Authors :
Avani Malhotra
Volume/Issue :
Volume 11 - 2026, Issue 8 - August
Google Scholar :
https://tinyurl.com/yxnyf9ku
DOI :
https://doi.org/10.38124/ijisrt/26aug188
Note : A published paper may take 4-5
working days from the publication date to appear in PlumX Metrics, Semantic Scholar, and
ResearchGate.
Abstract :
Optical fibre sensors are designed majorly for detecting and gauging various parameters. These sensors provide
different benefits over traditional sensors, making them more valuable in different applications. They are capable to detect
very small changes in actual parameters to measure in case of biosensing. With this sensitivity, they can detect subtle changes
in pressure, strain, temperature, vibration, refractive analytes, and other factors with utmost accuracy. They enable remote
sensing. As light sensors can carry data, it is possible to place sensing elements at unreachable or distant sites and still convey
the data back to core monitoring system without degrading signals. To increase bitrate, this study was focused on
transmission of “Optical Time-Division Multiplexing (OTDM)” at 80Gbit/s to optimize the change in phase between
opposing OTDM channels. With limited capacity of fibre, there is a need to increase spectral efficiency and use amplitude,
phase, and polarization for transmission of signals. Over the years, various approaches and configurations have been
proposed to improve sensitivity of sensors based on optical fiber. However, it is believed that selecting the configuration of
optical fiber sensors must be chosen as per certain application. As these sensors keep on improving and evolving, they play
a vital role in control applications and monitoring around several industries.
Keywords :
Optical Time-Division Multiplexing, OTDM, Optical Fibre Sensors, Bitrate, High-Speed Data.
References :
- Akay, M. (2006). Wiley encyclopedia of biomedical engineering. Wiley, Hoboken, NJ, USA 2006.
- Arie, A., Karoubi, R., Gur, Y. S., & Tur, M. (1986). Measurement and analysis of light transmission through a modified cladding optical fiber with applications to sensors. Applied optics, 25(11), 1754-1758.
- Arroyo, E., Tentori, D., Garcia, A., Valdez, R., Armenta, M. A., Nava, O. J., ... & Olivas, A. (2023). Carbon Quantum Dot Optical Properties for potential infiltration into Hollow Core Photonic Crystal Fibers. Particle & Particle Systems Characterization, 40(6), 2200200.
- BCC Research (2024). Fiber optic sensors market size and industry analysis, 2024-2029. https://www.bccresearch.com/market-research/photonics/fiber-optic-sensors-markets-report.html
- Boerner, C., Schubert, C., Schmidt, C., Hilliger, E., Marembert, V., Berger, J., ... & Schmauss, B. (2003, March). 160 Gbit/s clock recovery with electro-optical PLL using a bidirectionally operated electroabsorption modulator as phase comparator. In Optical Fiber Communication Conference (p. FF3). Optica Publishing Group.
- Boivin, L., & Chraplyvy, A. R. (2000, March). Testing optical time-division multiplexed transmission systems with interleaved bit sequences. In Optical Fiber Communication Conference (p. WM35). Optica Publishing Group.
- Bundalo, I. L., Nielsen, K., Woyessa, G., & Bang, O. (2017). Long-term strain response of polymer optical fiber FBG sensors. Optical Materials Express, 7(3), 967-976.
- Butt, M. A., Kazanskiy, N. L., Khonina, S. N., Voronkov, G. S., Grakhova, E. P., & Kutluyarov, R. V. (2023). A review on photonic sensing technologies: status and outlook. Biosensors, 13(5), 568.
- Butt, M. A., Kazanskiy, N. L., Khonina, S. N., Voronkov, G. S., Grakhova, E. P., & Kutluyarov, R. V. (2023). A review on photonic sensing technologies: status and outlook. Biosensors, 13(5), 568.
- Butt, M. A., Voronkov, G. S., Grakhova, E. P., Kutluyarov, R. V., Kazanskiy, N. L., & Khonina, S. N. (2022). Environmental monitoring: A comprehensive review on optical waveguide and fiber-based sensors. Biosensors, 12(11), 1038.
- Cai, J. X., Cai, Y., Davidson, C. R., Lucero, A., Zhang, H., Foursa, D. G., ... & Bergano, N. S. (2011, March). 20 Tbit/s capacity transmission over 6,860 km. In Optical Fiber Communication Conference (p. PDPB4). Optica Publishing Group.
- Cai, J. X., Cai, Y., Sun, Y., Davidson, C. R., Foursa, D. G., Lucero, A., ... & Bergano, N. S. (2010, September). 112× 112 Gb/s transmission over 9,360 km with channel spacing set to the baud rate (360% spectral efficiency). In 36th European Conference and Exhibition on Optical Communication (pp. 1-3). IEEE.
