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DTSTAMP:20231108T234950Z
UID:41C7F2D8-93A9-4E6F-81A7-F89FF0119E21
DTSTART;TZID=America/Los_Angeles:20231026T115000
DTEND;TZID=America/Los_Angeles:20231026T130000
DESCRIPTION:[this is a no-charge online event]\n\nThe lithium-ion battery (
 LIB) features structural and chemical complexities across a broad range of
  length scales. An in-depth understanding of the battery function\, degrad
 ation\, and failure mechanisms requires a thorough investigation from the 
 structural\, chemical\, mechanical\, and dynamic perspectives. In this tal
 k\, I present a macro-to-nano zoom through the hierarchy of a standard bat
 tery cell using a suite of state-of-the-art X-ray characterization techniq
 ues. Damage\, deformation\, and heterogeneity at different length scales a
 re visualized and are associated to different degradation phenomena and me
 chanisms. Our results highlight the importance of the cathode material’s
  mechanical properties\, which could significantly impact both immediate a
 nd long-term cell behaviors. Going beyond battery research\, I will also b
 riefly discuss the application of X-ray characterization tools for applica
 tions in the semiconductor industry and in electronic device packaging.\n\
 nSpeaker(s): Yijin Liu\, \n\nVirtual: https://events.vtools.ieee.org/m/366
 159
LOCATION:Virtual: https://events.vtools.ieee.org/m/366159
ORGANIZER:anmalik@ieee.org
SEQUENCE:20
SUMMARY:A Macro-To-Nano Zoom Through A Real-World Battery With X-Ray Vision
  [remote/no fee]
URL;VALUE=URI:https://events.vtools.ieee.org/m/366159
X-ALT-DESC:Description: <br /><p>[this is a no-charge online event]</p>\n<p
 ><span style="caret-color: #7a7a7a\; color: #7a7a7a\; font-family: 'Open S
 ans'\, 'Open Sans'\; font-size: 18px\; font-style: normal\; font-variant-c
 aps: normal\; font-weight: 400\; letter-spacing: normal\; orphans: auto\; 
 text-align: start\; text-indent: 0px\; text-transform: none\; white-space:
  normal\; widows: auto\; word-spacing: 0px\; -webkit-text-stroke-width: 0p
 x\; background-color: #ffffff\; text-decoration: none\; display: inline !i
 mportant\; float: none\;">The lithium-ion battery (LIB) features structura
 l and chemical complexities across a broad range of length scales. An in-d
 epth understanding of the battery function\, degradation\, and failure mec
 hanisms requires a thorough investigation from the structural\, chemical\,
  mechanical\, and dynamic perspectives. In this talk\, I present a macro-t
 o-nano zoom through the hierarchy of a standard battery cell using a suite
  of state-of-the-art X-ray characterization techniques. Damage\, deformati
 on\, and heterogeneity at different length scales are visualized and are a
 ssociated to different degradation phenomena and mechanisms. Our results h
 ighlight the importance of the cathode material&rsquo\;s mechanical proper
 ties\, which could significantly impact both immediate and long-term cell 
 behaviors. Going beyond battery research\, I will also briefly discuss the
  application of X-ray characterization tools for applications in the semic
 onductor industry and in electronic device packaging.</span></p>\n<p>&nbsp
 \;</p>
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