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THE IEEE 1906.1 STANDARD: NANOCOMMUNICATIONS AS A NEW SOURCE OF DATA

                     Sebastian Canovas-Carrasco, Antonio-Javier Garcia-Sanchez, Joan Garcia-Haro


             Department of Information and Communication Technologies, Technical University of Cartagena,
                                                    Cartagena, Spain.
                     Emails: sebas.canovas@upct.es, antoniojavier.garcia@upct.es, joang.haro@upct.es





                              ABSTRACT                        information.  Nowadays, the IoT relies on the well-known
                                                              Wireless  Sensor  Networks  (WSN),  in  which  numerous
           Nanoscale   communications   is   a   new   paradigm   devices  with  limited  resources  are  connected, in order to
           encompassing all those concerns related to the exchange of   provide feasible solutions in multiple heterogeneous fields,
           information  among  devices  at  the  nanometer  scale.  A   such  as  agriculture, industry, smart cities, etc. Keeping in
           network  infrastructure  consisting  of  a  huge  amount  of   mind  the  way  WSN  operate  and  due  to  incessant
           nano-devices  is  envisaged  to  ensure  robust,  reliable  and   technological  advances,  novel  devices  with  progressively
           coordinated data transmission. This will enable a plethora   smaller  dimensions  are  being  developed,  to  ease  their
           of forthcoming applications and services in many different   integration into the environment. However, as they become
           research  fields,  such  as  personalized  medicine,  synthetic   smaller,  many  concerns,  such  as  available  energy,
           biology, environmental science or industry, which will lead   transmission range or data processing capacity are far more
           to  outstanding  and  unprecedented  advances.  The  IEEE   restricted than in traditional WSN. Thus, when the scale of
           P1906.1  standard  provides  a  conceptual  and  general   these tiny devices decreases to nanometers, a new paradigm
           framework to set the starting point for future developments   arises,  nanoscale  communications  between  nanomachines,
           in nanoscale communication networks. This paper reviews   and between nanomachines and more conventional devices
           the latest IEEE P1906.1 recommendations, observing their   in the network.
           main  features  when  applied  to  the  electromagnetic  (EM)   These  data-driven  nanodevices  have  become  a  topic  of
           nanocommunication area. We contribute by identifying and   increasing interest for the scientific community, since they
           discussing  the  principal  shortcomings  of  the  standard,  to   would  be  able  to  gather  physical  parameters  at  the
           which  further  research  efforts  must  be  devoted.  We  also   nanoscale  with  outstanding  accuracy.  This  capacity  would
           provide  interesting  guidelines  for  focusing  the  object  of   allow  the  monitoring  of  scenarios  not  explored  to  date,
           future investigations.                             enabling  a  plethora  of  potential  applications  in  fields  as
                                                              varied  as  biomedicine,  synthetic  biology,  environmental
             Keywords  —  Nanoscale  communication  networks,   science or industry, among many others. Indeed, one of the
           nanodevices,  EM  nanocommunications,  terahertz  band,   most promising applications of these nanodevices is aimed
           IEEE standards.                                    at improving medicine, because diverse medical tests, such
                                                              as blood pressure, virus detection or oxygen levels in blood
                          1. INTRODUCTION                     (Figure  1),  could  be  collected  in  vivo  and  directly
                                                              transmitted to medical personnel (e.g. information about the
           In  the  emerging  Internet  of  Things  (IoT),  objects  are   variation in number and size of cancer cells will be received
           expected  to  be  able  to  sense  and  capture  the  physical   by the oncologist).
           variables of their surroundings (e.g. temperature, humidity,   Several  works  have  dealt  with  how  nanodevices  should
           pressure, etc.) as well as to process the acquired information   communicate  with  each  other.  This  is  becoming  a  critical
           and communicate it wirelessly to any other object/node in   issue, since the extremely limited resources of nanodevices
           their  network.  These  enhanced  objects  integrate  small   require  them  to  work  cooperatively  to  carry  out  a  useful
           sensing/computing/communicating devices in a varied range   application. Two main alternatives for communicating at the
           of sizes, including the nanoscale. Moreover, devices in IoT   nanoscale  have  been  envisaged  so  far,  electromagnetic
           constitute a network infrastructure connecting both physical   (EM) and molecular communication.
           and  virtual  worlds  by  means  of  all  sorts  of  innovative   EM communication is based on the use of electromagnetic
           applications  and  services,  some  of  them  currently   waves  to  transmit  a  message  between  two  nanodevices.
           unimaginable. In this context, a huge amount of data will be   Advancements in carbon electronics, mainly those devices
           generated and should be properly managed to extract useful   made  of  graphene  and  carbon  nanotubes  (CNT),  have
                                                              played a key role in the development of a new generation of
           This work has been supported by the project AIM, ref.   electronic  nanocomponents,  such  as  nanoantennas  or
           TEC2016-76465-C2-1-R (AEI/FEDER, UE).



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