The fabrication of electronic devices from sensitive, functional, two-dimensional (2D)
nanomaterials with anisotropic structural properties has attracted much attention. Many
theoretical and experimental studies have been performed; however, such materials have
not been used in applications. In this context, the focus has shifted toward the study and
synthesis of new materials. Freestanding hydrogen-terminated silicon nanosheets (SiNSs) are
a new class of material with outstanding (opto)electronic properties (e.g. photoluminescence
at approximately 510
nm) (Nakano 2014
J. Ceram. Soc. Japan
122
748
). SiNSs are promising
candidates for use in nanoelectronic devices and flexible electronics. Additional reasons
for interest in such nanomaterials are their structural anisotropy and the fact that they are
made from silicon. Here, we present examples for the application of functionalized SiNS-
based composites as active materials for photonic sensors. The implementation of SiNSs in
a covalent nanocomposite not only improves their stability but also facilitates subsequent
device fabrication. Thus, SiNSs can be used in a straightforward setup preparation procedure.
We show that the modification of novel Si-based 2D nanosheets with selected organic
components not only opens a new field of photosensitive applications but also improves the
processability of these nanosheets (Niu
et al
2014
Sci. Rep
.
4
4810
, Chimene
et al
2015
Adv.
Mater.
27
7261
)
«
The fabrication of electronic devices from sensitive, functional, two-dimensional (2D)
nanomaterials with anisotropic structural properties has attracted much attention. Many
theoretical and experimental studies have been performed; however, such materials have
not been used in applications. In this context, the focus has shifted toward the study and
synthesis of new materials. Freestanding hydrogen-terminated silicon nanosheets (SiNSs) are
a new class of material with outstanding (op...
»