ZF-Mapper: Simple and Complete Freeware for Fluorescence Quantification in Zebrafish Images

Zebrafish embryos and larvae have become popular vertebrate models because their body walls are transparent, which enables live imaging of target organs using fluorescent protein transgenes or dye staining. Software packages for the quantification of these fluorescent signals are available from both...

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Veröffentlicht in:Zebrafish 2019-06, Vol.16 (3), p.233-239, Article zeb.2018.1683
Hauptverfasser: Yamamoto, Daiki, Sato, Daisuke, Nakayama, Hiroko, Nakagawa, Yuki, Shimada, Yasuhito
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container_end_page 239
container_issue 3
container_start_page 233
container_title Zebrafish
container_volume 16
creator Yamamoto, Daiki
Sato, Daisuke
Nakayama, Hiroko
Nakagawa, Yuki
Shimada, Yasuhito
description Zebrafish embryos and larvae have become popular vertebrate models because their body walls are transparent, which enables live imaging of target organs using fluorescent protein transgenes or dye staining. Software packages for the quantification of these fluorescent signals are available from both commercial and noncommercial sources; however, their algorithms are complicated and their resources (code) have mostly not been openly shared. In this study, we developed a simple and robust open-source software tool named “ZF-Mapper” for the quantification of the fluorescence intensity of each pixel in zebrafish images with batch image file processing capability. Using this software, we can evaluate the three-dimensional (3D) distribution of fluorescence intensity among zebrafish cells by analyzing each image pixel. We tested ZF-Mapper for the analysis of zebrafish with macrophage-specific enhanced green fluorescent protein (EGFP) and obtained results that were equivalent to those acquired using the conventional image analysis software ImageJ. We further applied ZF-Mapper to the analysis of zebrafish with cancer cell xenografts and quantified the amount of implanted melanoma cells labeled with a tdTomato red fluorescent protein in the whole body and the tail region. In addition, by combining ZF-Mapper with R freeware, we created an interactive 3D scatter plot of the fluorescence intensities of macrophage-EGFPs in zebrafish. In summary, we developed the Python-based freeware ZF-Mapper for the quantification of fluorescent signals in multiple zebrafish images, which enables fluorescence-based zebrafish screening. We provide the source code and the executable application software for Windows (.exe) and macOS (.app).
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We further applied ZF-Mapper to the analysis of zebrafish with cancer cell xenografts and quantified the amount of implanted melanoma cells labeled with a tdTomato red fluorescent protein in the whole body and the tail region. In addition, by combining ZF-Mapper with R freeware, we created an interactive 3D scatter plot of the fluorescence intensities of macrophage-EGFPs in zebrafish. In summary, we developed the Python-based freeware ZF-Mapper for the quantification of fluorescent signals in multiple zebrafish images, which enables fluorescence-based zebrafish screening. 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subjects Algorithms
Animal embryos
Animals
Body organs
Body walls
Cells
Computer programs
Danio rerio
Dyes
Embryos
Fluorescence
Freeware
Freshwater fishes
Green fluorescent protein
Green Fluorescent Proteins - analysis
Image acquisition
Image analysis
Image processing
Image Processing, Computer-Assisted - methods
Imaging techniques
Larvae
Luminescent Proteins - analysis
Macrophages
Melanoma
Open source software
Optical Imaging - instrumentation
Organs
Original Articles
Pixels
Proteins
Red Fluorescent Protein
Software
Software development tools
Software packages
Source code
Target recognition
Transgenes
Vertebrates
Xenografts
Xenotransplantation
Zebrafish
title ZF-Mapper: Simple and Complete Freeware for Fluorescence Quantification in Zebrafish Images
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