Overcoming Challenges in Large-Core SI-POF-Based System-Level Modeling and Simulation

The application areas for plastic optical fibers such as in-building or aircraft networks usually have tight power budgets and require multiple passive components. In addition, advanced modulation formats are being considered for transmission over plastic optical fibers (POFs) to increase spectral e...
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Autor*in:	Dwight Richards [verfasserIn] Alicia Lopez [verfasserIn] M. Angeles Losada [verfasserIn] Pablo V. Mena [verfasserIn] Enrico Ghillino [verfasserIn] Javier Mateo [verfasserIn] N. Antoniades [verfasserIn] Xin Jiang [verfasserIn]

Format:	E-Artikel
Sprache:	Englisch

Erschienen:	2019

Schlagwörter:	step-index (SI)-POF computer simulation fiber modeling large-core fiber system-level modeling diffusion optical power propagation multimode fiber

Übergeordnetes Werk:	In: Photonics - MDPI AG, 2014, 6(2019), 3, p 88
Übergeordnetes Werk:	volume:6 ; year:2019 ; number:3, p 88

Links:	Link aufrufen Link aufrufen Link aufrufen Journal toc

DOI / URN:	10.3390/photonics6030088

Katalog-ID:	DOAJ001582135

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callnumber-first	T - Technology
author	Dwight Richards
spellingShingle	Dwight Richards misc TA1501-1820 misc step-index (SI)-POF misc computer simulation misc fiber modeling misc large-core fiber misc system-level modeling misc diffusion misc optical power propagation misc multimode fiber misc Applied optics. Photonics Overcoming Challenges in Large-Core SI-POF-Based System-Level Modeling and Simulation
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topic_title	TA1501-1820 Overcoming Challenges in Large-Core SI-POF-Based System-Level Modeling and Simulation step-index (SI)-POF computer simulation fiber modeling large-core fiber system-level modeling diffusion optical power propagation multimode fiber
topic	misc TA1501-1820 misc step-index (SI)-POF misc computer simulation misc fiber modeling misc large-core fiber misc system-level modeling misc diffusion misc optical power propagation misc multimode fiber misc Applied optics. Photonics
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title	Overcoming Challenges in Large-Core SI-POF-Based System-Level Modeling and Simulation
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title_sort	overcoming challenges in large-core si-pof-based system-level modeling and simulation
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title_auth	Overcoming Challenges in Large-Core SI-POF-Based System-Level Modeling and Simulation
abstract	The application areas for plastic optical fibers such as in-building or aircraft networks usually have tight power budgets and require multiple passive components. In addition, advanced modulation formats are being considered for transmission over plastic optical fibers (POFs) to increase spectral efficiency. In this scenario, there is a clear need for a flexible and dynamic system-level simulation framework for POFs that includes models of light propagation in POFs and the components that are needed to evaluate the entire system performance. Until recently, commercial simulation software either was designed specifically for single-mode glass fibers or modeled individual guided modes in multimode fibers with considerable detail, which is not adequate for large-core POFs where there are millions of propagation modes, strong mode coupling and high variability. These are some of the many challenges involved in the modeling and simulation of POF-based systems. Here, we describe how we are addressing these challenges with models based on an intensity-vs-angle representation of the multimode signal rather than one that attempts to model all the modes in the fiber. Furthermore, we present model approaches for the individual components that comprise the POF-based system and how the models have been incorporated into system-level simulations, including the commercial software packages Simulink<sup<TM</sup< and ModeSYS<sup<TM</sup<.
abstractGer	The application areas for plastic optical fibers such as in-building or aircraft networks usually have tight power budgets and require multiple passive components. In addition, advanced modulation formats are being considered for transmission over plastic optical fibers (POFs) to increase spectral efficiency. In this scenario, there is a clear need for a flexible and dynamic system-level simulation framework for POFs that includes models of light propagation in POFs and the components that are needed to evaluate the entire system performance. Until recently, commercial simulation software either was designed specifically for single-mode glass fibers or modeled individual guided modes in multimode fibers with considerable detail, which is not adequate for large-core POFs where there are millions of propagation modes, strong mode coupling and high variability. These are some of the many challenges involved in the modeling and simulation of POF-based systems. Here, we describe how we are addressing these challenges with models based on an intensity-vs-angle representation of the multimode signal rather than one that attempts to model all the modes in the fiber. Furthermore, we present model approaches for the individual components that comprise the POF-based system and how the models have been incorporated into system-level simulations, including the commercial software packages Simulink<sup<TM</sup< and ModeSYS<sup<TM</sup<.
abstract_unstemmed	The application areas for plastic optical fibers such as in-building or aircraft networks usually have tight power budgets and require multiple passive components. In addition, advanced modulation formats are being considered for transmission over plastic optical fibers (POFs) to increase spectral efficiency. In this scenario, there is a clear need for a flexible and dynamic system-level simulation framework for POFs that includes models of light propagation in POFs and the components that are needed to evaluate the entire system performance. Until recently, commercial simulation software either was designed specifically for single-mode glass fibers or modeled individual guided modes in multimode fibers with considerable detail, which is not adequate for large-core POFs where there are millions of propagation modes, strong mode coupling and high variability. These are some of the many challenges involved in the modeling and simulation of POF-based systems. Here, we describe how we are addressing these challenges with models based on an intensity-vs-angle representation of the multimode signal rather than one that attempts to model all the modes in the fiber. Furthermore, we present model approaches for the individual components that comprise the POF-based system and how the models have been incorporated into system-level simulations, including the commercial software packages Simulink<sup<TM</sup< and ModeSYS<sup<TM</sup<.
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title_short	Overcoming Challenges in Large-Core SI-POF-Based System-Level Modeling and Simulation
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author2	Alicia Lopez M. Angeles Losada Pablo V. Mena Enrico Ghillino Javier Mateo N. Antoniades Xin Jiang
author2Str	Alicia Lopez M. Angeles Losada Pablo V. Mena Enrico Ghillino Javier Mateo N. Antoniades Xin Jiang
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up_date	2024-07-03T21:17:20Z
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Overcoming Challenges in Large-Core SI-POF-Based System-Level Modeling and Simulation

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