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Deterministic 0,1 Optical Memory via Near-Zero Absolute Point Synchronization in Tri-Doped Silicon

Michael Bahtaji

Published Aug 30, 2026• 0 citations
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Abstract

Deterministic 0,1 Optical Memory via Near-Zero Absolute Point Synchronization in Tri-Doped Silicon michael allan a. bahtaji, ph.d. 1Department of Physics, Technological University of the Philippines Ayala bopulevard Ermita Maila Philippines 1000 *michaelallanbahtaji336@gmail.com Received XX Month XXXX; revised XX Month, XXXX; accepted XX Month XXXX; posted XX Month XXXX (Doc. ID XXXXX); published XX Month XXXX The propose an application-oriented method to realize deterministic binary optical memory by collapsing quantum optical states to a Near-Zero Absolute Point NZAP using cascaded Fourier, Non-Euclidean Euler, and Euclidean transforms. Implemented in tri-doped silicon, the system encodes 0 as electron radial expansion and 1 as compression, with fixed spin, achieving S≈0 and zero decoherence without cryogenics. The present accepted photonic evidence, mathematical procedures, and lab protocols for sub-20nm device fabrication and testing. Keywords: entropy reduction, destructive interference, silicon photonics, quantum memory, Fourier optics

DOI
10.5281/zenodo.22169769

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On-chip optical quantum memory at telecom wavelengths (Conference Presentation)

