S. Wane, D. Bajon, J. Russer, P. Russer, G. Gradoni
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Energy-geometry-entropy bounds aware analysis of stochastic field-field correlations for emerging wireless communication technologies
Exponentially increasing demands for higher data rates and quality of service cannot be satisfied by delivering more power as higher power levels may reduce Signal-to-Interference-plus-Noise Ratio (SINR) with negative impact on overall system performances. Simultaneously, the continuous shrinking in transistors size for denser circuits integration, following Moore's law, will be constrained by the physical limits while the switching energy is approaching the thermal noise spectral density. The resulting thermal cooling capacity in terms of energy per unit time for given area will lead to a bottleneck. This paper calls for Energy-Geometry-Entropy Co-design tradeoffs for addressing the challenges of emerging technologies and for driving innovative applications relative to interactions of humans with smart devices in randomly changing environments.