The MAO coating showed porous morphology with micro cracks whereas, MAO/Ni-P coating exhibited dense nodular structure.
Several efforts were therefore focused on the preparation and characterization of ZnO materials at the sub-micrometric scale and with different morphologies, including micro- and nanowires, multipods, and nanoparticles[2].
The cryo-composites showed a tube-like porous morphology with interconnected parallel micro-channels, the distance between the channel walls being around 15 μm.
Most of the current micro- and nanofabrication approaches use a variety of robust materials to generate morphologies with typical geometrical shapes such as chip, pillars, bar, or pyramids.
The wetting property of the films with micro level morphology was studied by contact angle (CA) measurements.
After Cu is introduced, the ordinary pure ZnO nanowires change into three different morphologies with the variation of the location, i.e., stumpy nanorods, randomly assembled brushes, and well-organized micro-cross structures.
Apart from a classic morphometric comparison, we also provide a qualitative and quantitative assessment of the internal morphology with the aid of micro-CT imaging.
The remaining cells showed an interphase morphology with mostly multi- and micro-nucleated nuclei.
A coordination compound of Cu BTA 2 with the morphology of micro-rod crystal was synthesized as the precursor.
Co-electrospinning, compared with the other methods, such as chemical vapor deposition [6], sol gel [7], and hydrothermal [8], is a simple and efficient method for generating composite fibers with kinds of morphologies at the micro- and nanoscales.
