Predicting Partially Disordered Nanostructures: Graph-Based versus Image-Based Approaches
POSTER
Abstract
Nanomaterials often exhibit a balance between order and disorder, with the highest performance emerging in partially disordered regimes. Silver nanowire (AgNW) networks exemplify this behavior, achieving optimal transport properties within a “Goldilocks zone” between regularity and randomness. A key challenge is predicting how local structural motifs propagate into large-scale organization, as large-area nanoscale imaging is costly and incomplete.
Here, we compare two complementary approaches to reconstruct partially disordered networks: a graph-based method that learns local-to-global expansion rules, and an image-based machine learning model that completes partially observed SEM images. The comparison reveals how structural information encoded in graphs differs from that captured by image-based representations. This study provides one of the first direct evaluations of graph versus image frameworks for predicting partially disordered nanostructures and introduces spatially aware metrics for quantitative assessment.
Here, we compare two complementary approaches to reconstruct partially disordered networks: a graph-based method that learns local-to-global expansion rules, and an image-based machine learning model that completes partially observed SEM images. The comparison reveals how structural information encoded in graphs differs from that captured by image-based representations. This study provides one of the first direct evaluations of graph versus image frameworks for predicting partially disordered nanostructures and introduces spatially aware metrics for quantitative assessment.
Publication: L. Lin, N. A. Kotov, "Prediction of Partially Disordered Nanostructures: Graph-Based vs. Image-Based Methods," manuscript in preparation (2025).
Presenters
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Linlin Sun
- University of Michigan