Photonic code-division multiple-access communications

Fiber and Integrated Optics

Volumn 16, Issue 2, 1997, Pages 129-157

  Sampson, David D ^a   Pendock, Graeme J ^b   Griffin, Robert A ^c  

^a UNIVERSITY OF WESTERN AUSTRALIA   (Australia)

^b UNIVERSITY OF MELBOURNE   (Australia)

^c UNIVERSITY COLLEGE LONDON   (United Kingdom)

Author keywords

Code division multiple access; Coherence multiplexing; Optical communications; Optical networks; Photonics

Indexed keywords

COHERENT MULTIPLEXING; PHOTONIC CODE DIVISION MULTIPLE ACCESS (CDMA);

DATA COMMUNICATION SYSTEMS; ENCODING (SYMBOLS); FIBER OPTIC NETWORKS; MULTIPLEXING; SIGNAL FILTERING AND PREDICTION;

OPTICAL COMMUNICATION;

EID: 0030672516     PISSN: 01468030     EISSN: 10964681     Source Type: Journal    
DOI: 10.1080/01468039708202284     Document Type: Article

References (96)

1. Viterbi, A. J. 1995. CDMA: Principles of Spread Spectrum Communication. Reading, MA: Addison-Wesley.
2. Dixon, R. C. 1984. Spread Spectrum Systems, 2nd ed. New York: Wiley.
3. North, D. O. 1963. An analysis of the factors which determine signal/noise discrimination in pulsed-carrier systems. Proc. IEEE 51:1016-1027.
4. Weiner, A. M., J. P. Heritage, and J. A. Salehi. 1988. Encoding and decoding of femto second pulses. Opt. Lett. 13:300-302.
5. Turin, G. L. 1957. On the estimation in the presence of noise of the impulse response of a random, linear filter. IRE Trans. Inform. Theory IT-3:5-10.
6. Marhic, M. E., and Y. L. Chang. 1989. Pulse coding and coherent decoding in fiber-optic ladder networks. Electron. Lett. 25:1535-1536.
7. Sampson, D. D., and D. A. Jackson. 1990. Coherent optical fiber communications system using all-optical correlation processing. Opt. Lett. 15:585-587.
8. Delisle, C., and P. Cielo. 1975. Application de la modulation spectrale á la transmission de l’information. Canad. J. Phys. 53:1047-1053.
9. Cielo, P., and C. Delisle. 1976. Multiplexage en communication optique par interferometrie a grande différence de marche en lumiere blanche. Canad. J. Phys. 54:2322-2331.
10. Goedgebuer, J. P., J. Salcedo, and J. Vienot. 1982. Multiplex transmission via electro- optical modulation of white light. Opt. Acta 29:471-477.
11. Goedgebuer, J. P., H. Porte, and A. Hamel. 1987. Electrooptic modulation of multilongitudinal mode laser diodes: demonstration at 850 nm with simultaneous data transmission by coherence multiplexing. IEEE J. Quantum Electron. 23:1135-1144.
12. Goedgebuer, J. P., and A. Hamel. 1987. Coherence multiplexing using a parallel array of electrooptic modulators and multimode semiconductor lasers. IEEE J. Quantum Electron. 23:2224-2237.
13. Yao, S. K., and C. K. Asawa. 1981. Secure communication system using short coherence length source. Proc. ECOC 7, Copenhagen, P29/1-4.
14. Al-Chalabi, S. A., B. Culshaw, and D. E. N. Davies. 1983. Partially coherent sources in interferometric sensors. Proc. First Int. Conf. On Optical Fibre Sensors, London IEE Conf. Publ. 221, 132-135.
15. Brooks, J. L., R. H. Wentworth, R. C. Youngquist, M. Tur, B. Y. Kim, and H. J. Shaw. 1985. Coherence multiplexing of fiber-optic interferometric sensors. J. Light wave Tech. 3:1062-1071.
16. Healy, P. 1987. Dimensioning an optical-fiber spread-spectrum multiple-access communication system. Opt. Lett. 12:425-427.
17. Wentworth, R. H. 1989. Theoretical noise performance of coherence-multiplexed interferometric sensors. J. Light wave Tech. LT-7:941-956.
18. Chu, K. W., and F. M. Dickey. 1991. Optical coherence multiplexing for interprocessor communications. Opt. Eng. 30:337-344.
19. Pendock, G. J., and D. D. Sampson. 1995. Increasing the transmission capacity of coherence multiplexed communication systems by using differential detection. IEEE Photon. Tech. Lett. 7:1504-1507.
20. Wentworth, R. H. 1988. Optical noise in interferometric systems containing strongly unbalanced paths. Ph.D. dissertation, Stanford Univ., Stanford, CA.
