On the analysis of the dynamics and synchronization of chaotic modulation and demodulation in UWB communication and positioning systems

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Abstract

This paper studies synchronization transitions in a system of coupled non-identical self-sustained chaotic oscillators of the Rössler type. The interest devoted to the Rössler oscillators is motivated by their capability to behave chaotically at very high frequencies. Both phase synchronization and lag synchronization are analyzed numerically in terms of a coupling parameter. It is shown that the both types of synchronization can be achieved when monitoring a coupling parameter. The advantage of using one parameter to insure both type of synchronization is found in practical realizations. Indeed one should monitor only one resistor to predict the boundaries of the control resistor for the occurrence of each type of synchronization. Another advantage of monitoring only one resistor is found in the accuracy of results. An experimental study of the synchronization process is carried out. Experimental waveforms (time evolution of the solutions) in the drive and response systems are obtained. The waveforms are compared to confirm the achievement of synchronization experimentally. One of the advantages of using analog simulation in this work is the possibility to analyze the behavior of the coupled system at very high frequencies by performing an appropriate time scaling. This offers the possibility of using our coupled system for UWB applications. © 2004 IEEE.

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Chedjou, J. C., Dada, J. P., Takenga, C., Anne, R., Nana, B., & Kyamakya, K. (2004). On the analysis of the dynamics and synchronization of chaotic modulation and demodulation in UWB communication and positioning systems. In IEEE Vehicular Technology Conference (Vol. 60, pp. 4151–4155). https://doi.org/10.1007/978-0-387-37731-5_82

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