- Cai, J., Liu, Y., & Shu, X. (2023). Long-period fiber grating sensors for chemical and biomedical applications. Sensors, 23(1), 542.
- Carvalho, I. A., Silva, N. A., Rosa, C. C., Coelho, L. C., & Jorge, P. A. (2021). Particle classification through the analysis of the forward scattered signal in optical tweezers. Sensors, 21(18), 6181.
- Chen, M. Q., He, T. Y., Zhao, Y., & Yang, G. (2023). Ultra-short phase-shifted fiber Bragg grating in a microprobe for refractive index sensor with temperature compensation. Optics & Laser Technology, 157, 108672.
- Cruz, J., & Fangueiro, R. (2016). Surface modification of natural fibers: a review. Procedia Engineering, 155, 285-288.
- Davis, C. M. (1985). Fiber optic sensors: an overview. Optical engineering, 24(2), 347-351.
- Delaney, P., & Harris, M. (2006). Handbook of biological confocal microscopy.
- Divya, J., & Selvendran, S. (2023). Surface plasmon resonance-based gold-coated hollow-core negative curvature optical fiber sensor. Biosensors, 13(2), 148.
- Du, C., Wang, Q., Zhao, S., & Deng, X. (2023). Biological sensors based on long period fiber grating. Optics & Laser Technology, 158, 108936.
- Elsherif, M., Salih, A. E., Muñoz, M. G., Alam, F., AlQattan, B., Antonysamy, D. S., ... & Butt, H. (2022). Optical fiber sensors: Working principle, applications, and limitations. Advanced Photonics Research, 3(11), 2100371.
- Ghassemlooy, Z., Uysal, M., Khalighi, M. A., Ribeiro, V., Moll, F., Zvanovec, S., & Belmonte, A. (2016). An overview of optical wireless communications. Optical Wireless Communications: An Emerging Technology, 1-23.
- Gupta, B. D., & Kant, R. (2018). Recent advances in surface plasmon resonance based fiber optic chemical and biosensors utilizing bulk and nanostructures. Optics & Laser Technology, 101, 144-161.
- Haider, F., Ahmmed Aoni, R., Ahmed, R., Amouzad Mahdiraji, G., Fahmi Azman, M., & Adikan, F. R. M. (2020). Mode-multiplex plasmonic sensor for multi-analyte detection. Optics Letters, 45(14), 3945-3948.
- Hasegawa, A. (2004). Theory of information transfer in optical fibers: A tutorial review. Optical Fiber Technology, 10(2), 150-170.
- Hengoju, S., Shvydkiv, O., Tovar, M., Roth, M., & Rosenbaum, M. A. (2022). Advantages of optical fibers for facile and enhanced detection in droplet microfluidics. Biosensors and Bioelectronics, 200, 113910.
- Jepsen, K. S., Poulsen, H. N., Clausen, A. T., Buxens, A., & Stubkjaer, K. E. (1998, September). Investigation of cascadability of add-drop multiplexers in otdm systems. In 24th European Conference on Optical Communication. ECOC'98 (IEEE Cat. No. 98TH8398) (Vol. 1, pp. 619-620). IEEE.
- Jiao, L., Zhong, N., Zhao, X., Ma, S., Fu, X., & Dong, D. (2020). Recent advances in fiber-optic evanescent wave sensors for monitoring organic and inorganic pollutants in water. TrAC Trends in Analytical Chemistry, 127, 115892.
- Johari, S. H., Cheak, T. Z., Rahim, H. R. A., Jali, M. H., Yusof, H. H. M., Johari, M. A. M., & Harun, S. W. (2022). Formaldehyde sensing using tapered U-shape plastic optical fiber coated with zinc oxide nanorods. IEEE Access, 10, 91445-91451.
- Kagawa, M., Murai, H., Tsuji, H., Sasaki, K., & Fujii, K. (2008). Control and Stabilization of bit-wise phase correlation in 160 (4× 40) Gbit/s OTDM signal and its impact on transmission. Optics Express, 16(14), 10039-10052.
- Kamatani, O., & Kawanishi, S. (1996). Prescaled timing extraction from 400 Gb/s optical signal using a phase lock loop based on four-wave-mixing in a laser diode amplifier. IEEE Photonics Technology Letters, 8(8), 1094-1096.
- Kaminow, I. P., Li, T., & Willner, A. E. (2008). Optical Fiber Telecommunications V. Volume B, Systems and Networks. Elsevier Science Limited.