21. Pendock, G. J., and D. D. Sampson. 1996. “Capacity of coherence-multiplexed CDMA networks, ” Proc. Conf. on Lasers and Electrooptics (CLEO ’96), Anaheim, paper CThK14, 401-402.
22. Gimlett, J. L., and N. K. Cheung. 1986. Dispersion penalty analysis for LED/single-mode fiber transmission systems. I. Lightwave Tech. LT-4:1381-1392.
23. Hauden, J., H. Porte, and J. P. Goedgebuer. 1996. Demonstration of a single source bidirectional fibre link using polarisation insensitive LiNbOs integrated coherence modulators. Electron. Lett. 32:751-752.
24. Griffin, R. A., and D. D. Sampson. 1993. Coherence coding of optical pulses for code-division multiple access. OFC/IOOC 93, OSA Technical Digest Series 4:200-201.
25. Wells, W., R. Stone, and E. Miles. 1993. Secure communications by optical homodyne. IEEE Select Areas in Comm. 11:770-777.
26. Purchase, K. G., K. B. Hill, M. E. Talbot, and D. J. Brady. 1994. Dispersion compensation in coherence-domain multiplexed systems. Opt. Lett. 19:1107-1109.
27. Griffin, R. A., D. D. Sampson, and D. A. Jackson. 1995. Coherence coding photonic CDMA networks. J. Light wave Tech. 13:1826-1837.
28. Zaccarin, D. and M. Kavehrad. 1993. An optical CDMA system based on spectral coding of LED. IEEE Photon. Tech. Lett. 4:479-481.
29. Kavehrad, M., and D. Zaccarin. 1995. Optical code-division-multiplexed systems based on spectral encoding of noncoherent sources. J. Light wave Tech. 13:534-545.
30. Nguyen, L., B. Aazhang, and J. F. Young. 1995. All-optical CDMA with bipolar codes. Electron. Lett. 31:469-470.
31. Hinkov, I., V. Hinkov, K. Iversen, and O. Ziemann. 1995. Feasibility of optical CDMA using spectral encoding by acoustically tunable optical filters. Electron. Lett. 31:384-386.
32. Smith, E. D. J., P. T. Gough, and D. P. Taylor. 1995. Noise limits of optical spectral-en- coding CDMA systems. Electron. Lett. 31:1469-1470
33. Griffin, R. A., D. D. Sampson, and D. A. Jackson. 1993. Modification of optical coherence using spectral phase coding for use in photonic CDMA systems. Electron. Lett. 29:2214-2216.
34. Adam, L., E. Simova, and M. Kavehrad. 1995. Experimental optical CDMA system based on spectral amplitude encoding of noncoherent broadband sources. In V. W. Chan et al. (Eds.) All-Optical Communication Systems: Architecture, Control and Network Issues, Proc. SPIE 2614:122-132.
35. Wefers, M. M., and K. A. Nelson. 1993. Programmable phase and amplitude femtosecond pulse shaping. Opt. Lett. 18:2032-2034.
36. Wilner, K., and A. P. Van den Heuvel. 1976. Fiber-optic delay lines for microwave signal processing. Proc. IEEE 64:805-807.
37. Ohlhaber, R. L., and K. Wilner. 1977. Fiber optic delay lines for pulse coding. Electro-optical System Design, 33-35.
38. Marom, E. 1978. Optical delay line matched filters. IEEE Trans. Circuits and Systems 25:360-364.
39. Marom, E., and O. G. Raymer. 1978. Encoding-decoding optical fibre network. Electron. Lett. 14:48-49.
40. Moslehi, B., J. W. Goodman, M. Tur, and H. J. Shaw. 1984. Fiber-optic lattice signal processing. Proc. IEEE 72:909-930.
41. Jackson, K. P., and H. J. Shaw. 1987. Fiber-optic delay-line signal processors. In J. L. Horner (Ed.), Optical Signal Processing. New York: Academic Press, Chap. 7.
42. Ng, W., A. A. Walston, G. L. Tangonan, J. J. Lee, I. L. Nerberg, and N. Bernstein. 1991. The first demonstration of an optically steered microwave phased array antenna using true-time delay. J. Lightwave Tech. 9:1124-1131.
43. Seeds, A. 1993. Optical technologies for phased array antennas. IEICE Trans, on Electron. E76:198-206.
44. Davies, P. A., and A. A. Shaar. 1983. Asynchronous multiplexing for an optical-fibre local-area network. Electron. Lett. 19:390-392.
45. Shaar, A. A., and P. A. Davies. 1983. Prime sequences: quasi-optimal sequences for OR channel code division multiplexing. Electron. Lett. 19:888-890.
46. Prucnal, P. R., M. A. Santoro, and T. R. Fan. 1986. Spread spectrum fiber-optic local area network using optical processing. J. Light wave Tech. 4:547-554.
47. Salehi, J. A. 1989. Code division multiple-access techniques in optical fiber networks— Part 1: Fundamental principles. IEEE Trans, on Comm. 37:824-833.
