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DTSTART:20260308T030000
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DTSTART:20251102T010000
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DTSTAMP:20260209T201505Z
UID:36F7DB6C-E3AD-42F2-9F05-D5BE57382E97
DTSTART;TZID=America/Denver:20260206T160000
DTEND;TZID=America/Denver:20260206T170000
DESCRIPTION:Emerging resistive memory technologies provide a unique opportu
 nity to unify computation\, storage\, security\, and data generation withi
 n a single hardware substrate. This talk introduces a comprehensive hardwa
 re platform based on multi-oxide RRAM crossbar arrays that achieves both p
 recision for analog computing and stochasticity for intrinsic security and
  generative diversity. Leveraging 5-bit device-level analog programmabilit
 y and reliable 4-bit array-level weight mapping\, key primitives of memory
 -augmented neural networks (MANNs) are implemented\, including convolution
 al encoding\, locality-sensitive hashing\, and RRAM-based CAM for few-shot
  learning with near-software accuracy. At the same time\, inherent device 
 variability is utilized as a high-entropy physical unclonable function for
  secure key generation and as a hardware-native randomness source that enh
 ances the diversity and perceptual realism of StyleGAN3-generated biometri
 c images. By integrating analog VMM\, associative memory search\, high-ent
 ropy randomness\, and hardware-seeded generative models within the same cr
 ossbar fabric\, this work demonstrates how “stochastic yet precise” me
 mristor arrays can provide a unified foundation for edge-intelligent\, sec
 ure\, and data-generating systems. Controlled multi-bit programming\, devi
 ce-aware learning\, and engineered randomness together enable a new class 
 of memory-centric AI platforms that support inference\, few-shot adaptatio
 n\, PUF-based security\, and high-fidelity generative AI.\n\nSpeaker(s): S
 ungjun Kim\, \n\nVirtual: https://events.vtools.ieee.org/m/534471
LOCATION:Virtual: https://events.vtools.ieee.org/m/534471
ORGANIZER:daphnechen@asu.edu
SEQUENCE:12
SUMMARY:Stochastic yet Precise: Multi-Level RRAM Crossbar Arrays for In-Mem
 ory Learning\, Security\, and Generative AI
URL;VALUE=URI:https://events.vtools.ieee.org/m/534471
X-ALT-DESC:Description: &lt;br /&gt;&lt;p class=&quot;MsoNormal&quot; style=&quot;text-align: justi
 fy\; text-justify: inter-ideograph\;&quot;&gt;Emerging resistive memory technologi
 es provide a unique opportunity to unify computation\, storage\, security\
 , and data generation within a single hardware substrate. This talk introd
 uces a comprehensive hardware platform based on multi-oxide RRAM crossbar 
 arrays that achieves both precision for analog computing and stochasticity
  for intrinsic security and generative diversity. Leveraging 5-bit device-
 level analog programmability and reliable 4-bit array-level weight mapping
 \, key primitives of memory-augmented neural networks (MANNs) are implemen
 ted\, including convolutional encoding\, locality-sensitive hashing\, and 
 RRAM-based CAM for few-shot learning with near-software accuracy. At the s
 ame time\, inherent device variability is utilized as a high-entropy physi
 cal unclonable function for secure key generation and as a hardware-native
  randomness source that enhances the diversity and perceptual realism of S
 tyleGAN3-generated biometric images. By integrating analog VMM\, associati
 ve memory search\, high-entropy randomness\, and hardware-seeded generativ
 e models within the same crossbar fabric\, this work demonstrates how &amp;ldq
 uo\;stochastic yet precise&amp;rdquo\; memristor arrays can provide a unified 
 foundation for edge-intelligent\, secure\, and data-generating systems. Co
 ntrolled multi-bit programming\, device-aware learning\, and engineered ra
 ndomness together enable a new class of memory-centric AI platforms that s
 upport inference\, few-shot adaptation\, PUF-based security\, and high-fid
 elity generative AI.&lt;/p&gt;
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