Abstract
This paper proposes a novel method for constructing optical zero-correlation zone (OZCZ) codes based on the Mutually Orthogonal Complementary Sets (MOCS) matrix and the concatenation operation. The most important property of the obtained codes is that the periodic correlation function of the proposed codes is zero for the phase shifts within the zero-correlation zone. The procedure of construction is simple, flexible and offers increasing number of users
References
1. Sabbagh AG, Kakhki MM. Performance analysis of optical CDMA systems utilizing optical encoding in presence of interference and receiver noises. J Opt Commun. 2011;32:177–86.Search in Google Scholar
2. Abd TH, Aljunid SA, Fadhil HA, Junita MN, Saad NM. Modelling and simulation of a 1.6 Tb/s optical system based on multi-diagonal code and optical code-division multiple-access. Ukr J Phys Opt. 2012;13:54–66.Search in Google Scholar
3. Abd TH, Aljunid SA, Fadhil HA, Radhi IF, Ahmad RB, Rashid MA. Performance improvement of hybrid SCM SAC-OCDMA networks using multi-diagonal code. Sci Res Essays. 2012;7:1262–72.Search in Google Scholar
4. Driz S, Djebbari A. Performance evaluation of sub-carrier multiplexed SAC-OCDMA system using optimal modulation index. J Opt Commun. 2019;40:83–92.Search in Google Scholar
5. Abd TH, Aljunid SA, Fadhil HA, Ahmad RA, Saad NM. Design and simulation a new code with zero cross correlation for SAC-OCDMA networks. Aust J Basic Appl Sci. 2012;6:112–9.Search in Google Scholar
6. Nath V, Jain N. Performance analysis of various coding techniques in optical code division multiple access system. Int J Emerging Technol Comput Appl Sci. 2013;4:77–82.Search in Google Scholar
7. Renghui S, Xiaoqun Z, Lizhi LI. Research on construction method of ZCZ sequence pairs set. JCIT. 2011;6:15–23.Search in Google Scholar
8. Maeda T, Kanemoto S, Hayashi T. A novel class of binary zero-correlation zone sequence sets. Proc. IEEE TENCON. 2010:708–11.Search in Google Scholar
9. Hayashi T. A class of zero-correlation zone sequence set using a perfect sequence. Proc IEEE Signal Process Lett. 2009;16:331–4.Search in Google Scholar
10. Matsumoto T, Torii H, Matsufuji S. Theoretical analysis of BER performance of optical ZCZ-CDMA system. Int J Comput Commun. 2013;1:18–25.Search in Google Scholar
11. Fassi B, Taleb-Ahmed A. A new construction of optical zero-correlation zone codes. J Opt Commun. 2018;39:359–68.Search in Google Scholar
12. Fan PZ, Suehiro N, Kuroyanagi N, Deng XM. Class of binary sequences with zero correlation zone. IEE Electron Lett. 1999;35:777–9.Search in Google Scholar
13. Tseng CC, Liu CL. Complementary sets of sequences. IEEE Trans Inf Theory. 1972;18:644–52.Search in Google Scholar
14. Fassi B, Mimoun H, Messaoudi R, Addad M. A new class of ternary zero correlation zone sequence sets based on mutually orthogonal complementary sets. IOSR J Electron Commun Eng (IOSR-JECE). 2015;10:08–13.Search in Google Scholar
15. Fassi B, Djebbari A, Taleb-Ahmed A. Ternary zero correlation zone sequence sets for asynchronous DS-CDMA. J Commun Netw. 2014;6:209–17.Search in Google Scholar
16. Abudoukeremu A, Matsufuji S, Matsumoto T. On optical ZCZ codes with a good aperiodic autocorrelation property. ICACT. 2013:586–9.Search in Google Scholar
17. Feng L, Wang J, Qingyang H, Liu L. New design of optical zero correlation zone codes in quasi-synchronous VLC CDMA systems. J Wirel Commun Netw. 2015;120:1–7.Search in Google Scholar
18. Elharoussi M, Hamyani A, Belkasmi M. VHDL design and FPGA implementation of a parallel reed-solomon (15, K, D) encoder/decoder. Int J Adv Comput Sci Appl. 2013;4:33–7.Search in Google Scholar
19. Abrol S, Ahajan R. Artificial neural network implementation on FPGA chip. Int J Comput Sci Inf Technol Res. 2015;3:11–8.Search in Google Scholar
20. Banerjee S, Narayan Sil S, Banerjee J, Mukherjee S. ASIC implementation of CDMA transmitter using VHDL. Int J Adv Eng Global Technol. 2016;4:1592–6.Search in Google Scholar
21. Jain A, Shah S. Real time image processing and hardware implementation on FPGA using VHDL. Int J Eng Dev Res. 2018;6:771–80.Search in Google Scholar