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Advances in Photonics of Quantum Computing, Memory, and Communication•Mar 4, 2019•1 citation
Deterministic 0,1 Optical Memory via Near-Zero Absolute Point Synchronization in Tri-Doped Silicon michael allan a. bahtaji, ph.d. 1Department of Physics, Technological University of the Philippines Ayala bopulevard Ermita Maila Philippines 1000 *michaelallanbahtaji336@gmail.com Received XX Month XXXX; revised XX Month, XXXX; accepted XX Month XXXX; posted XX Month XXXX (Doc. ID XXXXX); published XX Month XXXX The propose an application-oriented method to realize deterministic binary optical memory by collapsing quantum optical states to a Near-Zero Absolute Point NZAP using cascaded Fourier, Non-Euclidean Euler, and Euclidean transforms. Implemented in tri-doped silicon, the system encodes 0 as electron radial expansion and 1 as compression, with fixed spin, achieving S≈0 and zero decoherence without cryogenics. The present accepted photonic evidence, mathematical procedures, and lab protocols for sub-20nm device fabrication and testing. Keywords: entropy reduction, destructive interference, silicon photonics, quantum memory, Fourier optics
The propose an application-oriented method to realize deterministic binary optical memory by collapsing quantum optical states to a Near-Zero Absolute Point NZAP using cascaded Fourier, Non-Euclidean Euler, and Euclidean transforms. Implemented in tri-doped silicon, the system encodes 0 as electron radial expansion and 1 as compression, with fixed spin, achieving S≈0 and zero decoherence without cryogenics. The present accepted photonic evidence, mathematical procedures, and lab protocols for sub-20nm device fabrication and testing. Keywords: entropy reduction, destructive interference, silicon photonics, quantum memory, Fourier optics
Geometric Zero-Sum Trapping in Spherical to Nanofiber Optics for Room-Temperature Photonic Memory michael allan a. bahtaji, ph.d. 1Department of Physics, Technological University of the Philippines Ayala bopulevard Ermita Maila Philippines 1000 *michaelallanbahtaji336@gmail.com; michaelallan_bahtaji@tup.edu.ph Received XX Month XXXX; revised XX Month, XXXX; accepted XX Month XXXX; posted XX Month XXXX (Doc. ID XXXXX); published XX Month XXXX ABSTRACT Photonic quantum memory is limited by cryogenic cooling and decoherence. We propose that the limitation is geometric. We introduce Geometric Zero-Sum Trapping: light in a dielectric cavity undergoes self-retracing propagation enforced by boundary geometry, yielding and B ≈ 1. Using Euclidean geometry, we derive the propagator for a sphere, prolate ellipse, and nanofiber. In a sphere, refraction through the center with a π phase shift forms a standing wave. Deforming to an ellipse splits the center into two foci. In the limit a >> b, this reduces to end-to-end retracing in a fiber. The resonance condition 2knRcosθ = (2m+1)π holds for all geometries. Room-temperature diffraction fringes from a spherical lens confirm standing-wave formation. Femtosecond-laser fabrication enables fiber integration for photonic microchips. Keywords: Geometric trapping, photonic quantum memory, zero-sum interference, room-temperature photonics, nanofiber, femtosecond laser fabrication, standing wave
Zero-Sum Trapping in Spherical Optics for Room-Temperature Photonic Quantum Memoryand MicrochipsMichael Allan A. Bahtaji, Ph.D.Physics Department, Technological University of the Philippinesmichaelallan_bahtaji@tup.edu.phmichaelallanbahtaji336@gmail.comABSTRACTPhotonic quantum memory and optical computing are constrained by cryogenic requirementsand decoherence from noise. Here we propose a mechanism to overcome these limits usingspherical geometry. We introduce the concept of Zero-Sum Trapping enabled by an AbsolutePenetrating Field (APF) within a dielectric sphere. The theoretical framework predicts that lightentering the sphere couples to the entire volume and undergoes recursive diffraction atConverting Field micro capacitors. Each diffraction event, termed a "Bending Ignitor", induceselectron fluctuation and 𝜋-phase inversion, leading to fractal stretching of Δ𝑡 and the formationof recursive subfringes. Critically, this process enables a quasi-photonic phenomenon wherein thelight fully enters, interacts, and returns to the source aperture via destructive interference 𝐼in +𝐼out = 0. This manifests as apparent negative group delay without violating causality, offering analternative explanation for prior observations. Furthermore, the paper establishes a directanalogy to semiconductor technology. We predict that optical noise can be suppressed bycascading spherical lenses, with Noise ∝ 1/𝑁, where N is the number of spheres. This establishesthe spherical lens as a candidate "photonic transistor" and provides a scalable pathway to room-temperature photonic microchips. ‘Theoretical modeling’ predicts key metrics of 𝑇out = 0.003,zero scatter, and zero heating at T=298 K. This proposal bridges quantum memory and classicalcomputing, suggesting that information can be stored in fractal phase states rather than chargestates. Experimental validation is proposed to confirm the predicted 1/N scaling and quasi-photonic return.Keywords: Quantum Memory, Room-Temperature Photonics, Zero-Sum Trapping, AbsolutePenetrating Fields (APF), Fractal Sub fringes, Negative Group Delay
Geometric Zero-Sum Trapping: From Euclidean Curvature to Electron-Spin Qubits for Room-Temperature Photonic Memory Abstract We introduce Geometric Zero-Sum Trapping, where input intensity tunes the effective optical curvature of a dielectric sphere and nanofiber via an optical analog of Euler’s relation. High intensity drives self-retracing path density, pushing geometry from non-Euclidean to near-Euclidean with trapping coefficient B ≈ 1. Low intensity yields B ≪ 1, enabling ns release. We link this geometric transition to collective electron spin deflection in reflection, refraction, and diffraction. The mechanism scales to the atomic limit, enabling light storage in a single electron spin without a physical cavity, providing a path to room-temperature photonic bits.
Geometric Zero-Sum Trapping: From Euclidean Curvature to Electron-Spin Qubits for Room-Temperature Photonic Memory Abstract We introduce Geometric Zero-Sum Trapping, where input intensity tunes the effective optical curvature of a dielectric sphere and nanofiber via an optical analog of Euler’s relation. High intensity drives self-retracing path density, pushing geometry from non-Euclidean to near-Euclidean with trapping coefficient B ≈ 1. Low intensity yields B ≪ 1, enabling ns release. We link this geometric transition to collective electron spin deflection in reflection, refraction, and diffraction. The mechanism scales to the atomic limit, enabling light storage in a single electron spin without a physical cavity, providing a path to room-temperature photonic bits.
Optical quantum memories will enable technologies including long distance quantum communication and modular quantum computing. Rare earth ion doped crystals provide an excellent solid state platform for optical quantum memories. Among rare earths, erbium is particularly appealing due to its long-lived telecom-wavelength resonance, allowing integration with silicon photonics and with existing optical communication technology and infrastructure. We present an on-chip all-optical quantum memory at telecom wavelengths using a nanobeam photonic crystal cavity fabricated directly in erbium-167 doped yttrium orthosilicate. Using an atomic frequency comb protocol, we store coherent pulses for memory times as long as 10 µs, albeit with low efficiency. For shorter memory times, we achieve a memory efficiency of 0.4%, which is limited by the coupling rate between the resonator and the ensemble of ions. By working at dilution refrigerator temperatures, we are able to access a regime where the ions have long optical coherence times and good spectral holeburning properties using only a moderate magnetic field applied with permanent magnets. We characterize the multimode properties and fidelity of the quantum memory in this device, and outline a path toward higher efficiency.