The review of cellular effects of a static magnetic field

The effects of static magnetic fields at the cellular level are reviewed. Past studies have shown that a static magnetic field alone does not have a lethal effect on the basic properties of cell growth and survival under normal culture conditions, regardless of its magnetic density. It has also been...

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Main Author: Junji Miyakoshi
Format: Article
Language:English
Published: Taylor & Francis Group 2006-01-01
Series:Science and Technology of Advanced Materials
Online Access:http://www.iop.org/EJ/abstract/-search=58668115.28/1468-6996/7/4/A02
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spelling doaj-e0516924905a46fe8da2acb79863442c2020-11-25T00:03:02ZengTaylor & Francis GroupScience and Technology of Advanced Materials1468-69961878-55142006-01-0174305The review of cellular effects of a static magnetic fieldJunji MiyakoshiThe effects of static magnetic fields at the cellular level are reviewed. Past studies have shown that a static magnetic field alone does not have a lethal effect on the basic properties of cell growth and survival under normal culture conditions, regardless of its magnetic density. It has also been shown that cell cycle distribution is not influenced by extremely strong static magnetic fields (up to a maximum of 10 tesla (T)). A further area of interest is whether static magnetic fields cause DNA damage, which can be evaluated by determination of the frequency of micronucleus formation. The presence or absence of such micronuclei can confirm whether a particular treatment damages cellular DNA. This method has been used to confirm that a static magnetic field alone has no such effect. However, the frequency of micronucleus formation changes significantly when certain treatments (for example, X-irradiation and mitomycin C) are given during exposure to a strong static magnetic field. It has also been reported that treatment with trace amounts of ferrous ions in the cell culture medium and exposure to a static magnetic field increases DNA damage, which is detected using the comet assay. Several reports suggest that a strong static magnetic field may affect the ion transport and the gene expression. In addition, many studies have found a strong magnetic field can induce orientation phenomena in cell culture.http://www.iop.org/EJ/abstract/-search=58668115.28/1468-6996/7/4/A02
collection DOAJ
language English
format Article
sources DOAJ
author Junji Miyakoshi
spellingShingle Junji Miyakoshi
The review of cellular effects of a static magnetic field
Science and Technology of Advanced Materials
author_facet Junji Miyakoshi
author_sort Junji Miyakoshi
title The review of cellular effects of a static magnetic field
title_short The review of cellular effects of a static magnetic field
title_full The review of cellular effects of a static magnetic field
title_fullStr The review of cellular effects of a static magnetic field
title_full_unstemmed The review of cellular effects of a static magnetic field
title_sort review of cellular effects of a static magnetic field
publisher Taylor & Francis Group
series Science and Technology of Advanced Materials
issn 1468-6996
1878-5514
publishDate 2006-01-01
description The effects of static magnetic fields at the cellular level are reviewed. Past studies have shown that a static magnetic field alone does not have a lethal effect on the basic properties of cell growth and survival under normal culture conditions, regardless of its magnetic density. It has also been shown that cell cycle distribution is not influenced by extremely strong static magnetic fields (up to a maximum of 10 tesla (T)). A further area of interest is whether static magnetic fields cause DNA damage, which can be evaluated by determination of the frequency of micronucleus formation. The presence or absence of such micronuclei can confirm whether a particular treatment damages cellular DNA. This method has been used to confirm that a static magnetic field alone has no such effect. However, the frequency of micronucleus formation changes significantly when certain treatments (for example, X-irradiation and mitomycin C) are given during exposure to a strong static magnetic field. It has also been reported that treatment with trace amounts of ferrous ions in the cell culture medium and exposure to a static magnetic field increases DNA damage, which is detected using the comet assay. Several reports suggest that a strong static magnetic field may affect the ion transport and the gene expression. In addition, many studies have found a strong magnetic field can induce orientation phenomena in cell culture.
url http://www.iop.org/EJ/abstract/-search=58668115.28/1468-6996/7/4/A02
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