X-ray diffraction, Raman spectrum, and transmission electron microscopic analyses demonstrate that the product is single-crystalline Fe3O4.
The electrodes that included the catalyst, VGCF, and gas diffusion layer, were directly examined by electron microscopic analyses.
X-ray diffraction, NMR (nuclear magnetic resonance imaging) and rotary shadowing electron microscopic analyses have determined that the IGD is of constant length (25 nm) and relatively stiff and inflexible31, 32.
Scanning and transmission electron microscopic analyses showed that the dispersed phase consist of mainly few layered graphene nanoflakes.
Electron microscopic analyses have revealed exquisite ultrastructural images of cell structure, but this technique typically requires extensive processing procedures that are labor intensive and time consuming.
Electron microscopic analyses show that the core 3′ processing complex has a distinct "kidney" shape and is ∼250 Å in length.
Electron microscopic analyses reveal that the platelike crystallites of the precursor are changed into nanowires with the diameter of ∼20 nm after the persulfate treatment.
Differential scanning calorimetric (DSC), dynamic mechanical, thermogravimetric, and scanning electron microscopic analyses indicated that PVA and DNA are compatible in a wide range of compositions.
The reduction mechanism of CuFeS2 was investigated by cyclic voltammetry, potentiostatic and constant voltage electrolysis together with spectroscopic and scanning electron microscopic analyses.
Physico-chemical characterizations such as X-ray diffraction, laser Raman, and field emission scanning electron microscopic analyses revealed the formation of α-MnSe nanoparticles.
According to powder X-ray diffraction and electron microscopic analyses, the rutile-structured SnO2 nanocrystals are stabilized on the surface of spinel-structured Li4Ti5O12 2D nanosheets.
