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FIRST EXPERIMENTAL SOLUTION FOR CHANNEL NOISE SENSIBILITY IN DIGITAL CHAOTIC COMMUNICATIONS

By S. Sadoudi, C. Tanougast, and M. S. Azzaz

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Abstract:
An interesting and original solution to the high channel noise sensibility problem of digital chaotic communications is proposed. The solution idea consist of avoiding disruption of the slave/receiver dynamics by injecting the driving signal. To realize experimentally this pertinent idea, an FPGA-based hardware architecture is developed, firstly to trigger the generation of the slave/receiver chaotic dynamics at each received data detection, and secondly to synchronize the driving signal with the slave generated chaotic signal for the demodulation operation. We have tested and validated the proposed solution through experimental realization of a wireless hyperchaotic communication system based on ZigBee communication protocol. Real-time results of experimental wireless communication tests are presented. The obtained results show the effectiveness and the robustness of the proposed solution against real channel noise in digital chaotic communications.

Citation:
S. Sadoudi, C. Tanougast, and M. S. Azzaz, "First Experimental Solution for Channel Noise Sensibility in Digital Chaotic Communications," Progress In Electromagnetics Research C, Vol. 32, 181-196, 2012.
doi:10.2528/PIERC12080906

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