A systematic pathway to design novel Heusler materials is by analyzing structural phase stability, electronic structure, mechanical and magnetic properties.
Studies of the deep muscle contribution and combined effects of muscle fatigue and modification of passive structure mechanical properties are warranted to better understand the stability mechanisms underlying the FRP response.
Cell mechanobiology topics including cell structure, mechanical models, and chemo-mechanical signaling.
The structure, mechanical strength, degradation and biocompatibility of the vascular HLC/HA scaffold were evaluated.
The structure, mechanical and corrosion properties of this material were investigated.
The structure, mechanical properties and biological activity of the PCL/PEI electrospun nanofibers were studied.
Morphology, structure, mechanical and thermal properties of the membranes were characterized.
Structure, mechanical, and dynamic mechanical properties of these fibers were systematically investigated.
Structure, mechanical and tribological properties were studied by XRD, SEM, Tribometry, Profiler and Vickers indentation techniques.
The fibers have been characterized for their morphology, structure, mechanical properties, as well as electrical conductivity.
The paper reports on the structure, mechanical and optical properties of sputtered Zr Al–O films.
