Effect of 50 Hz , 0.85 mT Magnetic Fields on Some Biochemical Parameters

Esmail Abdo Mohammed Ali

Abstract


Generating a magnetic and electric field is caused by using electricity which is considered as the everyday invisible fuel of life. From 1900, there has been an environmentally significant increase in the electromagnetic, electric and magnetic fields because appliances at workplace, various national appliances, radars, cell phones, television, base, and radio stations, and power grids have been tremendously grown. Nevertheless, the potential contrary health impacts is a continually general concern because humans are exposed to those fields, including radiations out of cell phones and base stations as well as high voltage power lines. In order to clarify the unsure character of the impact of Static Magnetic Field (SMF) on living cells, several attempts have been occurred despite that this issue encounters many arguments due to the unclear reports in scientific works. Therefore, most related topics, including the SMFs to its influence on cellular systems, were intended to be collected in this study which, moreover, aimed to investigate how the exposure time, cell types, and the intensities of magnetic fields may have an impact on the intracellular structures or the cells. According to the search in internet databases, the data was analysed in order to generally get a viewpoint of how conformity can be shown by data. Several reports have suggested that linearity in well-characterized non-linear systems has been being searched for. This showed two results which are: "the high sensibility of the parameters to arise effects", and "the complexity and particularity of each cellular system". Effects can be possibly triggered from SMFs based on the cell systems and in stochastic ways.

Keywords


Magnetic field, Biological effect, Creatinine phosphokinase, Lactate dehydrogenase, Total proteins, Calcium ions.

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References


Marino AA, Wolcott RM, Chervenak R, Jourd’heuil F, Nilsen E, Frilot C, Pruett SB: Coincident nonlinear changes in the endocrine and immune systems due to low-frequency magnetic fields. Neuroimmunomodulation, 2001, 9, 65-77.

Lacy-Hulbert A, Metcalfe JC, Hesketh R: Linkis responses to electromagnetic fields. FASEB J, 1998, 12, 395-420.

Sait ML, Wood AW, Sadafi HA: A study of heart rate and heart rate variability in human subjects exposed to occupational levels of 50 Hz circularly polarized magnetic fields. Med Eng Phys, 1999, 21, 361–369.

Bettger WJ, Dell BL: Physiological roles of zinc in the membrane of mammalian cells. J Nutr Biochem, 1993, 4, 194-207.

Day N: Exposure to power-frequency magnetic fields and the risk of childhood cancer. Lancet, 1999, 354, 1925-1931.

Tsuji Y, Nakagawa M, Suzuki Y: Five-tesla static magnetic fields suppress food and water consumption and weight gain in mice. Ind Health, 1996, 34, 347-357.

Marino AA, Wolcott RM, Chervenak R, Jourd’heuil F, Nilsen E, Frilot C, Pruett SB: Coincident nonlinear changes in the endocrine and immune systems due to low-frequency magnetic fields. Neuroimmunomodulation, 2001, 9, 65-77.

Wertheimer N, Savitz DA, Leeper E. Childhood cancer in relation to indicators of magnetic fields from ground current sources. Bioelectromagnetics 1995;16:86–96.

Aldrich TE, Andrews KW, Liboff AR. Brain cancer risk and electromagnetic fields (EMFs): assessing the geomagnetic component. Arch Environ Health 2001;56(4):314–9.

Abdelmelek H, Molnar S, Servais S, Cottet-Emard JM, Pequignot JM, Favier R, et al. Muscle HSP72 and norepinephrine response to static magnetic field in rat. J Neural Transm 2005;1–7.

Ovechkina ZA, Martyniuk VS, Martyniuk SB, Kuchina NB. Effect of the variable magnetic field of the extremely low frequency on metabolic processes in the liver of animals with various individual and typological characteristics. Biofizika 2001;46(5):915–8.

Lee BC, et al. Effects of extremely low frequency magnetic field on the antioxidant defense system in mouse brain: a chemiluminescence study. J Photochem Photobiol B 2004;73(1–2):43–8.

Lewy H, Massot O, Touitou Y. Magnetic field (50 Hz) increases N-acetyltransferase, hydroxy-indole-O-methyltransferase activity and melatonin release through an indirect pathway. Int J Radiat Biol 2003;79(6):431–5.

