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DTSTART:20260308T030000
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DTSTART:20251102T010000
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DTSTAMP:20251114T001550Z
UID:F745DD81-F675-4BFA-9CC6-E8D0E7154377
DTSTART;TZID=America/Los_Angeles:20251113T120000
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DESCRIPTION:The rapid growth of 3D advanced packaging introduces new challe
 nges in inspection and failure analysis\, where complex structures such as
  microbumps\, redistribution layers (RDLs)\, and through-silicon vias (TSV
 s) demand reliable non-destructive testing (NDT). Conventional approaches\
 , including Scanning Acoustic Microscopy (SAM) and X-ray imaging\, are lim
 ited by noise\, resolution\, and defect visibility\, creating barriers for
  reproducible and scalable analysis. To address these challenges\, our wor
 k advances an AI-powered multimodal inspection framework that couples phys
 ics-informed machine learning with structured data infrastructure. A Physi
 cs-Informed Neural Network (PINN) approach enhances SAM imaging by embeddi
 ng acoustic wave physics into reconstructions\, producing higher-fidelity 
 images validated through structural similarity and physical accuracy metri
 cs. Complementing this\, multimodal data fusion across SAM\, X-ray laminog
 raphy\, optical microscopy\, and CT establishes richer defect detection an
 d cross-validation. Central to this effort is the creation of multimodalit
 y benchmark datasets built on standardized acquisition protocols\, structu
 red metadata schemas\, and annotation pipelines. These datasets provide no
 t only a foundation for AI model training but also enable reproducibility\
 , traceability\, and interoperability across future programs.\n\nSpeaker(s
 ): Navid Asadi\, \n\nVirtual: https://events.vtools.ieee.org/m/498529
LOCATION:Virtual: https://events.vtools.ieee.org/m/498529
ORGANIZER:p.wesling@ieee.org
SEQUENCE:11
SUMMARY:AI-Enhanced Multimodal Approaches for Electronics Metrology and Fai
 lure Analysis
URL;VALUE=URI:https://events.vtools.ieee.org/m/498529
X-ALT-DESC:Description: &lt;br /&gt;&lt;p&gt;The rapid growth of 3D advanced packaging 
 introduces new challenges in inspection and failure analysis\, where compl
 ex structures such as microbumps\, redistribution layers (RDLs)\, and thro
 ugh-silicon vias (TSVs) demand reliable non-destructive testing (NDT). Con
 ventional approaches\, including Scanning Acoustic Microscopy (SAM) and X-
 ray imaging\, are limited by noise\, resolution\, and defect visibility\, 
 creating barriers for reproducible and scalable analysis. To address these
  challenges\, our work advances an AI-powered multimodal inspection framew
 ork that couples physics-informed machine learning with structured data in
 frastructure. A Physics-Informed Neural Network (PINN) approach enhances S
 AM imaging by embedding acoustic wave physics into reconstructions\, produ
 cing higher-fidelity images validated through structural similarity and ph
 ysical accuracy metrics. Complementing this\, multimodal data fusion acros
 s SAM\, X-ray laminography\, optical microscopy\, and CT establishes riche
 r defect detection and cross-validation. Central to this effort is the cre
 ation of multimodality benchmark datasets built on standardized acquisitio
 n protocols\, structured metadata schemas\, and annotation pipelines. Thes
 e datasets provide not only a foundation for AI model training but also en
 able reproducibility\, traceability\, and interoperability across future p
 rograms.&lt;/p&gt;
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