To this end, we present a design process and develop functional plasmonic nano-structures with pre-determined morphology by tuning the annealing parameters like the laser fluence and wavelength and/or the structure parameters like the thickness of the metallic film and the volume ratio of the metal film on a substrate-metal composite.
It has been evidenced that for ejection frequency lower than 1 kHz, it is possible to control the nanostructure morphology by tuning the drop amount.
Spherical, cylindrical or vesicle-like morphologies were produced by tuning the BCP and mixed solvent compositions.
Therefore, HWCVD utilizes the growth of Si-based nanostructures with different morphologies and compositions by tuning the decomposition rate of the source gases by varying the hot filament temperature.
Si NWAs with different surface morphology were obtained by tuning the H2O2 concentration at 0.2, 0.5, 2, and 5 M. Scanning electron microscopy (SEM) and transmission electron microscopy (TEM) were utilized to investigate the surface morphology and the crystallinity of the Si nanowires.
During the process, self-assembled NaCl particles as a structural template were adopted to not only serve as a porogen embedded inside to activate the formation of substantial macropores, mesopores and even micropores with largely increased BET surface area, but also control the morphologies of 3D carbon matrices by tuning the entanglement and cross-linking behaviors of PVA-based complexes.
In this work, wurtzite and zincblende CZITSe nanocrystals with different morphology could be selectively synthesized by tuning the addition order of the Se precursor to metal reactants solution.
By tuning the morphology and size of protein particles, protection or controlled release of various bio-active components may be obtained.
This work may open a new way in enlarging the surface area and ultimately maximizing the electrocatalytic activities by tuning the morphology of metallic alloy and introducing the appropriate catalyst supports.
In particular the possibility of changing the characteristics of the bulk metal oxides by tuning the morphology of the inorganic materials at a submicrometric scale has been considered appealing for several applications in optics, catalysis, sensors and magnetism.
