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DTSTAMP:20260222T181437Z
UID:8E8B7EAE-24FD-4951-A062-2C6CE9BC5386
DTSTART;TZID=Europe/Vienna:20260218T100000
DTEND;TZID=Europe/Vienna:20260218T110000
DESCRIPTION:Talk of Assoc. Prof. Dr. Diana Moya Osorio\, ISY\, Linköping U
 niversity\, Sweden\n\nAbstract: Radar technology is undergoing rapid expan
 sion\, with applications now spanning military systems\, transportation\, 
 healthcare\, personal security\, and robotics. Modern radars must therefor
 e become faster\, more adaptable\, and more intelligent. In parallel\, the
  wireless communication field is transitioning toward 6G\, with technical 
 studies initiated in 3GPP Release 20 (2025–2026)\, leading to the first 
 6G specifications in Release 21 (2028–2029) and commercial deployment ex
 pected around 2030.\n\nRadar and wireless communication systems have tradi
 tionally evolved independently as core applications of electromagnetic wav
 es. However\, recent advances in antenna architectures\, hardware platform
 s\, and new spectrum allocations have brought their designs closer togethe
 r. Increasing spectrum congestion and rising data-rate demands from 5G and
  beyond have positioned the upper mid-band (7–24 GHz\, FR3) as a promisi
 ng region for both coverage and bandwidth. These developments have renewed
  interest in unified system designs that integrate sensing and communicati
 on\, enabling significant gains in spectrum and energy efficiency\, hardwa
 re reuse\, and computational savings.\n\nThis talk explores how modern wir
 eless networks can function as distributed sensor arrays capable of provid
 ing radio-based environmental perception and precise localization. This em
 erging paradigm\, known as Integrated Sensing and Communication (ISAC)\, i
 s a key topic in ongoing 6G standardization efforts. In this context\, we 
 discuss how mobile networks can serve applications like drone detection an
 d tracking\, analysing waveform requirements\, cooperation strategies\, an
 tenna configurations\, and resource allocation trade-offs. While ISAC alon
 e cannot fully meet the strict demands of drone surveillance\, we aim to i
 dentify the potential contribution of mobile networks to this emerging use
  case. Finally\, we briefly address the security and privacy implications 
 associated with ISAC-enabled systems.\n\nCo-sponsored by: Johannes Kepler 
 University Linz\n\nSpeaker(s): Diana Moya Osorio\n\nRoom: MT 226/1\, Bldg:
  Science Park 1\, Johannes Kepler University Linz\, Altenbergerstr. 69\, L
 inz\, Oberosterreich\, Austria\, 4040
LOCATION:Room: MT 226/1\, Bldg: Science Park 1\, Johannes Kepler University
  Linz\, Altenbergerstr. 69\, Linz\, Oberosterreich\, Austria\, 4040
ORGANIZER:andreas.springer@jku.at
SEQUENCE:12
SUMMARY:Talk @ JKU: Communications and Radar Convergence\, Feb. 18th\, 10:0
 0
URL;VALUE=URI:https://events.vtools.ieee.org/m/538887
X-ALT-DESC:Description: &lt;br /&gt;&lt;p&gt;Talk of Assoc. Prof. Dr. Diana Moya Osorio
 \,&amp;nbsp\;ISY\, Link&amp;ouml\;ping University\, Sweden&lt;/p&gt;\n&lt;p&gt;&lt;strong&gt;Abstrac
 t:&amp;nbsp\;&lt;/strong&gt;Radar technology is undergoing rapid expansion\, with ap
 plications now spanning military systems\, transportation\, healthcare\, p
 ersonal security\, and robotics. Modern radars must therefore become faste
 r\, more adaptable\, and more intelligent. In parallel\, the wireless comm
 unication field is transitioning toward 6G\, with technical studies initia
 ted in 3GPP Release 20 (2025&amp;ndash\;2026)\, leading to the first 6G specif
 ications in Release 21 (2028&amp;ndash\;2029) and commercial deployment expect
 ed around 2030.&lt;/p&gt;\n&lt;p&gt;Radar and wireless communication systems have trad
 itionally evolved independently as core applications of electromagnetic wa
 ves. However\, recent advances in antenna architectures\, hardware platfor
 ms\, and new spectrum allocations have brought their designs closer togeth
 er. Increasing spectrum congestion and rising data-rate demands from 5G an
 d beyond have positioned the upper mid-band (7&amp;ndash\;24 GHz\, FR3) as a p
 romising region for both coverage and bandwidth. These developments have r
 enewed interest in unified system designs that integrate sensing and commu
 nication\, enabling significant gains in spectrum and energy efficiency\, 
 hardware reuse\, and computational savings.&lt;/p&gt;\n&lt;p&gt;This talk explores how
  modern wireless networks can function as distributed sensor arrays capabl
 e of providing radio-based environmental perception and precise localizati
 on. This emerging paradigm\, known as Integrated Sensing and Communication
  (ISAC)\, is a key topic in ongoing 6G standardization efforts. In this co
 ntext\, we discuss how mobile networks can serve applications like drone d
 etection and tracking\, analysing waveform requirements\, cooperation stra
 tegies\, antenna configurations\, and resource allocation trade-offs. Whil
 e ISAC alone cannot fully meet the strict demands of drone surveillance\, 
 we aim to identify the potential contribution of mobile networks to this e
 merging use case. Finally\, we briefly address the security and privacy im
 plications associated with ISAC-enabled systems.&lt;/p&gt;
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