Passive Optical Communications Module for the Internet of Things
Abstract
Wireless technologies already provide a way to solve these issues, but the use of optical fibers would give to the IoT their own unique features, such as high bandwidth, long reach, signal integrity and high security. But IoT devices should not be power hungry nor have very limiting electrical-to-optical conversions, so a passive optical communications module based of fiber Bragg gratings for long reach and for the upload of information with low data rates should be implemented. This module would be integrated in the IoT ecosystem by connecting it to the existent dark fibers all over the world.
A simulator of this module was implemented, capable of reproducing its characteristics for the transmission of information modulated in Frequency-Shift Keying and On-Off Keying modulation schemes. The study of the system performance for these schemes was made by estimating the Bit Error Rate using the Error Vector Magnitude metric, in relation to the received optical power.
Keywords
Full Text:
PDFReferences
Kilper, D., et al., Optical networks come of age. Optics and Photonics News,
25(9): p. 50-57.
Winzer, P.J., Scaling optical fiber networks: Challenges and solutions. Optics
and Photonics News, 2015. 26(3): p. 28-35.
Madakam, S., R. Ramaswamy, and S. Tripathi, Internet of Things (IoT): A
literature review. Journal of Computer and Communications, 2015. 3(05): p. 164.
Ji, P.N. and W. Ting. Internet of things with optical connectivity, networking, and
beyond. in 2016 21st OptoElectronics and Communications Conference (OECC) held jointly
with 2016 International Conference on Photonics in Switching (PS). 3-7 July, 2016. Niigata,
Japan.
Alkhatib, H., et al., IEEE Computer Society 2022 Report. Recovered by:
http://www.computer.org/cms/Computer.org/ComputingNow/2022Report.pdf, 2014.
Vetter, P., et al., Energy-efficiency improvements for optical access. IEEE
Communications Magazine, 2014. 52(4): p. 136-144.
Larsen, C.P., A. Gavler, and K. Wang. Comparison of active and passive optical
access networks. in Telecommunications Internet and Media Techno Economics (CTTE),
9th Conference on. 7-9 June, 2010. Ghent, Belgium: IEEE.
Grobe, K., et al., Cost and energy consumption analysis of advanced WDMPONs.
IEEE Communications Magazine, 2011. 49(2).
Senior, J.M. and M.Y. Jamro, Optical fiber communications: principles and
practice. 2009: Pearson Education.
Reiter, G., Wireless connectivity for the Internet of Things. Europe, 2014. 433:
p. 868MHz.
Winder, S. and J. Carr, Newnes radio and RF engineering pocket book. 2002:
Newnes.
Skubic, B., et al., Energy-efficient next-generation optical access networks. IEEE
Communications Magazine, 2012. 50(1).
Chen, Q. and P. Lu, Fiber Bragg gratings and their applications as temperature
and humidity sensors. Atomic, Molecular and Optical Physics, 2008: p. 235-260.
Torres, P., L.C.G. Valente, and M.C.R. Carvalho, Security system for optical
communication signals with fiber Bragg gratings. IEEE Transactions on Microwave Theory
and Techniques, 2002. 50(1): p. 13-16.
Zhang, H. and T. Dong. Fiber Bragg Grating Sensor System in the Application
of Guarding against Burglary. in 2012 Second International Conference on Intelligent System
Design and Engineering Application. 6-7 January, 2012. Sanya, Hainan, China.
Erdogan, T., Fiber grating spectra. Journal of Lightwave Technology, 1997.
(8): p. 1277-1294.
Antunes, P.F.d.C., Sensores ópticos para monitorização dinâmica de estruturas,
in Departamento de Física. 2011, Universidade de Aveiro.
Hill, K.O. and G. Meltz, Fiber Bragg grating technology fundamentals and
overview. Journal of lightwave technology, 1997. 15(8): p. 1263-1276.
Othonos, A., et al., Fibre bragg gratings, in Wavelength Filters in Fibre Optics.
, Springer. p. 189-269.
Proakis, J., M. Salehi, and G. Bauch, Contemporary communication systems
using MATLAB. 2012: Nelson Education.
Hughes, L.W., A simple upper bound on the error probability for orthogonal
signals in white noise. IEEE transactions on communications, 1992. 40(4): p. 670.
Schmogrow, R., et al., Error vector magnitude as a performance measure for
advanced modulation formats. IEEE Photonics Technology Letters, 2012. 24(1): p. 61-63.
Olson, J.D. Finite impulse response filters. in Biomedical digital signal
processing. 1993. Prentice-Hall, Inc.
Cho, J., C. Xie, and P.J. Winzer, Analysis of soft-decision FEC on non-AWGN
channels. Optics Express, 2012. 20(7): p. 7915-7928.
Instruments, T., CC1120 High-Performance RF Transceiver for Narrowband
Systems. Datasheet Available Online at: http://www.ti.com/lit/ds/symlink/cc1120.pdf
(Accessed on June 23 2012), 2015.
Hayashi, G., et al. A 10.8 mA Single Chip Transceiver for 430MHz Narrowband
Systems in 0.15/spl mu/m CMOS. in Solid-State Circuits Conference, 2006. ISSCC 2006.
Digest of Technical Papers. IEEE International. 6-9 February, 2006 IEEE.
André, P., et al., Raman amplified access networks with pump signal recycling
for electrical power conversion. Microwave and Optical Technology Letters, 2012. 54(1): p.
-119.
DOI: http://dx.doi.org/10.34629/ipl.isel.i-ETC.49
Refbacks
- There are currently no refbacks.
Copyright (c) 2018 Tiago Ribeiro
This work is licensed under a Creative Commons Attribution-NonCommercial 4.0 International License.