48. Holmes, A. S., and R. R. A. Syms. 1992. All-optical CDMA using “quasi-prime” codes. /. Lightwave Tech. 10:279-286.
49. Chung, F. R. K., J. A. Salehi, and V. K. Wei. 1989. Optical orthogonal codes: Design, analysis and applications. IEEE Trans. Inform. Theory 35:595-604.
50. Marie, S., Z. I. Kostic, and E. L. Titlebaum. 1993. A new family of optical code sequences for use in spread-spectrum fiber-optic local area networks. IEEE Trans. On Comm. 41:1217-1221.
51. Salehi, J. A., and C. A. Brackett. 1989. Code division multiple-access techniques in optical fiber networks—Part II: Systems performance analysis. IEEE Trans, on Comm. 37:834-842.
52. Brady, D., and S. Verdu. 1991. A semiclassical analysis of optical code division multiple access. IEEE Trans, on Comm. 39:85-93.
53. Lam, A. W., and A. M. Hussain. 1992. Performance analysis of direct-detection optical CDMA communication systems with avalanche photodiodes. IEEE Trans, on Comm. 40:810-820.
54. Azizoglu, M., J. A. Salehi, and Y. Li. 1992. Optical CDMA via temporal codes. IEEE Trans, on Comm. 40:1162-1170.
55. Letaief, K. B. 1995. The performance of optical fiber direct-sequence spread-spectrum multiple-access communications systems. IEEE Trans, on Comm. 43:2662-2666.
56. Yang, G.-C., and W. C. Kwong. 1995. Performance analysis of optical CDMA with prime codes. Electron. Lett. 31:569-570.
57. Marhic, M. E. 1993. Coherent optical CDMA networks. J. Light wave Tech. 11:854-864.
58. Brandt-Pearce, M., and B. Aazhang. 1994. Multiuser detection for optical code-division multiple access systems. IEEE Trans, on Comm. 42:1801-1810.
59. O’Farrell, T., and S. Lochmann. 1994. Performance analysis of an optical correlator receiver for SIK DS-CDMA communication systems. Electron. Lett. 30:63-65.
60. Zaccarin, D., and M. Kavehrad. 1994. New architecture for incoherent optical CDMA to achieve bipolar capacity. Electron. Lett. 30:258-259.
61. Andonovic, I., L. Tancevski, M. Shabeer, and L. Bazgaloski. 1994. Incoherent all-optical code recognition with balanced detection. J. Lightwave Tech. 12:1073-1080.
62. Griffin, R. A., D. A. Jackson, and D. D. Sampson. 1995. Coherence and noise properties of Fabry-Perot semiconductor lasers. IEEE J. Select Topics in Quantum Electron. 1:569-576.
63. Hui, J. Y. 1985. Pattern code modulation and optical decoding—A novel code-division multiplexing technique for multifiber networks. IEEE J. Select Areas in Comm. SAC- 3:916-927.
64. Park, E., A. J. Mendez, and E. M. Garmire. 1992. Temporal/spatial optical CDMA networks—Design, demonstration, and comparison with temporal networks. IEEE Photon. Tech. Lett. 4:1160-1162.
65. Mendez, A. J., J. L. Lambert, J.-M. Morookian, and R. M. Gagliardi. 1994. Synthesis and demonstration of high speed, bandwidth efficient optical code division multiple access (CDMA) tested at 1 Gb/s throughput. IEEE Photon. Tech. Lett. 6:1146-1149.
66. Riza, N. A., J. E. Hershey, and A. A. Hassan. 1993. Signaling system for multiple-access laser communications and interference protection. Appl. Opt. 32:1965-1972.
67. Kitayama, K. 1994. Novel spatial spread spectrum based fiber optic CDMA networks for image transmission. IEEE J. Select Areas in Comm. 12:762-772.
68. Davies, D. E. N., and G. W. James. 1984. Fibre-optic tapped delay line filter employing coherent optical processing. Electron. Lett. 20:96-97.
69. Sasayama, K., M. Okuno, and K. Habara. 1989. Coherent optical transversal filter using silica-based single-mode waveguides. Electron. Lett. 25:1508-1509.
70. Sasayama, K., M. Okuno, and K. Habara. 1991. Coherent optical transversal filter using silica-based waveguides for high-speed signal processing. J. Lightwave Tech. 9:1225-1230.
71. Pawlowski, E., K. Takiguchi, M. Okuno, K. Sasayama, A. Himeno, K. Okamoto, and Y. Ohmori. 1996. Variable bandwidth and tunable centre frequency filter using transversal- form programmable optical filter. Electron. Lett. 32:113-115.
