The mechanical properties of polymer nanoparticles as a function of their size were measured using atomic force microscopy (AFM). A novel protocol was developed, and the elastic modulus of individual nanospherical particles was computed from AFM 'force-distance' mapping curves. To eliminate the tip geometry, hemispherical tungsten (W) tip was fabricated using a focused ion beam under controlled conditions and was used as an indenter. It is found that the nanospherical polypropylene (PP) particles have a higher elastic modulus compared to the bulk. The results corroborate the robustness of our experiments as the analogous results for bulk match well with the literature
Proteinaceous assemblies are ubiquitous in nature. One important form of these assemblies are protei...
Single-particle nanoindentation by atomic force microscopy (AFM) is an emergent technique to charact...
Atomic force microscopy (AFM) nanoindentation of soft materials is a powerful tool for probing mecha...
A new method to determine the elastic modulus of a material using the atomic force microscope (AFM) ...
In contrast to macroscopic materials, the mechanical properties of polymer nanospheres show fascinat...
A method is proposed for quantitatively measuring the elastic modulus of materials using atomic forc...
Methods based on the atomic force microscope (AFM) were implemented or developed to measure and map ...
Atomic force microscopy (AFM) is a versatile tool to perform mechanical characterization of surface...
Several techniques are nowadays available to determine the size distribution of nanoparticulate matt...
The elastic modulus of metallic (Ag and Pb) nanowires and polymer (polypyrrole, PPy) nanotubes was m...
The effect of reduced size on the elastic properties measured on silver and lead nanowires and on po...
The difference between the mechanical properties of a material at the surface and in the bulk is an ...
In this study, nanomechanical properties of a variety of polymeric materials was investigated by mea...
The surfaces of polymer and interfaces between polymer and inorganic particles are of particular imp...
The elastic moduli of a range of polymers were characterized by nanoindentation on an atomic force m...
Proteinaceous assemblies are ubiquitous in nature. One important form of these assemblies are protei...
Single-particle nanoindentation by atomic force microscopy (AFM) is an emergent technique to charact...
Atomic force microscopy (AFM) nanoindentation of soft materials is a powerful tool for probing mecha...
A new method to determine the elastic modulus of a material using the atomic force microscope (AFM) ...
In contrast to macroscopic materials, the mechanical properties of polymer nanospheres show fascinat...
A method is proposed for quantitatively measuring the elastic modulus of materials using atomic forc...
Methods based on the atomic force microscope (AFM) were implemented or developed to measure and map ...
Atomic force microscopy (AFM) is a versatile tool to perform mechanical characterization of surface...
Several techniques are nowadays available to determine the size distribution of nanoparticulate matt...
The elastic modulus of metallic (Ag and Pb) nanowires and polymer (polypyrrole, PPy) nanotubes was m...
The effect of reduced size on the elastic properties measured on silver and lead nanowires and on po...
The difference between the mechanical properties of a material at the surface and in the bulk is an ...
In this study, nanomechanical properties of a variety of polymeric materials was investigated by mea...
The surfaces of polymer and interfaces between polymer and inorganic particles are of particular imp...
The elastic moduli of a range of polymers were characterized by nanoindentation on an atomic force m...
Proteinaceous assemblies are ubiquitous in nature. One important form of these assemblies are protei...
Single-particle nanoindentation by atomic force microscopy (AFM) is an emergent technique to charact...
Atomic force microscopy (AFM) nanoindentation of soft materials is a powerful tool for probing mecha...