Optimization for Next Generation Wireless System Using Radio Over Fiber in Terms of Topology

Optimization for Next Generation Wireless System Using Radio Over Fiber in Terms of Topology

This dynamic execution of Radio over Fiber (RoF) joins utilizing minimal effort optoelectronic parts are evaluated for dispersed receiving wire applications in cutting edge remote frameworks. Vital configuration issues are examined and an illustrated the outline is exhibited for a remote framework requiring the transmission of four radio channels for every connection course.  Each of these channels has 100 MHz transmission capacity, balance many-sided quality of 256-QAM and 2048 OFDM subcarriers. The Radio Access Network (RAN) is using for all types of mobile system, each of this RAN have a different topology such as star, circle, tree, etc. On the other hand, to creating and using a new RAN is better to use mesh topology which is suitable for the new system. In the same way, in the field of using new RAN, topology can be apply as a mesh, which includes RoF. It also call as next generation mobile system for the new system, instead of using microwave it can use fiber optic that is why microwave are ignored. This type of use is more useful in terms of quality and system optimization for 4G and similar systems.

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  • 1. Gawas, A.U. (2015). An Overview on Evolution of Mobile Wireless Communication Networks: 1G-6G, International Journal on Recent and Innovation Trends in Computing and Communication, 3(5): 3130 – 3133.
  • 2. Lee, D.W., Won, Y.Y. and Han, S.K. (2008). Bidirectional Gigabit Millimeter-wave Wavelength Division Multiplexed Radio over Fiber Link Using a Reflective Semiconductor Optical Amplifier. IEICE Transaction on Communications, E91-B(7): 2418- 2421.
  • 3. Al-Raweshidy, H. And Komaki, S. (2002). Radio Over Fiber Technologies for Mobile Communications Networks.
  • 4. Pooja, J., Saroj, B. and Manisha, B. (2015). Advantages and Limitation of Radio over Fiber System. International Journal of Computer Science and Mobile Computing, 4(5): 506-511.
  • 5. Lim, C., Nirmalathas, A., Bakaul, M., Gamage, P., Lee, K., Yang, Y., Novak, D. and Waterhouse, R. (2010). Fiber-Wireless Networks and Subsystem Technologies. Journal of Lightwave Technology, 28(4): 390-405.
  • 6. Vyas, A.K. and Agrawal, N. (2012). Radio over Fiber: Future Technology of Communication, International Journal of Emerging Trends & Technology in Computer Science (IJETTCS). 1(2): 233-237.
  • 7. Hamad-Ameen J.J. (2008). Cell Planning in GSM Mobile. WSEAS Transactions on Communication. 5(7): 393-398.
  • 8. Auguste, J.L., Blondy, J.M., Maury, J., Marcou, J., Dussardier, B., Monnom, G., Jindal, R., Thyagarajan, K. and Pal, B.P. (2002). Conception, Realization and Characterization of a Very High Negative Chromatic Dispersion Fiber. Optical Fiber Technology. 8(1): 89-105.
  • 9. Petersen, C.R., Moller, U., Kubat, I., Zhou, B., Dupont, S., Ramsay, J., Benson, T., Sujecki, S., Abdel-Moneim, N., Tang, Z., Furniss, D., Seddon, A. and Bang, O. (2014). Mid-infrared supercontinuum covering the 1.4–13.3μm molecular fingerprint region using ultra-high NA chalcogenide step-index fibre, Nature Photonics, 8(11): 830–834.
  • 10. Yabre, G. S. (2000). Comprehensive theory of dispersion in graded-index optical fibers. Journal of Lightwave Technology, 18(2): 166-177.
  • 11. Kaur, M. and Sarangal, H. (2015). Analysis on Dispersion Compensation with Dispersion Compensation Fiber (DCF). SSRG International Journal of Electronics and Communication Engineering (SSRG-IJECE), 2(2): 56-59.