Apr 9, 2025
11:30am - 11:45am
Summit, Level 4, Room 421
Steven Spurgeon1,2,Arman Ter-Petrosyan3,Mike Holden4,Jenna Pope4,Sarah Akers4,Christina Doty4,Kayla Yano4,Rajendra Paudel5,Le Wang4,Eric Lang6,Grace Guinan1,Michelle Smeaton1,Hilary Egan1,Andrew Glaws1,Brian Wyatt7,Bethany Matthews4,Khalid Hattar8,Ryan Comes5,Yingge Du4,Babak Anasori7
National Renewable Energy Laboratory1,University of Colorado Boulder2,University of California, Irvine3,Pacific Northwest National Laboratory4,University of Delaware5,The University of New Mexico6,Purdue University7,The University of Tennessee, Knoxville8
Steven Spurgeon1,2,Arman Ter-Petrosyan3,Mike Holden4,Jenna Pope4,Sarah Akers4,Christina Doty4,Kayla Yano4,Rajendra Paudel5,Le Wang4,Eric Lang6,Grace Guinan1,Michelle Smeaton1,Hilary Egan1,Andrew Glaws1,Brian Wyatt7,Bethany Matthews4,Khalid Hattar8,Ryan Comes5,Yingge Du4,Babak Anasori7
National Renewable Energy Laboratory1,University of Colorado Boulder2,University of California, Irvine3,Pacific Northwest National Laboratory4,University of Delaware5,The University of New Mexico6,Purdue University7,The University of Tennessee, Knoxville8
Control of point defects and disorder in functional thin films and 2D materials is critical to realizing their full potential in applications ranging from energy storage to advanced electronics. However, these phenomena are often poorly understood, difficult to characterize, and challenging to direct with precision. This presentation explores emerging multi-modal computer vision to decipher and predict order in materials across multiple length scales in the electron microscope, from the atomic to the nanoscale. By fusing data from diverse sources, these powerful models provide unprecedented insights into materials' lifecycles, enabling the control of defects and their associated properties at a fundamental level. This capability promises to transform materials design and accelerate the development of next-generation technologies.