Near-field scanning optical microscope (NSOM) enables functional analysis of the nanosensor probe by performing a scan on a standard sample, e.g., a Fischer pattern.
The morphology of the as grown In2O3 NWs and those treated with NH3 were examined with a TESCAN scanning electron microscope (SEM), while their crystal structure and phase purity were investigated using a SHIMADZU, X-ray diffraction XRD-60000), with Cu-Ka source, by performing a scan of θ - 2θ in the range between 10° and 80°.
The morphology of the GaN NWs was examined by a TESCAN scanning electron microscope (SEM) while their crystal structure and the phase purity were investigated by a SHIMADZU, XRD-6000 with a Cu-Ka source by performing a scan of θ-2θ in the range between 10° and 80°.
The morphology of the CuO NWs were then examined with a TESCAN scanning electron microscope [SEM] (TESCAN USA, Cranberry Twp., PA, USA) while their crystal structure and phase purity were investigated using a SHIMADZU, XRD-6000, X-ray diffractometer (Shimadzu Corporation, Nakagyo-ku, Kyoto, Japan) with a Cu-Kα source, by performing a scan of θ-2θ in the range between 10° and 80°.
The morphology of the ZnO NWs was examined with a TESCAN scanning electron microscope (SEM) (Brno, Czech Republic), while their crystal structure and phase purity were determined using a SHIMADZU, XRD-6000, X-ray diffractometer with Cu-Kα source (Kyoto, Japan), by performing a scan of θ-2θ in the range between 10° and 80°.
The morphology of the NWs were then examined with a TESCAN scanning electron microscope (SEM) while their crystal structure and phase purity were investigated using a SHIMADZU, XRD-6000, X-ray diffractometer with Cu-Ka source, by performing a scan of θ-2θ in the range between 10° and 80°.
An extended dynamic range scan was then accomplished by performing a primary scan at 100% laser power and a secondary scan at 10% power; the former used to calculate intensities for non-saturating features, and the latter used to calculate intensities for saturating features.
By performing a transverse scan above the sternal notch over the trachea, the location and appearance of the oesophagus can be noted.
According to the beacon-less mode of the IEEE 802.15.4 MAC, during the 2.4-GHz network setup, the AP optimally chooses the channel - out of the available 16 channels - by performing a passive scan to detect possible WiFi signals or co-channel interferers.
We can assume that the corresponding "lean" allele could be identified genetically by performing a genome scan of a set of individual lean and fat individuals and a candidate genetic interval could be refined by intercrossing lean and fat sublines.
The scanners were evaluated for each of the centres by performing a CT scan on a phantom.
