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DTSTART;TZID=America/Chicago:20251116T103000
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UID:submissions.supercomputing.org_SC25_sess119_ws_xloop102@linklings.com
SUMMARY:xGFabric: Coupling Sensor Networks and HPC Facilities with Private
  5G Wireless Networks for Real-Time Digital Agriculture
DESCRIPTION:Liubov Kurafeeva (University of California, Santa Barbara); Al
 an Subedi (University of Nebraska–Lincoln); Ryan Hartung (University of No
 tre Dame); Michael Fay and Avhishek Biswas (University of Nebraska–Lincoln
 ); Shantenu Jha (Princeton Plasma Physics Laboratory); Ozgur Kilic (Brookh
 aven National Laboratory); Chandra Krintz (University of California, Santa
  Barbara); Andre Merzky (Princeton Plasma Physics Laboratory); Douglas Tha
 in (University of Notre Dame); Mehmet Vuran (University of Nebraska–Lincol
 n); and Rich Wolski (University of California, Santa Barbara)\n\nAdvanced 
 scientific applications require coupling distributed sensor networks with 
 centralized high-performance computing facilities. Citrus Under Protective
  Screening (CUPS) exemplifies this need in digital agriculture, where citr
 us research facilities are instrumented with numerous sensors monitoring e
 nvironmental conditions and detecting protective screening damage. CUPS de
 mands access to computational fluid dynamics codes for modeling environmen
 tal conditions and guiding real-time interventions like water application 
 or robotic repairs. These computing domains have contrasting properties: s
 ensor networks provide low-performance, limited-capacity, unreliable data 
 access, while high-performance facilities offer enormous computing power t
 hrough high-latency batch processing. Private 5G networks present novel ca
 pabilities addressing this challenge by providing low latency, high throug
 hput, and reliability necessary for near-real-time coupling of edge sensor
  networks with HPC simulations. This work presents xGFabric, an end-to-end
  system coupling sensor networks with HPC facilities through Private 5G ne
 tworks. The prototype connects remote sensors via 5G network slicing to HP
 C systems, enabling real-time digital agriculture simulation.\n\nRecording
 : Livestreamed, Recorded\n\nRegistration Category: Technical Program Reg P
 ass, Workshop Reg Pass\n\nSession Chairs: Justin Wozniak (Argonne National
  Laboratory (ANL), University of Chicago); Nicholas Schwarz (Argonne Natio
 nal Laboratory (ANL)); and Hannah Parraga (Argonne National Laboratory (AN
 L))\n\n
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