Svedenstal BM, Johanson KJ, Mild KH. DNA damage induced in brain cells of CBA mice exposed to magnetic fields. In vivo 1999;13(6):551–2.

Scassellati Sforzolini G, Moretti M, Villarini M, Fatigoni C, Pasquini R. Evaluation of genotoxic and/or cogenotoxic effects in cells exposed in vitro to extremely-low frequency electromagnetic fields. Ann Ig 2004;16(1–2): 321–40.

Amara S, Abdelmelek H, Sakly M. Effects of acute exposure to magnetic field on ionic composition of frog sciatic nerve. Pakistan J Med Sci 2004;20:91–6.

Ross, A. C., Taylor, C. L., Yaktine, A. L., & Del Valle, H. B. (2011). Dietary reference intakes for calcium and vitamin D. Washington, DC: National Academies Press(Chapter 2).

Weaver, C. M. (2013). Calcium is not only safe but important for health. In P. Burckhardt, B. Dawson-Hughes, & C. M. Weaver (Eds.), Nutritional influences on Bone Health (pp. 359e363). London: Springer.

Barrett, D. M., Beaulieu, J. C., & Shewfelt, R. (2010). Color, flavor, texture, and nutritional quality of fresh-cut fruits and vegetables: desirable levels, instrumental and sensory measurement, and the effects of processing. Critical Reviews in Food Science and Nutrition, 50(5), 369e389.

Zhao, Y., & Xie, J. (2004). Practical applications of vacuum impregnation in fruit and vegetable processing. Trends in Food Science and Technology, 15, 434e451.

Xie, J., & Zhao, Y. (2003). Nutritional enrichment of fresh apple (Royal Gala) by vacuum impregnation. International Journal of Food Sciences and Nutrition, 54(5), 387e398.

Moraga, M. J., Moraga, G., Fito, P. J., & Martínez-Navarrete, N. (2009). Effect of vacuum impregnation with calcium lactate on the osmotic dehydration kinetics and quality of osmodehydrated grapefruit. Journal of Food Engineering, 90(3), 372e379.

Park, S., Kodihalli, I., & Zhao, Y. (2005). Nutritional, sensory, and physicochemical properties of vitamin E-and mineral-fortified fresh-cut apples by use of vacuum impregnation. Journal of Food Science, 70(9), S593eS599.

[24] Gras, M. L., Vidal, D., Betoret, N., Chiralt, A., & Fito, P. (2003). Calcium fortification of vegetables by vacuum impregnation interactions with cellular matrix. Journal of Food Engineering, 56, 279e284.

Perez-Cabrera, L., Chafer, M., Chiralt, A., & Gonzalez-Martinez, C. (2011). Effectiveness of antibrowning agents applied by vacuum impregnation on minimally processed pear. LWT-Food Science and Technology, 44, 2273e2280.

Lin, D. S., Leonard, S. W., Lederer, C., Traber, M. G., & Zhao, Y. (2006). Retention of fortified vitamin E and sensory quality of fresh-cut pears by vacuum impregnation with honey. Journal of Food Science, 71(7), S553eS559.

Derossi, A., De Pilli, T., & Severini, C. (2012). The application of vacuum impregnation techniques in food industry. In B. Valdez (Ed.), Scientific, health and social aspects of the food industry (pp. 25e56). Croatia: InTech.

Monzon, L. M., & Coey, J. M. D. (2014). Magnetic fields in electrochemistry: the Lorentz force. A mini-review. Electrochemistry Communications, 42, 38e41.

Yamei Jin, Na Yang, Qunyi Tong, Xueming Xu.(2016). Effect of rotating magnetic field and flowing Ca2‏ solution on calcium uptake rate of fresh-cut apple. LWT - Food Science and Technology 66 : 143e15.

Ganong, W. F. “ Review of medical physiology.” 18th Ed. Appleton and Lange. USA., 1997.

Sanaford, H., Science, 119: 100, 1954.

Senecor, G., “Statistical method.” 4 th. ed . The lowa state collage press, lowa, USA, 1956.

Ganong, W. F. “ Review of medical physiology.” 18th Ed. Appleton and Lange. USA., 1997.

Thompson, R. and Wootton, I., “ Biochemical disorders in human diseases.” 3 th Academic press New York, 1970.

