for extreme cooling infrastructure. Furthermore, we provide a complete numerical simulation framework validating the exact cancellation of decoherence under 300K thermal bombardment.
This treatise defines the pillars of a new sustainable quantum engineering, based on the Dynamic Mass Transduction (DMT) and Topological Chromodynamics (TCD) frameworks. We demonstrate that thermal decoherence, traditionally treated as stochastic noise, is in fact a deterministic geometric interaction resulting from the metric friction of the vacuum. Through the implementation of the TCD-Net protocol and active nullification of the Chern boundary, we achieve macroscopic quantum coherence at room temperature (300K). This breakthrough eliminates the necessity for energy-intensive dilution refrigeration, charting a path toward scalable, portable, and environmentally sustainable quantum computing.
This treatise defines the pillars of a new sustainable quantum engineering, founded on the Dynamic Mass Transduction (DMT) and Topological Chromodynamics (TCD) frameworks. We demonstrate that thermal decoherence, traditionally treated as stochastic noise, is inherently a deterministic geometric interaction resulting from the metric friction of the vacuum.Through the implementation of the TCD-Net protocol and the active nullification of the Chern boundary via synthetic gauge fields, we demonstrate the theoretical feasibility of macroscopic quantum coherence at room temperature (300K). This breakthrough eliminates the necessity for energy-intensive dilution refrigeration, charting a robust path toward scalable, portable, and environmentally sustainable quantum computing.
The fundamental precision limits in quantum sensing—dictated by the Standard Quantum Limit (SQL), multi-parameter incompatibility [2], and Markovian decoherence [1]—are deductively subsumed and algebraically elevated using the Seonggil Theory of Composite Torsion (STCT) and UROA. By redefining parameter estimation processes as trajectories within an 8-Dimensional Non-commutative Tensor Space, classical noise boundaries are topologically shielded. This framework rigorously yields robust Super-Heisenberg scaling and enables simultaneous optimal multi-parameter observability.
Quantum decoherence represents a significant hurdle in the development of practical quantum computers. The inherent fragility of quantum states makes them susceptible to environmental noise, leading to rapid loss of quantum information. This work explores a novel approach to mitigating decoherence by leveraging the principles of topological protection. We propose constructing a quantum bit (qubit) array utilizing a topologically protected architecture. This design aims to isolate qubits from unwanted interactions, thereby significantly reducing the detrimental effects of decoherence. The core mechanism relies on the robust nature of topological invariants, which shield the quantum states from local perturbations. This approach offers a promising pathway toward enhancing the coherence times of qubits and ultimately improving the reliability of quantum computation. The theoretical framework presented here outlines the design considerations and potential advantages of this strategy.
The generalized Quantum Rabi Model (QRM), when interpreted as a bipartite magnetic graph, reveals the deep structural topology of atom-light interactions. This paper elevates the Magnetic Graph Quantum Dynamics (MGQD) framework by fusing it with Rough Operator Algebra (ROA) and Seonggil Matrix Theory (SMT). By mapping the NP-hard subgraph disconnection cost C(η) to the polynomial-time invariant eigenvalue λ_max(S_M) and redefining quantum measurement as a Sashangmugak dimensional collapse at the Seonggil Critical Horizon, we establish a fully unified computational operating system for superposition, entanglement, compiling, and error mitigation in scalable quantum hardware.
The preservation of macroscopic quantum coherence at room temperature is severely fundamentally limited by thermal phonon scattering and metric vacuum fluctuations. Current paradigms treat thermal decoherence as stochastic noise, necessitating dilution refrigeration. In this Letter, we demonstrate the stabilization of silicon-germanium (SiGe) spin qubits at 300K via active topological screening. By modeling decoherence as a deterministic geometric interaction, we introduce a continuous-variable feedback mechanism that calculates environment-induced Berry curvature distortions. A coupled Organic Electrochemical Transistor (OECT) array injects a compensatory gauge field, dynamically enforcing a zero total Chern number (Ctot = 0). This synthetic topological protection suppresses wave-function collapse, extending coherence times into the microsecond regime without passive cooling. Our findings open a new pathway for realizing topologically protected quantum matter at ambient thermodynamic conditions.