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DTSTART:20260308T030000
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DTSTART:20251102T010000
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DTSTAMP:20251114T145512Z
UID:07356C76-F3D5-4731-8957-F7D72EC2B604
DTSTART;TZID=America/Chicago:20251113T133000
DTEND;TZID=America/Chicago:20251113T143000
DESCRIPTION:Sn-based solder joints have quietly moved along with the progre
 ss of electronic packaging\, reliably bridging generations of systems from
  the eutectic Sn-Pb era to the now-dominant SAC305 alloy. These interconne
 cts have delivered sufficient mechanical\, thermal\, and electrical perfor
 mance while enabling system integration and manufacturability across multi
 ple technology nodes. But with the rise of artificial intelligence (AI) sy
 stems and high-performance computing (HPC) platforms the limits of what so
 lder joints must endure are facing challenges. Increase in current carryin
 g capability for higher power density\, enhanced thermal cycling performan
 ce for large size components\, manufacturing challenges\, and system-level
  stress mitigation are stretching SAC305 interconnects\, which served 30 y
 ears in industry\, now to the edge of their capabilities. This seminar wil
 l examine the solder joint microstructure base evolution and the stability
  mechanism\, the reasons for its decades-long availability and also visiti
 ng the potential limitations that are now emerging under AI systems and hi
 gh-performance computing (HPC). We will explore degradation mechanisms in 
 conventional solder alloys\, contrast them with low-melting and alternativ
 e solder material systems\, and assess how evolving reliability requiremen
 ts reshape interconnect strategies. The discussion will consider whether c
 onventional solder material can continue to serve as the backbone of packa
 ging\, or whether new roles or entirely reimagined interconnect solutions 
 will be required to sustain the next era of AI and high-performance electr
 onics.\n\nSpeaker(s): \, Tae\n\nVirtual: https://events.vtools.ieee.org/m/
 514142
LOCATION:Virtual: https://events.vtools.ieee.org/m/514142
ORGANIZER:hasnine@ieee.org
SEQUENCE:11
SUMMARY:From convention to transformation: The evolving role of solder inte
 rconnects in High-performance computing
URL;VALUE=URI:https://events.vtools.ieee.org/m/514142
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;Sn-based solder joints have quietly 
 moved along with the progress of electronic packaging\, reliably bridging 
 generations of systems from the eutectic Sn-Pb era to the now-dominant SAC
 305 alloy. These interconnects have delivered sufficient mechanical\, ther
 mal\, and electrical performance while enabling system integration and man
 ufacturability across multiple technology nodes. But with the rise of arti
 ficial intelligence (AI) systems and high-performance computing (HPC) plat
 forms the limits of what solder joints must endure are facing challenges. 
 Increase in current carrying capability for higher power density\, enhance
 d thermal cycling performance for large size components\, manufacturing ch
 allenges\, and system-level stress mitigation are stretching SAC305 interc
 onnects\, which served 30 years in industry\, now to the edge of their cap
 abilities. This seminar will examine the solder joint microstructure base 
 evolution and the stability mechanism\, the reasons for its decades-long a
 vailability and also visiting the potential limitations that are now emerg
 ing under AI systems and high-performance computing (HPC). We will explore
  degradation mechanisms in conventional solder alloys\, contrast them with
  low-melting and alternative solder material systems\, and assess how evol
 ving reliability requirements reshape interconnect strategies. The discuss
 ion will consider whether conventional solder material can continue to ser
 ve as the backbone of packaging\, or whether new roles or entirely reimagi
 ned interconnect solutions will be required to sustain the next era of AI 
 and high-performance electronics.&lt;/p&gt;
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