22. Bruno JS, Almenar V, Valls J. FPGA implementation of a 10 GS/s variable-length FFT for OFDM-based optical communication systems. Microprocess Microsyst. 2019;64:195–204.Search in Google Scholar
23. Chahardahcherik A, Kavian YS, Strobel O, Rejeb R. Implementing FFT algorithms on FPGA. Int J Comput Sci Netw Secur. 2011;11:148–56.Search in Google Scholar
24. Matsumoto T, Matsufuji S. Optical ZCZ code generators using Sylvester-type hadamard matrix. Int J Commun. 2010;4:22–9.Search in Google Scholar
25. Ohira Y, Matsumoto T, Torri H, Ida Y, Matsufuji S. Code generator for optical ZCZ sequence with zero correlation zone 2z. J Signal Process. 2017;21:265–72.Search in Google Scholar
© 2019 Walter de Gruyter GmbH, Berlin/Boston
Articles in the same Issue
- Frontmatter
- Devices
- Dual-Buffer-Based Optical Datacenter Switch Design
- Fibers
- Influence of Temperature on the Chromatic Dispersion of Photonic Crystal Fiber by Infiltrating the Air Holes with Water
- Performance Analysis of 80 GHz-Millimeter Wave Radio over Dispersive Fiber
- Lasers
- Design and Analysis of Static Characteristics of VCSEL at 1160 nm for Optical Interconnects
- Measurements
- Measurements of the dispersion, the dispersion slope and nonlinear coefficients of photonic crystal fibers based on degenerate four-wave mixing (FWM)
- Networks
- Research on CLIB Routing and Spectrum Allocation Algorithm in Elastic Optical Networks
- Performance Evaluation of Hybrid Optical Amplifier for Ultra Dense Wavelength Division Multiplexed Optical Network at Narrow Channel Spacing
- Systems
- FPGA Implementation of a Novel Construction of Optical Zero-Correlation Zone Codes for OCDMA Systems
- Work on the Evaluation Parameters of Serial and Parallel Relay-Assisted FSO System
- Performance Analysis of a Non-Hermitian OFDM Optical DQPSK FSO Link over Atmospheric Turbulent Channel
- Hybrid Optical Amplifier for Flat Gain in Super Dense Wavelength Division Multiplexed (SDWDM) System
- An All-Optical System for Implementing Integrated Hadamard-Pauli Quantum Logic
- Phonon Polariton Dispersion in Metal-Doped Nanocomposite Superlattice System
- Radio over Fibre Transport of Alamouti-coded MIMO Signals with Self-Recovery Capability
- DP-QPSK Technique for Ultra-high Bit-rate DWDM FSO System
- Design and Analysis of Alphabetical Slots of Patch Antenna for Mobile Optical Communication at 60 GHz
- Bidirectional MDRZ Downstream and NRZ OOK Upstream SS-WDM RoFSO Communication System
Articles in the same Issue
- Frontmatter
- Devices
- Dual-Buffer-Based Optical Datacenter Switch Design
- Fibers
- Influence of Temperature on the Chromatic Dispersion of Photonic Crystal Fiber by Infiltrating the Air Holes with Water
- Performance Analysis of 80 GHz-Millimeter Wave Radio over Dispersive Fiber
- Lasers
- Design and Analysis of Static Characteristics of VCSEL at 1160 nm for Optical Interconnects
- Measurements
- Measurements of the dispersion, the dispersion slope and nonlinear coefficients of photonic crystal fibers based on degenerate four-wave mixing (FWM)
- Networks
- Research on CLIB Routing and Spectrum Allocation Algorithm in Elastic Optical Networks
- Performance Evaluation of Hybrid Optical Amplifier for Ultra Dense Wavelength Division Multiplexed Optical Network at Narrow Channel Spacing
- Systems
- FPGA Implementation of a Novel Construction of Optical Zero-Correlation Zone Codes for OCDMA Systems
- Work on the Evaluation Parameters of Serial and Parallel Relay-Assisted FSO System
- Performance Analysis of a Non-Hermitian OFDM Optical DQPSK FSO Link over Atmospheric Turbulent Channel
- Hybrid Optical Amplifier for Flat Gain in Super Dense Wavelength Division Multiplexed (SDWDM) System
- An All-Optical System for Implementing Integrated Hadamard-Pauli Quantum Logic
- Phonon Polariton Dispersion in Metal-Doped Nanocomposite Superlattice System
- Radio over Fibre Transport of Alamouti-coded MIMO Signals with Self-Recovery Capability
- DP-QPSK Technique for Ultra-high Bit-rate DWDM FSO System
- Design and Analysis of Alphabetical Slots of Patch Antenna for Mobile Optical Communication at 60 GHz
- Bidirectional MDRZ Downstream and NRZ OOK Upstream SS-WDM RoFSO Communication System