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Jsm 5600 sem

Manufactured by JEOL
Sourced in United States

The JSM-5600 is a scanning electron microscope (SEM) produced by JEOL. It is designed to provide high-resolution imaging of sample surfaces by scanning a focused electron beam across the sample. The JSM-5600 SEM can magnify samples up to 300,000 times and offers resolutions down to 3.5 nanometers.

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8 protocols using jsm 5600 sem

1

Morphological Characterization of Drug Formulations

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The surface size, shape, and structure of the pure drug and
optimized formulations were evaluated using a JEOL JSM-5600 SEM. In a
high-vacuum evaporator, a Hummer® 6.2 sputtering system was used to
sputter coat the samples with gold (Anatech LTD, Springfield, VA). Before
sputter coating, the samples of interest were mounted on adhesive carbon
pads set on aluminum stubs. An accelerating voltage of 5 kV equipped with
JSM 5000 software was used for imaging.
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2

Scanning Electron Microscopy of Pharmaceutical Samples

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The morphology of all samples (granules, tablets, and raw materials) was determined by utilizing SEM. Samples were mounted onto an aluminum stage with an adhesive carbon tape, and then sputter-coated with gold under an argon atmosphere using a Hummer 6.2 Sputter Coater (Ladd Research Industries, Williston, VT, US). The coater was kept in a high-vacuum evaporator equipped to guarantee a uniform coating. Finally, images were captured using a JSM-5600 SEM (JEOL USA, Inc., Waterford, VA, USA) at an accelerating voltage of 5 kV.
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3

Scanning Electron Microscopy of Film Surfaces

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The surface morphology of the films was evaluated using SEM analysis. The samples were mounted on adhesive carbon pads placed on aluminum and sputter coated with gold using a Hummer sputtering system (Anatech Ltd, Springfield, VA, USA) in a high vacuum evaporator. A JEOL JSM-5600 SEM operating at an accelerating voltage of 10 kV was used for imaging.
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4

Characterizing Surface Modifications of PVC Particles

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Field emission scanning electron microscopy (FESEM) imaging was used to observe the changes in surface morphology of particles. The FESEM analysis was carried out using a Supra 55 electron microscope manufactured by Carl Zeiss in Germany. To determine the chemical composition, bonds, and functional groups of the PVC before and after adsorption, Fourier transform infrared spectrometer (FTIR) analysis was performed using a PerkinElmer spectrometer, specifically the FT-IR/NIR FRONTIER model. Furthermore, energy-dispersive X-ray (EDX) analysis was employed to determine the elemental composition of the samples. This analysis was conducted using an Oxford device connected to a JEOL-JSM-5600 SEM.
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5

Lignin Particles Formation and Characterization

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Lignin
was dissolved in either THF or ethanol at various concentrations of
1, 5, and 10 g/L and transferred to a dialysis bag (Spectra/Por 1
Standard RC Dry Dialysis Tubing, 6–8 kDa, Spectrum Labs) before
being submerged in deionized water (DI water). The dialysis process
was carried out approximately 24 h using a certain stirring rate (300,
600, and 1000 rpm) in a fume hood where the formation of particulate
lignin was observed. After the dialysis process, the residual amount
of THF (or ethanol) in the solution was detected using gas chromatography–mass
spectrometry (GC–MS). The effect of initial lignin concentration
on the lignin particle size was confirmed by repeating the experiments.
The mean particle size and the stability of the fabricated lignin
particles were measured using the Malvern Zetasizer Nano-ZS90 instrument.
In this study, the stability of the dispersion was observed under
various pH conditions, including pH values of 4 and 10. All of the
experimental conditions were repeated to confirm the reproducibility.
Also, the shape and surface morphology of the fabricated particle
were examined using the scanning electron microscopy (SEM) images
taken using JEOL JSM-5600 SEM with the freeze-dried sample.
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6

Scanning Electron Microscopy of Yam Samples

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Fresh yam samples were fixed overnight in glutaraldehyde solution (2 % v/v), washed with water and dehydrated by passing through increasing concentrations of acetone in water according to a standard method [28 ]. The dehydrated specimens were then critical point dried in a critical point drier (Denton Vacuum, Moorestown, NJ, USA) using liquid CO2 as a cryogenic fluid. The fully dried samples were mounted on aluminum stubs using glued carbon tapes and then coated with gold using a Hummer 6.2 sputter coater (Anatech USA, Union City, CA, USA) supplied with argon gas. Photomicrographs of the specimens were prepared using a model JSM-5600 SEM (JEOL Ltd., Tokyo, Japan).
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7

Scanning Electron Microscopy of Diatom Auxospores

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Auxospores and frustules from each of the cultures were subjected to SEM examination on flat polycarbonate filter as in [36 ] or a grooved LP substrate as in [37 ], as appropriate. Specimens were examined using a JEOL JSM-5600 SEM (JEOL USA, Peabody, MA, USA) at the Digital Microscopy Facility, Mount Allison University, operating at 10 kV and 8–20 mm working distance. Diameters of cells in auxosporulating cultures were measured using dmfMeasure software [38 ]. A complete metric data set for the clones is available in [32 (link)]. Valve structure terminology followed [33 ] and [39 ] while the structures associated with auxosporulation were named following [7 ].
EDS was performed with the same instrument equipped with an Oxford Inca Energy 200 EDS system and at 20 mm working distance. Since the only element of interest in this study was silicon (Si-Kα, X-ray energy 1.74 keV), an accelerating voltage of 10 keV provided sufficient overvoltage for efficient X-ray excitation. Spectra were acquired for 100 s (dead time corrected) at 0.1 nA beam current, energy range 0–10 keV into 1024 channels. The EDS spectra were collected from intact and unobstructed structures and/or auxospores. Spectra from the polycarbonate support filter adjacent to the auxospores were also routinely taken and showed no remote excitation from neighboring siliceous components (if present) at distances as close as 3 μm.
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8

SEM Imaging of Cells

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Cells were washed with PBS solution and fixed in 2.5% glutaraldehyde in 0.1 M cacodylate buffer, pH 7.2. The cells were then post-fixed for 15 min in 1% OsO4, dehydrated in ethanol, and critical point-dried with liquid CO2. The dried cells were coated with gold–palladium to a thickness of 15 nm and then observed with a Jeol JSM-5600 SEM, operating at 15 kV. Some images were colored using Adobe Photoshop software (Adobe USA), version 24.0.1.
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