- Kazanskiy, N. L., Khonina, S. N., & Butt, M. A. (2022). Recent development in metasurfaces: a focus on sensing applications. Nanomaterials, 13(1), 118.
- Khonina, S. N., Kazanskiy, N. L., Butt, M. A., & Karpeev, S. V. (2022). Optical multiplexing techniques and their marriage for on-chip and optical fiber communication: a review. Opto-Electronic Advances, 5(8), 210127-1.
- Kiroriwal, M., & Singal, P. (2024). Applications of photonic crystal fibers in optical communication. Journal of Optical Communications, 45(4), 741-750.
- Kroh, M., Ferber, S., Schmidt-Langhorst, C., Marembert, V., Schubert, C., Ludwig, R., & Weber, H. G. (2006, March). Transmitter enabling ultra-high speed transmission of phase modulated data signals up to 640 Gbit/s. In Optical Fiber Communication Conference (p. OWW1). Optica Publishing Group.
- Lee, B. H., Min, E. J., & Kim, Y. H. (2013). Fiber-based optical coherence tomography for biomedical imaging, sensing, and precision measurements. Optical Fiber Technology, 19(6), 729-740.
- Li, B., Zhang, R., Bi, R., & Olivo, M. (2022). Applications of optical fiber in label-free biosensors and bioimaging: a review. Biosensors, 13(1), 64.
- Li, H., Ni, J., Zhao, Q., & Jiang, L. (2023). Surface modified optical fiber Fabry–Perot cavity pressure sensor with carbon film. IEEE Sensors Journal, 23(9), 9353-9358.
- Li, L., Zhang, Y. N., Zheng, W., Li, X., & Zhao, Y. (2022). Optical fiber SPR biosensor based on gold nanoparticle amplification for DNA hybridization detection. Talanta, 247, 123599.
- Liang, C., Bai, Q., Yan, M., Wang, Y., Zhang, H., & Jin, B. (2021). A comprehensive study of optical frequency domain reflectometry. IEEE Access, 9, 41647-41668.
- Liang, Y., Wei, X., Chu, S., Zhang, X., Fang, Y., & Peng, W. (2023). Tamm-surface plasmon resonances from nanograting-coupled plasmonic-photonic multilayer structure for an integrated fiber-optic sensing application. Journal of Physics D: Applied Physics, 56(38), 385101.
- Liu, C., Wang, J., Wang, F., Su, W., Yang, L., Lv, J., ... & Chu, P. K. (2020). Surface plasmon resonance (SPR) infrared sensor based on D-shape photonic crystal fibers with ITO coatings. Optics Communications, 464, 125496.
- Lyu, S., Wu, Z., Shi, X., & Wu, Q. (2022, December). Optical fiber biosensors for protein detection: a review. In Photonics (Vol. 9, No. 12, p. 987). MDPI.
- Makovejs, S. (2011). High-speed optical fibre transmission using advanced modulation formats (Doctoral dissertation, UCL (University College London)).
- Market Research Future. (2025). India fiber optic sensor market size, share & forecast 2035. https://www.marketresearchfuture.com/reports/india-fiber-optic-sensor-market-46115
- Mermelstein, M. D. (1986). All-fiber polarimetric sensor. Applied optics, 25(8), 1256-1258.
- Meunier, D., Schruyers, J., Palla, R. G., Mendoza, C., Calberg, C., Heinrichs, B., ... & Mahy, J. G. (2023). Controlled-chemical etching of the cladding in optical fibers for the design of analytical sensors. Optical Fiber Technology, 78, 103328.
- Mitra, P. P., & Stark, J. B. (2001). Nonlinear limits to the information capacity of optical fibre communications. Nature, 411(6841), 1027-1030.
- Molle, L., Seimetz, M., Gross, D. D., Freund, R., & Rohde, M. (2009, September). Polarization multiplexed 20 Gbaud square 16QAM long-haul transmission over 1120 km using EDFA amplification. In 2009 35th European Conference on Optical Communication (pp. 1-2). IEEE.
- Mortimore, D. B. (1988). Fiber loop reflectors. Journal of lightwave technology, 6(7), 1217-1224.
- Muanenda, Y., Oton, C. J., & Di Pasquale, F. (2019). Application of Raman and Brillouin scattering phenomena in distributed optical fiber sensing. Frontiers in Physics, 7, 155.
- Mulchandani, A., Pan, S., & Chen, W. (1999). Fiber‐optic enzyme biosensor for direct determination of organophosphate nerve agents. Biotechnology progress, 15(1), 130-134.
