Nanoscope 5
The Nanoscope V is a high-performance atomic force microscope (AFM) that enables nanoscale imaging and characterization. It provides accurate and reliable measurements of surface topography, mechanical properties, and other nanoscale features. The Nanoscope V is a core instrument for applications in materials science, nanotechnology, and life sciences research.
Lab products found in correlation
26 protocols using nanoscope 5
Evaluating Cellulose Nanofiber Morphology
Nanoscale DNA Structure Analysis Using AFM
with Nanoscope V (Veeco). AFM images were recorded on freshly cleaved mica
surfaces (TED PELLA, Inc.). A 10-μl aliquot of the solution containing
the DNA nanostructures was deposited in the presence of 10 mM
Mg(Ac)2. The surfaces were rinsed with 10 mM
Mg(Ac)2 solution and dried under a stream of air. Images were
recorded with AFM tips (Model NSC11, Umasch, and Model RTESP, Part MPP-11100-10,
BRUKER) and using tapping mode at their resonance frequency. The images were
analysed using NANO Scope analysing software (Vecco). The nanostructures chosen
for evaluations were auto-selected and analysed using NANO Scope analysing
software (Vecco). More specifically, all particles with a minimum size of
0.5 nm and a maximum size of 3 nm were auto-selected from the AFM
images.
Microgel Size Characterization by AFM
Topography Analysis of HMP Variants
Wafer-Scale MoTe2 Layer Fabrication
Scaffold Morphology and Silk Microstructure
Atomic Force Microscopy of DNA-Protein Complexes
Atomic force microscopy measurements were carried out in air at 293 K, using a Nanoscope V instrument (Veeco), type Multimode 8. Probes PPP-NCHR POINTPROBE-PLUS® Silicon-SPM-Sensor were used (resonance frequency = 330 kHz; force constant = 42 N/m, length = 125 μm, NanosensorsTM) operating in tapping mode at a frequency around 321.5 kHz to image the surfaces through ScanAsyst®-air mode. The data were processed using the WS × M software (Horcas et al., 2007 (link)).
Thin-Film Surface Characterization via AFM
been developed via AFM characterization using MultiMode scanning probe
microscope (Nanoscope V, Veeco, Santa Barbara) in tapping mode to
examine surface morphologies. The thin-film thickness was measured
using a surface profilometer (Bruker’s Dektak 150, Veeco, New
York).
Atomic Force Microscopy of Mycobacterial Cell Surfaces
Visualizing Peptide-pNIPAm Hybrid Nanostructures
and size of the peptide-pNIPAm SAPEs were visualized by transmission
electron microscopy (TEM). Briefly, samples (0.1 mg/mL in HEPES 10
mM) were soaked onto prewarmed carbon-coated copper grids for 2 min,
and excess liquid was removed by a filter paper. The grids were subjected
to negative staining with 2% uranyl acetate (Merck, Germany) for 45
s and dried for 10 min at room temperature before acquisition of TEM
images (Tecnai 10, Philips, The Netherlands). Atomic force microscopy
(AFM) was applied to visualize the morphology of the peptide-based
vaccines. Briefly, 40 μL of a 0.02% (w/v) polylysine solution
in water was placed on a freshly cleaved mica substrate and, after
5 min incubation, washed with filtered Milli-Q water followed by drying
under N2 flow. Next, 30 μL of the sample was loaded
on the treated mica and incubated for 1 min, followed by washing three
times with 20 μL of filtrated Milli-Q water to discharge nonattached
particles and salts. Finally, the prepared sample was dried by an
N2 flow. ScanAsyst image mode was used at room temperature
with a Digital Instruments NanoScope V, equipped with silicon nitride
cantilevers (Veeco, NY, USA). Images were analyzed by NanoScope Analysis
1.40 software. Several images were taken at different days of individually
prepared samples.
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