Page 12 - ITU Journal Future and evolving technologies Volume 2 (2021), Issue 3 – Internet of Bio-Nano Things for health applications
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ITU Journal on Future and Evolving Technologies, Volume 2 (2021), Issue 3



               Evolutionary  game  theoretic  resource  allocation  simulation  for  molecular
               communication

               Pages 111-119
               Caglar Koca, Meltem Civas, Ozgur B. Akan

               Molecular Communication (MC) is an emerging technology using molecules to transfer information
               between nanomachines. In this paper, we approach the resource allocation problem in Molecular Nano-
               networks (MCN) from the perspective of evolutionary game theory. In particular, we consider an MCN
               as  an  organism  having  three  types  of  nodes  acting  as  a  sensor,  relay,  and  sink,  respectively.  The
               resources are distributed among the nodes according to an evolutionary process, which relies on the
               selection of the most successful organisms followed by creating their offspring iteratively. In this regard,
               the success of an organism is measured by the total number of dropped messages during its life cycle.
               To illustrate the evolution procedure, we design a toy problem, and then solve it analytically and using
               the evolution approach for comparison. We further simulate the performance of the evolution approach
               on randomly generated organisms. The results reveal the potential of evolutionary game theory tools to
               improve the transmission performance of MCNs.

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               Electric manifestations and social implications of bacteria aggregation from the

               Bessel-Keller-Segel equation

               Pages 121-128
               Huber Nieto-Chaupis

               This paper proposes a fair extension of Keller-Segel equation based in the argument that bacteria exhibit
               properties  electric in their composition. The new mathematical form of this extension involves the
               integer-order Bessel functions. With this one can go through the electrodynamics of the representative
               scenarios in order to understand the social behavior of bacteria. From the theoretical side this paper
               demonstrates that, charged electrically, aggregation of bacteria would give rise to electric currents that
               hypothetically  are  the  reasons  for  social  organization  and  disruption  among  them.  The  electrical
               properties  of  bacteria  from  this  mathematical  proposal  might  be  relevant  in  a  prospective
               implementation of so-called Internet of Bio-Nano Things network, that aims to be characterized for
               having a very high signal/noise.

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