In this study, we report on vertically π-stacked growth of PFP in films of application-relevant thickness with an exceedingly small π-stacking distance, which is induced by coating quartz substrates with graphene.
Through these techniques it is possible to extract a quantitative measure of interface shear strength and therefore assess the mechanical suitability of the films for application.
Besides, the quantum efficiency for the sprayed films are found equivalent to the values achieved for the powders, highlighting the potential of the films for application in light conversion devices.
A previously developed flame synthesis method was applied to the preparation of mesoporous titania films for application in dye sensitized solar cells (DSSC).
The work addresses basic aspects of physics, chemistry, and engineering of oxide films for applications in microelectronics, sensing, nano-photonics, and optoelectronics by establishing the influence of different precursors on the composition, structure and optical properties of the obtained films.
Progress in polymer chemistry over the past decade has had a great effect on the design of porous organic polymers (POPs).[ 1– 3] Despite recent advances, the synthesis of POPs is still based on solution-phase polymerization, which gives rise to insoluble and unprocessable solids as a result of the formation of network structures, thus precluding the fabrication of thin films for applications.
In this framework, the study of the surface morphology of Au deposited on mica is crucial [18 39] in view of the fabrication of flat Au films for applications in biological, electronic, optical devices and techniques (i.e. surface enhanced Raman spectroscopy).
The optimal thicknesses of fabricated films have been identified, which will enable predictive design of such nanocomposite films for applications requiring compatibility to high temperatures and harsh environments.
The study of surface morphology of Au deposited on mica is crucial for the fabrication of flat Au films for applications in biological, electronic, and optical devices.
There is potential for harnessing the nonlinear properties of ferroelectric thin films for applications in photonics and integration with left-handed materials (metamaterials), as has been demonstrated for bulk ferroelectric crystals [1, 2].
Herein, we report a photoinduced transition of hydrophobicity to high hydrophilicity of TiO2 nanodot films in applications of cell sheet engineering.
