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Towards Monolithic Indium Phosphide (InP)-Based Electronic Photonic Technologies for beyond 5G Communication Systems

Type of publication Peer-reviewed
Publikationsform Original article (peer-reviewed)
Author Mukherjee Chhandak, Deng Marina, Nodjiadjim Virginie, Riet Muriel, Mismer Colin, Guendouz Djeber, Caillaud Christophe, Bertin Hervé, Vaissiere Nicolas, Luisier Mathieu, Wen Xin, De Matos Magali, Mounaix Patrick, Maneux Cristell,
Project ULTIMATE: Upper Limit Technology Investigations Mandatory to Attain Terahertz Electronics
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Original article (peer-reviewed)

Journal Applied Sciences
Volume (Issue) 11(5)
Page(s) 2393 - 2393
Title of proceedings Applied Sciences
DOI 10.3390/app11052393

Open Access

URL http://doi.org/10.3390/app11052393
Type of Open Access Publisher (Gold Open Access)

Abstract

This review paper reports the prerequisites of a monolithic integrated terahertz (THz) technology capable of meeting the network capacity requirements of beyond-5G wireless communications system (WCS). Keeping in mind that the terahertz signal generation for the beyond-5G networks relies on the technology power loss management, we propose a single computationally efficient software design tool featuring cutting-edge optical devices and high speed III–V electronics for the design of optoelectronic integrated circuits (OEICs) monolithically integrated on a single Indium-Phosphide (InP) die. Through the implementation of accurate and SPICE (Simulation Program with Integrated Circuit Emphasis)-compatible compact models of uni-traveling carrier photodiodes (UTC-PDs) and InP double heterojunction bipolar transistors (DHBTs), we demonstrated that the next generation of THz technologies for beyond-5G networks requires (i) a multi-physical understanding of their operation described through electrical, photonic and thermal equations, (ii) dedicated test structures for characterization in the frequency range higher than 110 GHz, (iii) a dedicated parameter extraction procedure, along with (iv) a circuit reliability assessment methodology. Developed on the research and development activities achieved in the past two decades, we detailed each part of the multiphysics design optimization approach while ensuring technology power loss management through a holistic procedure compatible with existing software tools and design flow for the timely and cost-effective achievement of THz OEICs.
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