Mechanical Memories in Solids, from Disorder to Design

Solids are rigid, which means that when left undisturbed, their structures are nearly static. It follows that these structures depend on history—but it is surprising that they hold readable memories of past events. Here, we review the research that has recently flourished around mechanical memory formation, beginning with amorphous solids’ various memories of deformation and mesoscopic models based on particle rearrangements. We describe how these concepts apply to a much wider range of solids and glassy matter, and how they are a bridge to memory and physical computing in mechanical metamaterials. An understanding of memory in all these solids can potentially be the basis for designing or training functionality into materials. Just as important is memory's value for understanding matter whenever it is complex, frustrated, and out of equilibrium.

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Publication Details

Journal
Annual Review of Condensed Matter Physics
Published
2024-09-16
DOI
https://doi.org/10.1146/annurev-conmatphys-032822-035544
Citations
22
Primary Topic
Shape Memory Alloy Transformations
Type
article
Field-Weighted Citation Impact
2.58
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article

Mechanical Memories in Solids, from Disorder to Design

Nathan C. Keim, Joseph D. Paulsen
22 citations
Annual Review of Condensed Matter Physics
Shape Memory Alloy Transformations
2.58
article

Mechanical Memories in Solids, from Disorder to Design

Nathan C. Keim, Joseph D. Paulsen
article en
22 citations

Abstract

Solids are rigid, which means that when left undisturbed, their structures are nearly static. It follows that these structures depend on history—but it is surprising that they hold readable memories of past events. Here, we review the research that has recently flourished around mechanical memory formation, beginning with amorphous solids’ various memories of deformation and mesoscopic models based on particle rearrangements. We describe how these concepts apply to a much wider range of solids and glassy matter, and how they are a bridge to memory and physical computing in mechanical metamaterials. An understanding of memory in all these solids can potentially be the basis for designing or training functionality into materials. Just as important is memory's value for understanding matter whenever it is complex, frustrated, and out of equilibrium.

Annual Review of Condensed Matter PhysicsVol. 16(1)
Pennsylvania State University (US), Syracuse University (US)
Openalex Percentile: Top 6%
Shape Memory Alloy Transformations
2.58
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Mechanical Memories in Solids, from Disorder to Design — Nathan C. Keim, Joseph D. Paulsen · Annual Review of Condensed Matter Physics (2024) | TGRS Research Map | TGRS