Abstract
The exposure of peripheral blood mononuclear cells (PBMCs) was performed in a 10-T static magnetic field. Without lymphocyte stimulation, there were no significant differences in the viability of the exposed and unexposed CD4(+) T cells, CD8(+) T cells, B cells, and natural killer (NK) cells. The expression of Th1 type chemokine receptor, CXCR3, and Th2 type receptor, CCR3, was unaltered after magnetic-field exposure. No differences were observed in the naive T cells and memory T-cell subclasses in either CD4(+) or CD8(+) T cells. In contrast to the unstimulated condition, the magnetic-field exposure reduced the viability of phytohemagglutinin (PHA)-activated T cells in both the CD4(+) and CD8(+) subclasses. In particular, the number of PHA-treated naive CD8(+) T cells (CD45RA(+)CD4(-)CD8(+)) was markedly decreased after the magnetic-field exposure, while PHA-treated memory CD8(+) cells (CD45RA(-)CD4(-)CD8(+)) were resistant to the exposure. The number of PHA-treated naive CD4(+) T cells (CD45RA(+)CD4(+)CD8(-)) and memory cells (CD45RA(-)CD4(+)CD8(-)) was markedly decreased to a similar degree. Thus the susceptibility of lymphocytes to the magnetic-field exposure differed among activated T-cell subtypes. The magnetic-field expo...Continue Reading
References
Apr 1, 1990·Radiology·N PrasadK H Taber
Jan 1, 1983·Bioelectromagnetics·E RamírezJ M Delgado
Jan 1, 1984·Bioelectromagnetics·T S Tenforde, M Shifrine
Jan 1, 1983·Bioelectromagnetics·J A StrandR G Genoway
Jan 1, 1981·Medical Physics·J H BattoclettiF J Antonich
Jun 1, 1993·Journal of UOEH·T NorimuraM Nikaido
Mar 1, 1996·Clinical and Experimental Immunology·L LanzaF Indiveri
Jan 3, 1997·Mutation Research·T KoanaM Nakagawa
Jan 1, 1997·Bioelectromagnetics·M Levin, S G Ernst
Nov 20, 1997·Biochimica Et Biophysica Acta·M M BornerM A Hotz
Jan 31, 1998·The Journal of Experimental Medicine·R BonecchiF Sinigaglia
Apr 4, 1998·The Journal of Experimental Medicine·F SallustoA Lanzavecchia
Mar 25, 1998·Biophysical Journal·W BrasF J Medrano
Jul 8, 1998·Bioscience Reports·B OlejV M Rumjanek
Dec 9, 1998·Proceedings of the National Academy of Sciences of the United States of America·J M DenegreK L Mowry
Feb 19, 2000·Journal of Photochemistry and Photobiology. B, Biology·P WaliszewskiH Minikowski
Nov 30, 2000·Immunology Today·D I GodfreyA G Baxter
Dec 5, 2000·Bioelectromagnetics·J R GrayJ D Parker
Dec 21, 2000·Bioelectromagnetics·R EmuraT Takeuchi
Mar 10, 2001·Journal of Neuroimmunology·T MisuY Itoyama
Citations
Oct 22, 2010·International Journal of Radiation Biology·János F LászlóRóbert Pórszász
Apr 26, 2015·Wiener klinische Wochenschrift·Bao-lin LiQi Yue
Dec 26, 2006·International Journal of Hygiene and Environmental Health·M SchwenkR Klein
Mar 16, 2016·Progress in Biophysics and Molecular Biology·Wendell Wagner Campos AlbuquerqueAna Lúcia Figueiredo Porto
Feb 26, 2009·Bioelectromagnetics·Satoru MonzenIkuo Kashiwakura
Jun 22, 2010·Bioelectromagnetics·Györgyi KubinyiJános László
Mar 11, 2015·Bioelectromagnetics·Lei WangAn Xu
Nov 24, 2004·Progress in Biophysics and Molecular Biology·Junji Miyakoshi
Feb 4, 2006·Nitric Oxide : Biology and Chemistry·Marcella RealeSilvano Di Luzio
Sep 7, 2007·Osteoarthritis and Cartilage·C-H HsiehC-C Jiang
Jul 16, 2015·PloS One·Annika ReddigOliver Speck
Mar 14, 2007·Investigative Radiology·Nina F SchwenzerEnno Rodegerdts
Oct 31, 2007·Journal of Magnetic Resonance Imaging : JMRI·Nina F SchwenzerEnno Rodegerdts
Oct 31, 2007·Journal of Magnetic Resonance Imaging : JMRI·Nina F SchwenzerEnno Rodegerdts
Mar 2, 2019·International Journal of Radiation Biology·Amir JalaliMohammad Javad Khodayar
Sep 5, 2020·Scientific Reports·Xiaoyan ZhuQiwei Zhai
Oct 8, 2017·European Radiology·Martin FasshauerJoachim Lotz
Dec 4, 2010·Experimental Biology and Medicine·Luciana Dini, Elisa Panzarini
Aug 24, 2004·The Journal of Immunology : Official Journal of the American Association of Immunologists·Chantal CourtemancheBruce N Ames
Feb 16, 2017·Neural Regeneration Research·Fabio Guerriero, Giovanni Ricevuti
Nov 17, 2020·Frontiers in Immunology·Hong LeiYi Lv