TY - JOUR
T1 - Communications and robotics simulation in UAVs
T2 - A case study on aerial synthetic aperture antennas
AU - Calvo-Fullana, Miguel
AU - Pyattaev, Alexander
AU - Mox, Daniel
AU - Andreev, Sergey
AU - Ribeiro, Alejandro
N1 - Funding Information:
acKnoWledgments This work was supported by ARL DCIST CRA W911NF-17-2-0181, the Intel Science and Technology Center for Wireless Autonomous Systems, the Academy of Finland (projects RADIANT and IDEA-MILL), the Jane and Aatos Erkkos Foundation (project STREAM), and the RAAS Connectivity RTF framework. We would like to acknowledge the contributions of Tanmay R. Godbole (formerly with Tampere University) to enable this research.
Publisher Copyright:
© 1979-2012 IEEE.
PY - 2021
Y1 - 2021
N2 - Driven by their versatility and autonomy, advanced unmanned aerial systems have indicated substantial promise along the development of current communication networks, as well as in support of new communication platforms. The resulting integration of robotic and communication systems brings increased levels of complexity, which cannot be modeled accurately by conventional approaches. An example of this are aerial synthetic aperture antennas, in which an aerial robotic swarm coordinates their flight patterns and communication exchanges to produce a synthetic aperture. The accurate representation of such a system mandates the careful simulation of wireless communications, antenna radiation patterns, flight dynamics, and even environmental conditions. This article details an integrated communications and robotics simulation framework, which enables the assessment of these emerging systems. The benefits of this new approach are illustrated for the aerial synthetic aperture antenna example, but extend to a wide array of problems stemming from the union of communications and robotics. This novel modeling platform makes it possible to design and analyze joint flight and communication protocols for unmanned aerial systems. The obtained results provide valuable insights into the operation of swarm-based synthetic aperture antennas. Moreover, the methodology introduced in this work is flexible and can be readily applied to other instances of joint communication and robotic systems.
AB - Driven by their versatility and autonomy, advanced unmanned aerial systems have indicated substantial promise along the development of current communication networks, as well as in support of new communication platforms. The resulting integration of robotic and communication systems brings increased levels of complexity, which cannot be modeled accurately by conventional approaches. An example of this are aerial synthetic aperture antennas, in which an aerial robotic swarm coordinates their flight patterns and communication exchanges to produce a synthetic aperture. The accurate representation of such a system mandates the careful simulation of wireless communications, antenna radiation patterns, flight dynamics, and even environmental conditions. This article details an integrated communications and robotics simulation framework, which enables the assessment of these emerging systems. The benefits of this new approach are illustrated for the aerial synthetic aperture antenna example, but extend to a wide array of problems stemming from the union of communications and robotics. This novel modeling platform makes it possible to design and analyze joint flight and communication protocols for unmanned aerial systems. The obtained results provide valuable insights into the operation of swarm-based synthetic aperture antennas. Moreover, the methodology introduced in this work is flexible and can be readily applied to other instances of joint communication and robotic systems.
U2 - 10.1109/MCOM.001.2000496
DO - 10.1109/MCOM.001.2000496
M3 - Article
AN - SCOPUS:85101089364
SN - 0163-6804
VL - 59
SP - 22
EP - 27
JO - IEEE Communications Magazine
JF - IEEE Communications Magazine
IS - 1
ER -