rydonahue

Abstract Traditional fiber-optic networks owned by large telecommunications providers offer a vast, already-deployed infrastructure for future quantum communication services. Recent advances in quasiparticle physics, in particular phonons, magnons, and hybrid photon-matter excitations, provide mechanisms for integrating quantum functionality into existing fiber plants rather than constructing bespoke quantum networks from scratch. This paper explores how quasiparticles can be leveraged in conventional telecom fiber environments, outlines the potential benefits for operators, and proposes both physical and mathematical experiments to evaluate feasibility. Particular attention is paid to phonon-mediated interactions such as stimulated Brillouin scattering in fibers, hybrid magnon-phonon-photon transducers at central offices, and telecom-band quasiparticle qubits that interface directly with DWDM systems. 1. Introduction Telecommunications providers such as Comcast and Verizon operate...

 A short review (APA Style) on some of my prior notes with regards to cybersecurity. Abstract Quasiparticles or collective excitations within condensed matter systems, offer a promising platform for scalable and secure quantum networks. Their emergent behavior, tunable dispersion relations, hybrid light-matter coupling, and topological stability allow them to function as carriers, mediators, or protectors of quantum information. This review synthesizes current research on using quasiparticles, including excitons, polaritons, magnons, phonons, and anyons, within quantum communication networks. Special emphasis is placed on the intersection between quasiparticle physics and quantum cybersecurity, highlighting how quasiparticle-based architectures introduce new attack vectors while simultaneously enabling inherently secure communication channels. The survey concludes by outlining major challenges and opportunities for integrating quasiparticles into next-generation quantum internetwor...

Quasiparticles can in thought (and sometimes in practice) be connected to classical-looking fiber networks similar to existing large telecommunications networks. However, ripping out the backbone of the internet is impractical for time and cost reasons. Furthermore business continuity must be preserved for the billions of people reliant on existing connectivity. Adoption of quantum computing principals in networking should first be accomplished through expanding the scope of existing networks. Expanding the capabilities of existing networks is the primary focus where my personal research exists. What follows are some sections/topics that map directly onto traditional telecom fiber technologies.  Topics/sections that map well onto traditional fiber networks These are all things that could sit on an existing fiber telco-style network, either at endpoints, amplifiers, or using the fiber itself: Phonon-based effects in installed fiber Stimulated Brillouin scattering (SBS) and Bril...

In my last post I struggled writing without a prior definition of quasiparticles as I know them. I felt it wrong to spend a lot of time defining what I thought to be understood so here is a collection of my notes on quasiparticles written in essay form.  Abstract Quasiparticles occupy a unique position in modern physics: they are not fundamental particles in the traditional sense, but emergent entities that arise from the collective behavior of many-body systems. While they have no independent existence outside the material in which they appear, quasiparticles often behave mathematically and experimentally as if they were real particles with well-defined properties such as mass, charge, spin, and momentum. This article introduces the concept of quasiparticles, reviews their physical foundations, and highlights their relevance to condensed-matter physics, quantum information science, and emerging quantum network architectures. 1. Introduction In many-body systems, interactions a...

Abstract Quasiparticles or collective excitations that behave as effective particles, offer novel physical mechanisms for information transport, entanglement distribution, and error-resilient encoding within quantum networks. Their emergent properties, which differ from those of elementary particles, can be leveraged to engineer communication channels with improved coherence, controllability, and fault tolerance. This short essay outlines several avenues through which quasiparticles may enhance the architecture and performance of future quantum networks. 1. Introduction Quantum networks rely on the faithful generation, manipulation, and transmission of quantum states across distributed systems. Traditional approaches emphasize photonic carriers or spin-based qubits in solid-state devices. However, a growing body of research suggests that quasiparticles such as excitons, polaritons, magnons, and anyons can serve as alternative or supplementary carriers of quantum information. Their ...