Gianluca Setti

TL;DR: In this paper, the authors evaluated the impact of chaotic spreading codes on communication systems with asynchronous code division multiple access (CDMA) using a truncated and quantized chaotic time series.

TL;DR: A true random number generator which is not based on the explicit observation of complex micro-cosmic processes but on standard signal processing primitives, freeing the designer from the need for dedicated hardware and increasing the system security for cryptographic applications.

TL;DR: Mazzini et al. as discussed by the authors evaluated the impact of chaotic spreading codes on communication systems with asynchronous Code Division Multiple Access (CDMA) and provided analytical bounds on the expected partial cross correlation between spreading sequences obtained by quantizing and repeating a chaotic time series.

TL;DR: This paper applies simple encoding to define a general private-key encryption scheme in which a transmitter distributes the same encoded measurements to receivers of different classes, which are provided partially corrupted encoding matrices and are thus allowed to decode the acquired signal at provably different levels of recovery quality.

TL;DR: Experimental evidence shows that the availability of statistical tools enables the design of chaos-based systems which favorably compare with analogous nonchaos-based counterparts.