From a physical perspective, nanofluidics represents an extremely rich domain. It hosts
many mechanisms acting on the nanoscale, which combine together or interact with the …

The field of microfluidics offers attractive possibilities to perform novel experiments that are
difficult (or even impossible) to perform using conventional bulk and surface-based methods …

Engineering using liquids confined in channels 10− 1000 nm in dimension, or “extended-
nanofluidics,” is the next target of microfluidic science. Liquid properties at this scale were …

Development of thermal lens spectrometry (TLS) as a micro space‐compatible photothermal
technique and its applications for analysis of different chemical compounds in micro space …

Traditionally porous silicon based photonic structures have been prepared by
electrochemically etching of silicon. In this work, porous multilayers of nanocolumnar SiO x …

The microchip-based electrochemical detection system (μEDS) has attracted plenty of
research attention due to its merits including the capability in high-density integration, high …

Addressing the effects of confinement and crowding on biomolecular function may provide
insight into molecular mechanisms within living organisms, and may promote the …

In the paper, the thermal conductivity of rarefied gases in nanochannels and in bulk was
studied. The following gases Ar, Kr, Ne, Xe, O2, CH4 were considered. The evolution of gas …

Nanoscale surface structures and channels are of intense interest for the very high surface‐
to‐volume ratios involved. For extremely small systems, it may become difficult to distinguish …

Nanofluidics in 101 nm space, whose scale is comparable to the electric double layer (EDL)
and the size of biomolecules, promises novel functional analytical devices. However, the …