EQX Photonic Quantum Core: Paradigm Shift to Continuous Spatial Field Computation for Ambient-Temperature Photonic Quantum Processing

Conventional photonic quantum computing architectures remain constrained by the discrete binary qubit paradigm (0/1 logic), which forces continuous electromagnetic wave physics into fragile discrete probability gates—leading to catastrophic decoherence, phase noise, and an absolute reliance on cryogenic cooling infrastructure (<0.1K). This technical specification introduces the EQX Photonic Quantum Core, a novel computational paradigm that executes quantum calculations via Continuous Spatial Phase Profiles and Virtual Potential Barriers within a Mesoscopic Bridge domain. By replacing discrete state-switching with non-dissipative continuous field interference, the EQX Core achieves ultra-high-precision, fault-tolerant photonic quantum processing directly at room temperature without cryogenic equipment. This publication formally establishes open prior art for the continuous-state 4-stage pipeline, broad functional implementation boundaries, and real-time hardware interlock mechanisms, while protecting proprietary solver matrices and tuning parameter tables under Tier 3 Trade Secret boundaries for commercial licensing and foundry integration.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-11-04
DOI
https://doi.org/10.5281/zenodo.23934973
Primary Topic
Quantum Computing Algorithms and Architecture
Type
article
Field-Weighted Citation Impact
0.00
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article

EQX Photonic Quantum Core: Paradigm Shift to Continuous Spatial Field Computation for Ambient-Temperature Photonic Quantum Processing

Bhattharawut Bhoomarat
Zenodo (CERN European Organization for Nuclear Research)
Quantum Computing Algorithms and Architecture
article

EQX Photonic Quantum Core: Paradigm Shift to Continuous Spatial Field Computation for Ambient-Temperature Photonic Quantum Processing

Bhattharawut Bhoomarat
article en

Abstract

Conventional photonic quantum computing architectures remain constrained by the discrete binary qubit paradigm (0/1 logic), which forces continuous electromagnetic wave physics into fragile discrete probability gates—leading to catastrophic decoherence, phase noise, and an absolute reliance on cryogenic cooling infrastructure (<0.1K). This technical specification introduces the EQX Photonic Quantum Core, a novel computational paradigm that executes quantum calculations via Continuous Spatial Phase Profiles and Virtual Potential Barriers within a Mesoscopic Bridge domain. By replacing discrete state-switching with non-dissipative continuous field interference, the EQX Core achieves ultra-high-precision, fault-tolerant photonic quantum processing directly at room temperature without cryogenic equipment. This publication formally establishes open prior art for the continuous-state 4-stage pipeline, broad functional implementation boundaries, and real-time hardware interlock mechanisms, while protecting proprietary solver matrices and tuning parameter tables under Tier 3 Trade Secret boundaries for commercial licensing and foundry integration.

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 16%
Quantum Computing Algorithms and Architecture
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