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Vs120 s6 w virtual slide scanner

Manufactured by Olympus
Sourced in Japan

The VS120-S6-W Virtual Slide Scanner is a high-resolution digital imaging system designed for scanning and digitizing microscope slides. It captures detailed images of specimens for various applications, including research, education, and clinical diagnosis.

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5 protocols using vs120 s6 w virtual slide scanner

1

Quantifying Transfected Cells in Mouse Brain

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A VS120-S6-W Virtual Slide Scanner (Olympus; Tokyo, Japan) was used to scan all the sections. Images were taken with a color camera (Nikon DS-Fi3; Tokyo, Japan). To reduce bias, the photomicrography and counting were performed by a blinded researcher. Image J (version 1.41; National Institutes of Health, Bethesda, MD) was used for cell counting and Canvas software (ACD Systems, Victoria, Canada, v. 9.0) was used for line drawings. A one-in-two series of 25-μm brain sections was used per mouse, such that each section analyzed was 50 μm apart. The area analyzed was delimited (mean of 5,423 μm2) based on previous data (Anderson et al., 2016 (link)). Sections were examined to confirm the number of transfected cells. The number of labeled cells were bilaterally counted and reported as median ± interquartile range (IQR). Section alignment was relative to a reference section, as previously described (Anderson et al., 2016 (link)) and based on the Paxinos and Franklin atlas (Paxinos and Franklin, 2012 ).
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2

Cell Counting in Mouse Brain Sections

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A VS120-S6-W Virtual Slide Scanner (Olympus) was used to scan all the sections. Images were taken with a color camera (Nikon DS-Fi3). To restrict any influences on our counted results, the photomicrography and counting were performed by one blind researcher. Image J (version 1.41; National Institutes of Health, Bethesda, MD) was used for cell counting and Canvas software (ACD Systems, Victoria, Canada, v. 9.0) was used for line drawings. A one-in-two series of 25-µm brain sections was used per mouse, which means that each section analyzed was 50 µm apart. The area analyzed was delimited based on previously reports (Anderson et al., 2016 (link)) (mean of 5,423 μm²). The sections were counted bilaterally, averaged and the numbers reported as mean ± standard error of the mean (SEM). Section alignment were relative to a reference section, as previously described (Anderson et al., 2016 (link)) and based on Paxinos and Franklin (Kirkcaldie et al., 2012 ).
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3

Brain Section Cell Counting Protocol

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A VS120-S6-W Virtual Slide Scanner (Olympus) was used to scan all the sections. Images were taken with a color camera (Nikon DS-Fi3). To restrict any influences on our counted results, the photomicrography and counting were performed by one blind researcher. ImageJ (version 1.41; National Institutes of Health, Bethesda, MD) was used for cell counting, and Canvas software (ACD Systems, Victoria, Canada, v. 9.0) was used for line drawings. A one-in-two series of 25 µm brain sections was used per mouse, which means that each section analyzed was 50 µm apart. The area analyzed was delimited based on previously reports (Anderson et al., 2016 (link)) (mean of 5,423 μm²). The sections were counted bilaterally, averaged, and the numbers reported as mean ± standard error of the mean (SEM). Section alignment were relative to a reference section, as previously described (Anderson et al., 2016 (link)) and based on Paxinos and Franklin (Kirkcaldie et al., 2012 ).
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4

Quantitative Analysis of Brain Sections

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A VS120-S6-W Virtual Slide Scanner (Olympus) was used to scan all the sections. Images were taken with a color camera (Nikon DS-Fi3). To restrict any influences on our counted results, the photomicrography and counting were performed by one blind researcher. Image J (version 1.41; National Institutes of Health, Bethesda, MD) was used for cell counting and Canvas software (ACD Systems, Victoria, Canada, v. 9.0) was used for line drawings. A one-in-two series of 25-μm brain sections was used per mouse, which means that each section analyzed was 50 μm apart. The area analyzed was delimited based on previously reports (Anderson et al., 2016 (link)) (mean of 5,423 μm²). The sections were counted bilaterally, averaged and the numbers reported as mean ± SEM. Section alignment were relative to a reference section, as previously described (Anderson et al., 2016 (link)) and based on Paxinos and Franklin (Kirkcaldie et al., 2012 ) (2012).
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5

Quantifying Neuronal Cell Populations

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A VS120-S6-W Virtual Slide Scanner (Olympus) was used to scan all the sections. Images were taken with a color camera (Nikon DS-Fi3). To restrict any influences on our counted results, the photomicrography and counting were performed by one blind researcher. ImageJ (version 1.41; National Institutes of Health, Bethesda, MD) was used for cell counting and Canvas software (ACD Systems, Victoria, Canada, v. 9.0) was used for line drawings. A one-in-two series of 25 µm brain sections was used per mouse, which means that each section analyzed was 50 µm apart. The area analyzed was delimited based on previous reports (Anderson et al., 2016 (link)) (mean of 5423 μm²). The sections were counted bilaterally, averaged, and the numbers reported as mean ± standard error of the mean (SEM). Section alignment were relative to a reference section, as previously described (Anderson et al., 2016 (link)) and based on Paxinos and Franklin, 2019 .
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