- O'Keeffe, S., McCarthy, D., Woulfe, P., Grattan, M. W. D., Hounsell, A. R., Sporea, D., ... & Lewis, E. (2015). A review of recent advances in optical fibre sensors for in vivo dosimetry during radiotherapy. The British journal of radiology, 88(1050), 20140702.
- Rahmani, B., Oguz, I., Tegin, U., Hsieh, J. L., Psaltis, D., & Moser, C. (2022). Learning to image and compute with multimode optical fibers. Nanophotonics, 11(6), 1071-1082.
- Rehman, S. U., Ullah, S., Chong, P. H. J., Yongchareon, S., & Komosny, D. (2019). Visible light communication: A system perspective—Overview and challenges. Sensors, 19(5), 1153.
- Ren, Z. H., Wang, Q., Zhao, W. M., Wang, L., Jiang, C. Q., Cong, X. W., ... & Zhang, K. K. (2022). A High-FOM surface plasmon resonance sensor based on MMF-TUMMF-MMF structure of optical fiber. Optical Fiber Technology, 72, 102970.
- Research and Markets. (2025). India Optical Fiber Cables Market, By Region, Competition, Forecast & Opportunities, 2021-2031F. https://www.researchandmarkets.com/report/india-optical-fiber-cable-market?srsltid=AfmBOopQPZIuASOUsIRUoZcsEOIHC19uOAfP1rG1Zzvcb2sKjQHwpGeo
- Richter, T., Palushani, E., Schmidt-Langhorst, C., Nölle, M., Ludwig, R., Fischer, J. K., & Schubert, C. (2011, March). Single wavelength channel 10.2 Tb/s TDM-data capacity using 16-QAM and coherent detection. In Optical Fiber Communication Conference (p. PDPA9). Optica Publishing Group.
- Riza, M. A., Go, Y. I., Harun, S. W., & Maier, R. R. (2020). FBG sensors for environmental and biochemical applications—A review. IEEE sensors journal, 20(14), 7614-7627.
- Savović, S., Simović, A., Drljača, B., Kovačević, M. S., Kuzmanović, L., Djordjevich, A., ... & Min, R. (2023). Power flow in multimode graded-index microstructured polymer optical fibers. Polymers, 15(6), 1474.
- Schilling, M., Blume, O., Nguyen, L. H., Schmidt, M., & Lach, E. (2002, November). OTDM planar lightwave components (PLCs) for multiplexing from 40 Gb/s to 80-640 Gb/s. In The 15th Annual Meeting of the IEEE Lasers and Electro-Optics Society (Vol. 2, pp. 887-888). IEEE.
- Schubert, C., Berger, J., Diez, S., Ehrke, H. J., Ludwig, R., Feiste, U., ... & Petermann, K. (2002). Comparison of interferometric all-optical switches for demultiplexing applications in high-speed OTDM systems. Journal of lightwave technology, 20(4), 618.
- Senior, J. M., & Jamro, M. Y. (2009). Optical fiber communications: principles and practice. Pearson Education.
- Shatalin, S. V., Treschikov, V. N., & Rogers, A. J. (1998). Interferometric optical time-domain reflectometry for distributed optical-fiber sensing. Applied optics, 37(24), 5600-5604.
- Shi, F., Zhang, H., Ye, Z., Tang, X., Qin, F., Yan, J., ... & Amano, H. (2022). Miniature optical fiber curvature sensor via integration with GaN optoelectronics. Communications Engineering, 1(1), 47.
- Shih, M., Nelson-Quillin, H. D., Garrett, K. E., Coyle, E. J., Secondo, R., Keyser, C. K., ... & Harper, E. S. (2023). Maximizing supercontinuum bandwidths in gas-filled hollow-core fibers using artificial neural networks. Journal of Applied Physics, 133(23).
- Singh, S., Chaudhary, B., Upadhyay, A., Sharma, D., Ayyanar, N., & Taya, S. A. (2023). A review on various sensing prospects of SPR based photonic crystal fibers. Photonics and Nanostructures-Fundamentals and Applications, 54, 101119.
- Smith, A. M. (1978). Polarization and magnetooptic properties of single-mode optical fiber. Applied Optics, 17(1), 52-56.
- Spammer, S. J., Swart, P. L., & Booysen, A. (1996). Interferometric distributed optical-fiber sensor. Applied optics, 35(22), 4522-4525.
- Theodosiou, A., & Kalli, K. (2020). Recent trends and advances of fibre Bragg grating sensors in CYTOP polymer optical fibres. Optical Fiber Technology, 54, 102079.
- Trebino, R., DeLong, K. W., Fittinghoff, D. N., Sweetser, J. N., Krumbügel, M. A., Richman, B. A., & Kane, D. J. (1997). Measuring ultrashort laser pulses in the time-frequency domain using frequency-resolved optical gating. Review of Scientific Instruments, 68(9), 3277-3295.
