Glassy polymers confined at nano‐scale do exhibit anomalous thermo‐viscoelastic behavior in respect to their bulk response. For example, in ultra‐thin polymer films both negative coefficient of thermal expansion (NCTE) and glass transition temperature (Tg) depression are observed, experimentally. Theoretical conjectures have been drawn that qualitatively explain some features of highly confined glassy polymers [1,2,3] yet quantitative prediction of NCTE and Tg depression would allow a reliable design of devices operating at nano‐scale. In this paper the thin films anomalies are shortly reviewed and their explanation is tempted with classical existing theories
We review the recent activity aiming to clarify glassy dynamics in nanostructured polymer glasses, i...
Glassy dynamics under nanoscale confinement is currently a topic under intense debate in soft matter...
In nanoconfined thin films, numerous studies have revealed the thickness dependencies of different t...
This chapter reviews the recent experiments involving the dynamics of polymer films with thickness c...
Over the past twenty years experiments performed on thin polymer films deposited on substrates have ...
The glass transition temperature Tg of thin polymer layers in general differs from the bulk value. L...
Understanding the mechanical properties of polymers at the nanoscale is critical in numerous emergin...
Understanding why the glass transition temperature (Tg) of polymers deviates substantially from the ...
The temperature and thickness dependence of the thermal expansivity of ultrathin thin films of poly(...
Glass transition behavior of nanoscopically thin polymer films is investigated by means of molecular...
The nanobubble inflation method is the only experimental technique that can measure the viscoelastic...
The glass transition process gets affected in ultrathin films having thickness comparable to the siz...
Despite two decades of extensive research, direct experimental evidence of a dynamical length scale ...
The temperature and thickness dependence of the thermal expansivity of ultrathin thin films of poly(...
Many of today\u27s nanotechnologies and processes rely on highly confined (\u3c 30 nm) polymer glass...
We review the recent activity aiming to clarify glassy dynamics in nanostructured polymer glasses, i...
Glassy dynamics under nanoscale confinement is currently a topic under intense debate in soft matter...
In nanoconfined thin films, numerous studies have revealed the thickness dependencies of different t...
This chapter reviews the recent experiments involving the dynamics of polymer films with thickness c...
Over the past twenty years experiments performed on thin polymer films deposited on substrates have ...
The glass transition temperature Tg of thin polymer layers in general differs from the bulk value. L...
Understanding the mechanical properties of polymers at the nanoscale is critical in numerous emergin...
Understanding why the glass transition temperature (Tg) of polymers deviates substantially from the ...
The temperature and thickness dependence of the thermal expansivity of ultrathin thin films of poly(...
Glass transition behavior of nanoscopically thin polymer films is investigated by means of molecular...
The nanobubble inflation method is the only experimental technique that can measure the viscoelastic...
The glass transition process gets affected in ultrathin films having thickness comparable to the siz...
Despite two decades of extensive research, direct experimental evidence of a dynamical length scale ...
The temperature and thickness dependence of the thermal expansivity of ultrathin thin films of poly(...
Many of today\u27s nanotechnologies and processes rely on highly confined (\u3c 30 nm) polymer glass...
We review the recent activity aiming to clarify glassy dynamics in nanostructured polymer glasses, i...
Glassy dynamics under nanoscale confinement is currently a topic under intense debate in soft matter...
In nanoconfined thin films, numerous studies have revealed the thickness dependencies of different t...