肝臓,心臓の脈管系の放射光による造影

松浦 弘幸; 中野 正博; 野田 信雄; 小井手 一晴; 山中 真; 根本 哲也; 伊藤 安海; 高橋 良枝; 牧野 健一; 辺 培; 増山 和典; 阿久津 光雄; 熊沢 隆; 巨 東英

doi:10.24466/jbfsa.10.2_113

Synchrotron X-ray Imaging for Vascular System of Liver & Heart

Hiroyuki MATSUURA, Masahiro NAKANO, Nobuo NODA, Kazuharu KOIDE, Makoto YAMANAKA, Tetsuya NEMOTO, Yasumi ITO, [in Japanese], Kenichi MAKINO, Pei BIAN, [in Japanese], [in Japanese], [in Japanese], Dong-Ying JU

Author information

Hiroyuki MATSUURA
Dep. of Gelontechnology, National Center for Geriatrics and Gerontology
Masahiro NAKANO
University of Occupational and Environmental Health
Nobuo NODA
Dep. of Gelontechnology, National Center for Geriatrics and Gerontology
Kazuharu KOIDE
Dep. of Gelontechnology, National Center for Geriatrics and Gerontology
Makoto YAMANAKA
Dep. of Gelontechnology, National Center for Geriatrics and Gerontology
Tetsuya NEMOTO
Dep. of Gelontechnology, National Center for Geriatrics and Gerontology
Yasumi ITO
Dep. of Gelontechnology, National Center for Geriatrics and Gerontology
[in Japanese]
[in Japanese]
Kenichi MAKINO
University of Occupational and Environmental Health
Pei BIAN
Institute of Advanced Science, Saitama Institute of Technology
[in Japanese]
[in Japanese]
[in Japanese]
[in Japanese]
[in Japanese]
[in Japanese]
Dong-Ying JU
Institute of Advanced Science, Saitama Institute of Technology

Keywords: Synchrotron X-ray, nano-magnetic fluid, coronary artery, branch of portal vein, nano-Ag (silver) particle, synthesis by using microwave, Synchrotron X-ray imaging, spatial resolution 0.02mm

JOURNAL OPEN ACCESS

2008 Volume 10 Issue 2 Pages 113-116

DOI https://doi.org/10.24466/jbfsa.10.2_113

Details

Abstract

We developed nano-silver (Ag) particles, instead of nano-ferromagnetic particles, by using microwave synthesis methods in order to get a clearer imaging under high radiation energy (> 35Kev). Mice born in before two weeks, which were perfused were injected nano-Ag solvents into their portal vein and coronary arteries. We succeeded to make clearer images for various branches of their vessels at 35KeV synchrotron radiation energy. We found that the narrowest diameter of vessels has about 0.02mm, which is a limit of spatial resolution of observations of living bodies. Since the strong transmitted X-ray beam is utilized to get the contrast of various tissues and organs, it is said to be a technological limits of present CCD cameras.

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