Nicolet in10 infrared microscope
The Nicolet iN10 Infrared Microscope is a laboratory instrument designed for the analysis of small samples. It utilizes infrared spectroscopy to provide detailed information about the chemical composition and molecular structure of materials. The core function of the Nicolet iN10 is to enable the non-destructive examination of microscopic samples.
Lab products found in correlation
12 protocols using nicolet in10 infrared microscope
FTIR Imaging of Bacterial Samples
Spectroscopic Characterization of Photoactive Materials
Microplastic Identification and Sizing via FTIR Spectroscopy
Plastic polymer types were identified by matching the sample’s IR spectrum with the spectra stored in an FTIR polymer spectrum library which is already integrated into the measuring program of the FTIR microscope68 (link). To measure the size of each particle, a ruler built into the measuring program of the FTIR microscope was adjusted to measure the maximum dimension of the particle. This equipment has been used for various studies of microplastics before (e.g., refs5 (link),56 (link)).
The results of our spectroscopy analyses are available in the Supplementary Appendix S1.
Analyzing Inhibited Polymer Film Composition
Characterizing Thin Film Morphology and Composition
amplitude micrographs were obtained in tapping mode using a Pico Plus
AFM instrument (Molecular Imaging) with aluminum-coated silicon tips
(BudgetSensors) and a spring constant of 40 N m–1. A sample area of 3 μm by 3 μm was scanned at a rate
of 1 Hz while collecting data in topographic, phase, and amplitude
modes. Morphological changes are captured in micrographs using PicoView
software (Agilent) and postprocessed using Gwyddion.30 (link)FTIR imaging was performed with a Nicolet iN10 infrared
microscope (Thermo Scientific) after mounting the optical windows
on a motorized stage for scanning the infrared map in an XY pattern. OMNIC Picta software (Thermo Scientific) was utilized for
FTIR microscopy and spectral mapping. Individual spectra corresponding
to an average of 64 scans were collected over the range of 800–4000
cm–1 with 4 cm–1 resolution. All
samples were background-subtracted using an empty optical window.
Control experiments ensured that films exposed to humid air in the
absence of O3(g) correspond to the spectral features of
catechol despite any loss by sublimation, which was carefully monitored
to remain below 5%. Data processing to obtain the CD line (or corrected
peak heights after local baseline correction) was performed10 (link) to collect kinetic data from the average of
duplicate experiments with error bars corresponding to one standard
deviation.
In Vitro Bioactivity Evaluation of Materials
Characterization of DVS-BCB Bonding Layer
FT-IR Analysis of Carbonated Materials
Synthesis and Characterization of Graphdiyne Oxide
FT-IR Analysis of Silver Nanoparticles Coated with Oleic Acid
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