Nanostructured metals with maximal grain or twin sizes of less than 100 nm have advanced properties like increased strength. As beneficial as these microstructures can be for the strength of materials, they are not infinitely stable. During mechanical loading these metals tend to coarsen and lose their beneficial structure. Besides electron microscopic analysis of fatigued samples, in situ cycling tests were conducted in order to observe structural degradation during mechanical loading
Fatigue investigations of micro- and nanoscale structural metals have become of great significance d...
Mechanisms to explain the unique mechanical behavior of nanograined metals focus primarily on grain ...
The resistance of metals and alloys to fatigue crack initiation and propagation is known to be influ...
Nanostructured metals suffer from microstructural degradation under mechanical load. The focus of th...
The cyclic mechanical properties and microstructural stability of severe plastically deformed copper...
More than half of all mechanical failures in engineering structures are classified as fatigue failu...
International audiencePushing the internal or external dimensions of metallic alloys down to the nan...
Publishing the internal or external dimensions of metallic alloys down to the nanometer scale gives ...
Nanocrystalline materials are being explored as potential off-chip interconnects materials for next ...
Nanophase metals have grain-size dependent mechanical properties that are significantly different th...
One of the most common causes of structural failure in metals is fatigue induced by cyclic loading. ...
Focusing on nanocrystalline (nc) pure face-centered cubic metals, where systematic experimental data...
Bulk nanostructured (NS) metals, with structural units falling in the nanometer range, are of intere...
AbstractStability of microstructure of ultrafine-grained materials under cyclic loading is a crucial...
AbstractCyclic nanoindentation loading is a localized fatigue test providing very useful information...
Fatigue investigations of micro- and nanoscale structural metals have become of great significance d...
Mechanisms to explain the unique mechanical behavior of nanograined metals focus primarily on grain ...
The resistance of metals and alloys to fatigue crack initiation and propagation is known to be influ...
Nanostructured metals suffer from microstructural degradation under mechanical load. The focus of th...
The cyclic mechanical properties and microstructural stability of severe plastically deformed copper...
More than half of all mechanical failures in engineering structures are classified as fatigue failu...
International audiencePushing the internal or external dimensions of metallic alloys down to the nan...
Publishing the internal or external dimensions of metallic alloys down to the nanometer scale gives ...
Nanocrystalline materials are being explored as potential off-chip interconnects materials for next ...
Nanophase metals have grain-size dependent mechanical properties that are significantly different th...
One of the most common causes of structural failure in metals is fatigue induced by cyclic loading. ...
Focusing on nanocrystalline (nc) pure face-centered cubic metals, where systematic experimental data...
Bulk nanostructured (NS) metals, with structural units falling in the nanometer range, are of intere...
AbstractStability of microstructure of ultrafine-grained materials under cyclic loading is a crucial...
AbstractCyclic nanoindentation loading is a localized fatigue test providing very useful information...
Fatigue investigations of micro- and nanoscale structural metals have become of great significance d...
Mechanisms to explain the unique mechanical behavior of nanograined metals focus primarily on grain ...
The resistance of metals and alloys to fatigue crack initiation and propagation is known to be influ...