72. Oda, K., H. Toba, K. Nosu, K. Kato, and Y. Hibino. 1994. Long term error-free operation of a fully-engineered 128 channel optical FDM distribution system. Electron. Lett. 30:62-63.
73. Takiguchi, K., K. Jinguji, and Y. Ohmori. 1995. Variable group-delay dispersion equaliser based on a lattice-form programmable optical filter. Electron. Lett. 31:1240-1241.
74. Chang, Y. L., and M. E. Marhic. 1992. Fiber-optic ladder networks for inverse decoding coherent CDMA. J. Lightwave Tech. 10:1952-1962.
75. Griffin, R. A., D. D. Sampson, and D. A. Jackson. 1992. Demonstration of data transmission using coherent correlation to reconstruct a coded pulse sequence. IEEE Photon. Tech. Lett. 4:513-515.
76. Syms, R. R. A., S. Makrimichalou, and A. S. Holmes. 1991. High-speed optical signal processing potential of grating-coupled waveguide filters. Appl. Opt. 30:3762-3769.
77. Sampson, D. D., R. A. Griffin, and D. A. Jackson. 1994. Photonic CDMA by coherent matched filtering using time-addressed coding in optical ladder networks. J. Lightwave Tech. 12:2001-2010.
78. Griffin, R. A., D. D. Sampson, and D. A. Jackson. 1992. Optical phase coding for code-division multiple access. IEEE Photon. Tech. Lett. 4:1401-1404
79. DeCusatis, C. M., and P. K. Das. 1990. Spread-spectrum techniques in optical communication using transform domain processing. IEEE Select Areas in Comm. 8:1608-1616.
80. Salehi, J. A., A. M. Weiner, and J. P. Heritage. 1990. Coherent ultrashort light pulse code-division multiple access communications systems. I. Lightwave Tech. 8:478-491.
81. Weiner, A. M., and J. A. Salehi. 1993. Optical code-division multiple access. In J. E. Midwinter (Ed.), Photonics in Switching, Vol. 2. San Diego, CA: Academic Press Inc., Chap. 2.
82. Salehi, J. A., and E. G. Paek. 1995. Holographic CDMA. IEEE Trans, on Comm. 43:2434-2438.
83. Foschini, G. J., and G. Vannucci. 1988. Using spread-spectrum in a high-capacity fiber-optic local network. J. Lightwave Tech. 6:370-379.
84. Vannucci, G. 1989. Combining frequency-division and code-division multiplexing in a high-capacity optical network. IEEE Network March: 21-30.
85. Karafolas, N., and D. Uttamchandani. 1994. Self-homodyne code division multiple access technique for fiber optic local area networks. IEEE Photon. Tech. Lett. 6:880-883.
86. Vannucci, G., and S. Yang. 1989. Experimental spreading and despreading of the optical spectrum. IEEE Trans, on Comm. 37:777-780.
87. Takushima, Y., and K. Kikuchi. 1994. Photonic switching using spread spectrum technique. Electron. Lett. 30:436-438.
88. Hamel, A., and J. P. Goedgebuer. 1987. Coherence modulation and multiplexing applied to two channel video transmission. Proc. ECOC 87, 291-294.
89. Vethanayagam, N., and R. I. MacDonald. 1991. Demonstration of a novel optical code-division multiple-access system at 800 megachips per second. Opt. Lett. 16:1010-1012.
90. Mendez, A. J., J. L. Lambert, J.-M. Morookian, L. A. Bergman, and R. M. Gagliardi. 1994. Raw bit error rate (BER) measurements of a fully populated optical code-division multipole access (CDMA) system. Proc. LEOS Annual Mtg., Boston, USA, November, 120-121.
91. Pendock, G. J., M. J. L. Cahill, and D. D. Sampson. 1995. Multigigabit per second demonstration of code-division multiplexing. Electron. Lett. 31:819-820.
92. Frigo, N. J. 1996. Passive optical networks in the local loop. Opt. Photon. News 7:24-29.
93. Tucker, R. S., G. Eisenstein, and S. K. Korotky. 1988. Optical time-division multiplexing for very high bit-rate transmission. J. Lightwave Tech. 6:1737-1749.
94. Holmes, A. S., and R. R. A. Syms. 1991. Switchable all-optical encoding and decoding using optical fibre lattices. Opt. Comm. 86:25-28.
95. Prucnal, P. R., M. F. Krol, and J. L. Stacey. 1991. Demonstration of a rapidly tunable optical time-division multiple-access coder. IEEE Photon. Tech. Lett. 3:170-172.
96. Kwong, K. F., D. Yankelevich, K. C. Chu, J. P. Heritage, and A. Dienes. 1993. 400-Hz mechanical scanning optical delay line. Opt. Lett. 18:558-560.