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Nis e software

Manufactured by Nikon
Sourced in Japan

NIS-E software is a digital imaging and analysis platform developed by Nikon. It provides tools for image capture, processing, and analysis across a range of microscopy applications. The software interfaces with Nikon microscopes and cameras to enable seamless image acquisition and manipulation.

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4 protocols using nis e software

1

Visualizing Senile Plaque-Induced Capillary Changes

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To identify the modification of cerebral capillaries by senile plaque, we used the super-resolution Structured Illumination Microscope (Nikon N-SIM, Nikon). 3D-SIM images of each fixed brain slices were taken by moving the stage in the z-direction with a step size of 0.15 μm. The sequential z-sections were reconstructed to create a 3D-SIM image (z axis; brain slices thickness about 5.0±0.4 μm) and produce the 3D-deconvolution with alpha blending function using NIS-E software (Nikon). Images were taken with an Eclipse Ti-E inverted research microscope, using CFI Apo TIRF × 100 oil objective lens (NA=1.49, Nikon) and 512 × 512-pixel resolution iXon DU-897 EMCCD camera (Andor Technology, Belfast, UK). Multicolor fluorescence analysis was performed using a diode laser (488, 561 nm; exposure time, 40 ms; EM gain, 150; conversion gain, × 1), and images were processed with the NIS-E software (Nikon, Tokyo, Japan) and exported to the Adobe Photoshop program.
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2

Super-Resolution Microscopy Imaging Protocol

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We used super-resolution structured illumination microscopy (SIM; Nikon N-SIM). The raw images were reconstructed to three-dimensional-SIM images using NIS-E software (Nikon). Images were acquired using an Eclipse Ti-E research inverted microscope with Nikon’s legendary CFI Apo TIRF 100× oil objective lens (NA 1.49) and 512 × 512 pixel resolution equipped with an iXon DU-897 EMCCD camera (Andor Technology). Multicolor fluorescence was acquired using a diode laser (488 nm, 561 nm).
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3

3D-SIM Imaging of P-gp Expression

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To clarify the modification of P-gp expression by amyloid plaques, we used a super-resolution structured illumination microscopy (SIM; Nikon N-SIM, Nikon Instruments, Inc., Tokyo, Japan) as described.25 (link) Briefly, images of the immunofluorescent stained brain slices were taken sequentially in the z-direction in order to reconstruct them into 3D-SIM images by NIS-E software (Nikon Instruments, Inc.).
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4

Analysis of OGA and c-Fos Interaction

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For analyzing OGA and c‐Fos interaction, we performed immunocytochemistry as previously described (Kim et al., 2012). Briefly, EGFP‐c‐Fos‐WT transfected cells were plated on coverslips and treated by Aβ. After fixed by 4% paraformaldehyde (BIOSESANG, Inc., Korea), cells were incubated with anti‐OGA (Sigma, USA) and GFP (OSE00001G, Osenses, Australia) antibodies, which were diluted in 0.5% Tx‐100, 1% goat serum in PBS, overnight at 4°C. After labeling with fluorescent‐labeled secondary antibodies (Invitrogen, USA) for 1 hr at room temperature, cells were imaged by SIM (Nikon N‐SIM, Nikon Instruments, Inc., Japan). Images were processed and analyzed by NIS‐E software (Nikon Instruments, Inc., Japan). For imaging c‐Fos level, native EGFP signals were imaged by confocal microscopy (Olympus FV10i; Olympus, Japan and LSM710; Carl Zeiss, Germany) in living cells which were transfected by EGFP‐c‐Fos‐WT and treated by CHX or MG132.
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