- Turkiewicz, J. P., Tangdiongga, E., Lehmann, G., Rohde, H., Schairer, W., Zhou, Y. R., ... & Waardt, H. D. (2005). 160 Gb/s OTDM networking using deployed fiber. Journal of Lightwave Technology, 23(1), 225.
- Vaiano, P., Carotenuto, B., Pisco, M., Ricciardi, A., Quero, G., Consales, M., ... & Cusano, A. (2016). Lab on Fiber Technology for biological sensing applications. Laser & Photonics Reviews, 10(6), 922-961.
- Verdurmen, E. J. M., Zhao, Y., Khoe, G. D., & de Waardt, H. (2004). OTDM demultiplexing using HNLF in a NOLM at 160 Gb/s. In Proceedings of Lasers and Electro-Optics Society Conference.
- Wang, X. D., & Wolfbeis, O. S. (2019). Fiber-optic chemical sensors and biosensors (2015–2019). Analytical chemistry, 92(1), 397-430.
- Wang, Z., Zhang, W., Liu, X., Li, M., Lang, X., Singh, R., ... & Kumar, S. (2022). Novel optical fiber-based structures for plasmonics sensors. Biosensors, 12(11), 1016.
- Weber, H. G., & Nakazawa, M. (2007). Introduction to ultra-high-speed optical transmission technology. In Ultrahigh-Speed Optical Transmission Technology (pp. 1-20). Berlin, Heidelberg: Springer Berlin Heidelberg.
- Weber, H. G., Ferber, S., Kroh, M., Schmidt-Langhorst, C., Ludwig, R., Marembert, V., ... & Schubert, C. (2005, September). Single channel 1.28 Tbit/s and 2.56 Tbit/s DQPSK transmission. In 31st European Conference on Optical Communications (ECOC 2005) (pp. v6-3). Stevenage UK: IEE.
- Xie, Y., Wang, M., Zhong, Y., Deng, L., & Zhang, J. (2023). Label-free anomaly detection using distributed optical fiber acoustic sensing. Sensors, 23(8), 4094.
- Yin, Z., Jing, X., Bai, G., Wu, B., Gao, Z., Liu, C., ... & Li, Y. (2023). Experimental study of dual-parameter SPR sensor with integrated sensing channel. IEEE sensors journal, 23(8), 8385-8390.
- Zhang, H., Zhou, X., Li, X., Gong, P., Zhang, Y., & Zhao, Y. (2023). Recent advancements of LSPR fiber-optic biosensing: Combination methods, structure, and prospects. Biosensors, 13(3), 405.
- Zhang, J., Mai, X., Hong, X., Chen, Y., & Li, X. (2022). Optical fiber SPR biosensor with a solid-phase enzymatic reaction device for glucose detection. Sensors and Actuators B: Chemical, 366, 131984.
- Zhou, X., & Yu, J. (2009, September). 200-Gb/s PDM-16QAM generation using a new synthesizing method. In 2009 35th European Conference on Optical Communication (pp. 1-2). IEEE
- Zhu, C., Gerald, R. E., & Huang, J. (2021). Micromachined Optical Fiber Sensors for Biomedical Applications. In Biomedical Engineering Technologies: Volume 1 (pp. 367-414). New York, NY: Springer US.
Optical fibre sensors are designed majorly for detecting and gauging various parameters. These sensors provide
different benefits over traditional sensors, making them more valuable in different applications. They are capable to detect
very small changes in actual parameters to measure in case of biosensing. With this sensitivity, they can detect subtle changes
in pressure, strain, temperature, vibration, refractive analytes, and other factors with utmost accuracy. They enable remote
sensing. As light sensors can carry data, it is possible to place sensing elements at unreachable or distant sites and still convey
the data back to core monitoring system without degrading signals. To increase bitrate, this study was focused on
transmission of “Optical Time-Division Multiplexing (OTDM)” at 80Gbit/s to optimize the change in phase between
opposing OTDM channels. With limited capacity of fibre, there is a need to increase spectral efficiency and use amplitude,
phase, and polarization for transmission of signals. Over the years, various approaches and configurations have been
proposed to improve sensitivity of sensors based on optical fiber. However, it is believed that selecting the configuration of
optical fiber sensors must be chosen as per certain application. As these sensors keep on improving and evolving, they play
a vital role in control applications and monitoring around several industries.
Keywords :
Optical Time-Division Multiplexing, OTDM, Optical Fibre Sensors, Bitrate, High-Speed Data.