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Meeting 2022 TMS Annual Meeting & Exhibition
Symposium 30 Years of Nanoindentation with the Oliver-Pharr Method and Beyond
Sponsorship TMS Materials Processing and Manufacturing Division
TMS: Nanomechanical Materials Behavior Committee
Organizer(s) Verena Maier-Kiener, Montanuniversitaet Leoben
Benoit Merle, University Of Kassel
Erik G. Herbert, Michigan Technological University
Samantha K. Lawrence, Los Alamos National Laboratory
Nigel Jennett, Coventry University
Scope The origin of nanoindentation can be traced to the 1980s with the development of the first instrumented hardness testers providing submicrometer accuracy. However, it took the 1992 seminal publication by W.C. Oliver and G.M. Pharr to effectively launch the field. Their novel data evaluation procedure, later dubbed the “Oliver-Pharr method”, has directly enabled numerous transformative research efforts in a diverse range of fields spanning materials science, geology, biology and medicine. Up to now, it remains indispensable for ensuring the service performance and lifetime of essential small components, such as thin films and coatings, electronic sensors and MEMS.

This symposium aims at bringing together the different generations of researchers, as well as the different fields and applications. It will highlight the amazing range of applications and the robustness of the Oliver-Pharr method. A mixture of well-established invited speakers and promising younger researchers will address how everything started, how nanoindentation is currently used, and what the future of small-scale mechanical testing might look like.

Topics of interest:
• General aspects of nanoindentation including historical background
• Nanoindentation in-method development, standardization
• New approaches towards data science
• Dynamic nanoindentation (CSM, CMX, dynamics….)
• Refinements in understanding
• Indentation Size Effects
• Thermally activated deformation behavior
• Extreme testing environments, e.g. high and low temperatures, irradiation, electrochemical or high strain rates
• Complex loading conditions, such as cyclic fatigue, fracture testing
• In-situ testing in SEM, TEM or synchrotron
• Stress-strain measurements, e.g. from spherical nanoindentation
• Structural and functional materials; thin films, metals, ceramics, amorphous & crystalline
• Soft and viscoelastic materials behavior

Abstracts Due 07/19/2021
Proceedings Plan Planned:
PRESENTATIONS APPROVED FOR THIS SYMPOSIUM INCLUDE

