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Meeting 2026 TMS Annual Meeting & Exhibition
Symposium Fracture and Deformation Across Length Scales: Celebrating the Legacy of William Gerberich
Presentation Title Interface-Driven Strength and Fracture Behavior in Ni-Al Multilayers: Insights from Micromechanical Testing
Author(s) Ruth Schwaiger, Peter Nellessen, Xi Li, Nicolas J. Peter
On-Site Speaker (Planned) Ruth Schwaiger
Abstract Scope Interfaces play a pivotal role in governing the mechanical behavior of nanoscale materials, influencing not only their strength but also their fracture resistance. With the goal to understand deformation and failure at small scales, this presentation explores metallic multilayers as a platform for tuning interfacial properties. Using advanced micromechanical testing, we have investigated Ni-Al metallic multilayers with nanometer-scale periodicity as a model system for interface engineering. Our findings indicate that ordering at interfaces impedes dislocation motion, leading to significant strengthening beyond classical confinement effects. Using focused ion beam fabrication and in-situ micromechanical testing, we probe the role of the interfaces in altering deformation and failure modes. This study connects fundamental insights on interface mechanics with strategies for developing robust, nanostructured materials.
Proceedings Inclusion? Planned:
Keywords Thin Films and Interfaces, Mechanical Properties, Characterization

OTHER PAPERS PLANNED FOR THIS SYMPOSIUM

A Stochastic Approach to Critical Energy Release Rate in Phase-Field Fracture Simulation
Bending Hard Phases to Gerberich’s Will
Deep Learning in Characterization of Nanoindentation Induced Acoustic Events
Ductile-to-brittle transition in quasicrystals across length scales
Effects of Grain Size on Plasticity Mechanisms of Nanocrystalline MgAl₂O₄ Spinel under Nanoindentation: Hall-Petch vs. Inverse Hall-Petch
Effects of Grain Size, Orientation, and Indentation Spacing on Nanoindentation Response in 1100 Aluminum
From the Titanic to nanopillars: brittle to ductile transitions as a function of temperature and size
Harnessing Machine Learning for Quantum-Accurate Predictions of Nonlinearities and Fracture in 2D Materials
In-situ HRTEM on atomic-scale plasticity in nanoscale materials
In search of stress-induced complexion transitions in nanocrystalline metals
Interface-Driven Strength and Fracture Behavior in Ni-Al Multilayers: Insights from Micromechanical Testing
Interrelations between the Fracture Toughness and Nanoindentation Derived Properties for Accelerated Alloy Screening
Linking the Dislocation Microenvironment to Properties in Metals and Alloys
Material Metrologies for Reliable Semiconductor Manufacturing
Measuring toughness at the microscale - a tribute to Bill Gerberich
Nanoindentation Combined with In-Situ SPM Imaging, and Later with TEM Imaging
New "Eyes and Ears" on the Origins of Friction from Two-Axis Nanoindentation
Observing Defects and Fracture in the TEM
Plasticity Effects and Fracture at the Microscale
Recent Advances on the Size Effect on Fracture Toughness of Materials: The Role of crack tip stress in explaining crack size and specimen size effects
Revealing the line-defect-based mechanisms of deformation-induced martensitic transformations
Role of Grain Boundary Slip Transfer on Deformation and Damage Behavior in Titanium
Spatial Statistics Framework for Detecting Strain Field Heterogeneity and Damage in Composite Adhesive Joints
Stress-Strain Relationship of Carbamazepine form III: From Nanoindentation to Micropillar Compression
The Stochastic Buckling of Geometrically-Imperfect Hemispherical Shells Exhibits a Similar Size Effect as the Strength of Brittle Solids
Yield points during indentation: what one small step can tell you

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