Burchard, J. ; Nguyen, D. and Blook, E., Bioelectromagnetics, 20: 358–364,1999.

Barbier, E. and Dufy, B., Bioelectromagnetics, 17: 303-311,1996.

Ubeda, A. ; Diaz–Enriquez, M. ; Martinez–Fascual, M. and Parreno, A., Life Sci., 61: 1651–1656,1997.

Fadel V, Canduri F, Olivieri JR, Smarra AL, Colombo MF, Bonilla GO, Azevedo WF: Crystal structure of hemoglobin from the maned wolf (Chrysocyon brachyurus) using synchrotron radiation. Protein Pept Lett, 2003, 10, 551–559.

Stashkov AM, Gorokhov IE: Hypoxic and antioxidant biological effect of multi-day application of a weak variable super-low frequency magnetic field. Biofizika, 1998, 43, 807-810.

Dacha M, Accorci A, Pierotti C: Studies on the possible biological effects of 50 Hz electric and/or magnetic fields: evaluation of some glycolytic enzymes, glycolytic flux, energy and oxido-reductive potentials in human erythrocytes exposed in vitro to power frequency fields. Bioelectromagnetics, 1993, 14, 383-391.

Zimmerman HJ, Kodera Y, West M: Rate of increase in plasma levels of cytoplasmic and mitochondrial enzymes in experimental carbon tetrachloride hepatotoxicity. J Lab Clin Med, 1965, 66, 310-323.

Scassellati Sforzolini G, Moretti M, Villarini M, Fatigoni C, Pasquini R. Evaluation of genotoxic and/or cogenotoxic effects in cells exposed in vitro to extremely-low frequency electromagnetic fields. Ann Ig 2004;16(1–2): 321–40.

Amara S, Abdelmelek H, Abidi R, Sakly M, Ben Rhouma K. Zinc prevents hematological and biochemical alteration induced by static magnetic field in rats. Pharmacol Rep 2005;57:616–22.

L.X. Wei, R. Goodman, S. Gold, A.S. Henderson, Changes in levels of c-myc and histone H2B following exposure of cells to low frequency sinusoidal signals: evidence for window effect, Bioelectromagnetics 1 (1990) 269–272.

E. Lindstrom, P. Lindstrom, A. Berglund, E. Lundgren, K.H. Mild, Intracellular calcium oscillations in a T-cell line after exposure to extremely low frequency magnetic fields with variable frequencies and flux densities. Bioelectromagnetics,16 (1995) 41–47.

J. Galvanovskis, J. Sandblom, B. Bergqvist, S. Galt, Y. Hamnerius, Cytoplasmic Ca2+ oscillations in human leukemia T cells are reduced by 50 Hz magnetic fields. Bioelectromagnetics, 20 (1999) 269–276.

R.P. Liburdy, Calcium signaling in lymphocytes and ELF fields evidence for an electric field metric and a site of interaction involving the calcium ion channel. FEBS Lett., 301 (1992) 53–59.

E. Lindstrom, P. Lindstrom, A. Berglund, K.H. Mild, E. Lundgren, Intracellular calcium oscillations induced in a T-cell line by a weak 50 Hz magnetic field. J. Cell. Physiol., 156 (1993) 395–398.

Y. Doida, M.W. Miller, A.A. Brayman, E.L. Carstensen, A test of the hypothesis that ELF magnetic fields affect calcium uptake in rat thymocytes in vitro. Biochem. Biophys. Res. Commun., 227 (1996) 834–838.

[50] M.G. Yost, R.P. Liburdy, Time-varying and static magnetic fields act in combination to alter calcium signal transduction in the lymphocyte. FEBS Lett., 296 (1992) 117–122.

G.A. Boorman, R.D. Owen, W.G. Lotz, M.J. Galvin Jr., Evaluation of in vitro effects of 50 and 60 Hz magnetic fields in regional EMF exposure facilities. Radiat. Res., 153 (2000) 648–657.

Xu Zhang, Xiaoli Liu, Leiting Pan, Imshik Lee. Magnetic fields at extremely low-frequency (50 Hz, 0.8 mT) can induce the uptake of intracellular calcium levels in osteoblasts. Biochemical and Biophysical Research Communications, 396 (2010) 662–666.


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