10% Rule of Thumb for Indentation Mechanical Behavior: Fact or Fiction
A Comparative Study of Fracture Toughness Measurements in Two Silicate Glasses Using Nanoindentation
A Mathematical Framework for High Strain Rate Nanoindentation Testing
A Multi-modal Mapping Approach to Enable Correlative Compositional, Crystallographic and Mechanical Property Analysis
A New Long-term Indentation Relaxation Method to Measure Creep Properties at the Micro-scale with Application to Fused Silica, PMMA and Amorphous Selenium
A Novel Indentation-size-effect-based Nanoindentation Test Method Enabling Smaller Scale Testing for Safer Nuclear Structural Health Monitoring
A Novel Nanoindentation Protocol to Characterize Surface Free Energy of Superhydrophobic Nanopatterned Materials
Adapting Nanoindentation for In-situ Electron Microscopy Experiments in Coupled Environments
An Improved Technique for Accurate Mechanical Characterization of Free-standing Films and Its Applications
Analyzing Thin Film Strength and Thermo-mechanical Behavior by Wedge Indentation and Bi-metal Beams
Application of Nanoindentation Strain Rate Jump Tests to Measure Strain Rate Sensitivity of Single Crystal Tungsten and Microcrystalline Cellulose
Assessing Segregation-induced Softening in Nanocrystalline Stabilized NiP by Nanoindentation
Bulk Metallic Glass Ductility Trends Are Revealed by High Data Rate Experiments
Characterization of Grain Boundaries in Geological Materials Using Micromechanical Testing
Comparison between Long-term Nanoindentation Creep Testing under Constant Load and Constant Pressure
Correlation between Electrical Contact Resistance, Deviation from Elastic Unloading and Phase Transformation in Silicon
Determination of Constitutive Properties for Shape Memory Alloys from Nanoindentation Response
Determining Material Parameters from Nanoindentation Data by Inverse Methods
Development of a New Method to Measure Surface Mechanical Properties Using In Situ SEM Microshear: Application at High Strain Rate
Estimating the Elastic Constants of Pulp Fibers with Nanoindentation
Factors Affecting Nanoindentation Derived Activation Parameters for PLC Effects
From Instrumented Indentation to Nanoindentation and Beyond
H-1: High-speed Indentation for 3D Mapping of Nanoporous Gold
H-2: Investigating the Strain Rate Dependence of Hardness of Cu/Mo Nanolaminate Films Using Conventional and High Strain Rate Nanoindentation Methods
H-3: Nanoindentation of Semi-crystalline and Amorphous Thermoplastics
Hardening Relationship with Hydrogen and Dislocation Structure in FeCr Alloys by In Situ Nanoindentation
High-temperature Scanning Indentation: A New Technique to Assess Microstructural Changes Along Thermal Ramping
Indentation Measurements of the Coupled Electrochemical-mechanical Behavior of Materials for Making Better Batteries
Length Scale Effects of Nanoindentation on Additively Manufactured Stainless Steel
Measurement of Hardness and Elastic Modulus by Depth Sensing Indentation: Improvements to the Technique Based on Continuous Stiffness Measurement
Measuring Stress-strain Curves of Metals by Nanoindentation with a Frustum
Mechanical Deformation in Nanomultilayers
Mechanics of Non-equilibrium Thin Films
Nanoindentation's Top Ten Unexpected and Unusual Applications
Nanoindentation at High Sustained Strain Rates: Recent Improvements and Challenges
Nanoindentation Creep Testing: Advantages and Limitations of the Constant Contact Pressure Method
Nanoindentation for Reliable Assessment of Mechanical Flow Curves Under Ambient and Non-ambient Conditions
Nanoindentation of NiTi Shape Memory Alloys
Nanoindentation of Supercrystalline Nanocomposites
Nanoindentation to Determine High Temperature Rate Effects in Advanced Nuclear Reactor Steels
Nanoindentations on Nuclear Reactor Relevant Materials
Nanoindentation: From the 1-D Original to 2 Dimensions
Nanomechanical Evaluation of Porous Polymeric Thin Films
Nanomechanics of Materials for High-capacity Rechargeable Batteries
New Instrumentation and Analysis Methodology for Nano-impact Testing
NOW ON-DEMAND ONLY – Best Practices for Berkovich Nanoindentation in Hard Biological Tissues
NOW ON-DEMAND ONLY - Nanoindentation of Zoned Radiation-damaged Zircon: Micro-pillar Splitting and Mechanical Properties Mapping
NOW ON-DEMAND ONLY – Simulations and Experiments of the Strain Rate Sensitivity Measurements Using Conical and Spherical Indentation Creep
NOW ON-DEMAND ONLY – Work-based Definition of the Strain Rate in indentation
Nucleation, Activation, and Looking for Perfection: Yield Points in Nanoindentation
On the Generality of the Contact Stiffness Relationship in Frictional Contact of Dissimilar Elastic Solids
On the Plastic Deformation Mechanisms Operating in High Purity Indium at Small Length Scales and High Homologous Temperatures
Optimization of Segregation-engineered Nanocrystalline Al Alloys Using Nanomechanical Testing
Process-structure-property-performance Relations for High-pressure Cold-sprayed Metals via Nanoindentation Stress-strain Measurements
Simultaneous Nanoindentation and Acoustic Monitoring Enhanced by the Deep Learning Methodology
Size-dependent Indentation Behavior and Geometrically Necessary Dislocation Structures of Single-crystalline Tungsten
Understanding Rate-depending Plastic Deformation under Hydrogen Influence through Advanced In-situ Electrochemical Nanoindentation
Using Machine Learning Approaches to Enable Insights in Nanoindentation Tip Wear
Variable Strain Rate Stress-strain Behavior Using Displacement-controlled Spherical Nanoindentation
Your Default Load Function May be Working Against You and What To Do About It


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