Immune System Response after Immobilization Stress in the Background of Ionizing Radiation
DOI:
https://doi.org/10.48048/tis.2022.4637Keywords:
Radiation, Immobilization stress, Immune system, Combined action, Remote periodAbstract
We studied the combined effect of gamma radiation (6 Gy, remote period) and immobilization stress on immunological reactivity. Materials and methods. To address this, we carried out experiments on 40 white male Wistar rats weighing 220 ± 20 g, which were divided into 4 groups: Group I - intact animals, group II - animals exposed to gamma radiation (dose of 6 Gy), group III - animals exposed to immobilization stress and group IV - animals exposed to combined exposure to gamma radiation (dose of 6 Gy) and immobilization stress. Animals in groups II and IV were irradiated 90 days before the study on the TERAGAM radiotherapeutic cobalt unit. In groups III and IV, animals were modeled for acute immobilization stress by immobilization for 6 h in bright light. Results. At the early period of immobilization stress, all indicators of the immune system, such as cellular, humoral and nonspecific phagocytic links of immunity were activated, indicating the activation of the general adaptive syndrome of the organism. The suppressive action of gamma radiation on the immune system was preserved in a remote period, with this suppression being revealed not only on the T-cellular link, but also on nonspecific phagocytic links, and the functional metabolic activity of neutrophils. In the remote period after the combined effect of sublethal gamma radiation and immobilization stress in the early stage of the adaptation syndrome, there was a decrease in all cells of the T system of immunity, in the functional ability of leukocytes, and in the mononuclear phagocytic system of the body. The experimental immobilization-radiation pathological process was accompanied by disorders of the functional activity of the essential adaptive systems of the body. Based on our results, we could conclude about the dominant role of ionizing radiation in immunological reactivity.
HIGHLIGHTS
- At an early stage, after exposure to stress, the general adaptation syndrome is activated in the body
- The suppressive effect of gamma radiation on the immune status and phagocytic activity persists in the long term
- The pathological process that occurs under the combined effects of radiation and immobilization stress is accompanied by a violation of the functional activity of the most important adaptive systems of the body
- Under the combined influence of radiation and non-radiation factors, the radiation factor has a predominant influence
GRAPHICAL ABSTRACT
Downloads
References
TV Azizova, NG Semenikhina and MB Druzhinina. Multi-organ involvement and failure in selected accident cases with acute radiation syndrome observed at the Mayak Nuclear Facility. Br. J. Radiol. 2005; 78, 30-5.
T Verbiest, R Finnon, N Brown, L Cruz-Garcia, P Finnon, G O’Brien, E Ross, S Bouffler, CL Scudamore and C Badie. Tracking preleukemic cells in vivo to reveal the sequence of molecular events in radiation leukemogenesis. Leukemia 2018; 32, 1435-44.
Y Kojima, T Kondo, QL Zhao, M Shoji and R Futasuya. Protective effects of cimetidine on radiation-induced micronuclei and apoptosis in human peripheral blood lymphocytes. Free Radic. Res. 2002; 36, 255-63.
EI Azzam, JP Jay-Gerin and D Pain. Ionizing radiation-induced metabolic oxidative stress and prolonged cell injury. Canc. Lett. 2012; 327, 48-60.
N Shimura and S Kojima. Effects of low-dose-gamma rays on the immune system of different animal models of disease. Dose Response 2014; 12, 429-65.
A Graupner, DM Eide, C Instanes, J Andersen, D Brede, S Dertinger, O Lind, A Brandt-Kjelsen, H Bjerke, B Salbu, D Oughton, G Brunborg and A Olsen. Gamma radiation at a human relevant low dose rate is genotoxic in mice. Sci. Rep. 2016; 6, 32977.
FR Tang, WK Loke and BC Khoo. Low-dose or low-dose-rate ionizing radiation - induced bioeffects in animal models. J. Radiat. Res. 2017; 58, 165-82.
RK Kim, MJ Kim, KM Seong, N Kaushik, Y Suh, KC Yoo, YH Cui, Y Jin, S Nam and SJ Lee. Beneficial effects of low dose radiation in response to the oncogenic KRAS induced cellular transformation. Sci. Rep. 2015; 5, 15809.
JM Cuttler. Health effects of low level radiation. When will we acknowledge the reality? Dose Response 2007; 5, 292-8.
K Suzuki and S Yamashita. Low-dose radiation exposure and carcinogenesis. Jpn. J. Clin. Oncol. 2012; 42, 563-8.
AM Nikiforov, NV Makarova and NN Zybina. Chromosomal aberrations and indicators of oxidative stress in liquidators of the consequences of the Chernobyl accident in the remote period after the action of ionizing radiation. Cytology 2004; 6, 561-6.
Y Shimizu, K Kodama, N Nishi, F Kasagi, A Suyama, M Soda, E Grant, H Sugiyama, R Sakata, H Moriwaki, M Hayashi, M Konda and R Shore. Radiation exposure and circulatory disease risk: Hiroshima and Nagasaki atomic bomb survivor data, 1950 - 2003. BMJ 2010; 340, b5349.
SC Darby, M Ewertz, P McGale, AM Bennet, UB Goldman, D Bronnum, C Correa, D Cutter, G Gagliardi, B Gigante, MB Jensen, A Nisbet, R Peto, K Rahimi, C Taylor and P Hall. Risk of ischemic heart disease in women after radiotherapy for breast cancer. New Engl. J. Med. 2013; 368, 987-98.
DJ Janavayev, YT Kashkinbayev, KB Ilbekova, YA Saifulina, MM Bakhtin, MK Sharipov and PK Kazymbet. Health status of the population living in the zone of influence of radioactive waste repositories. Electron. J. Gen. Med. 2019; 16, em176.
P Kazymbet, M Bahtin, E Kashkinbaev, D Dzhanabaev, Z Dzhautbaeva and M Sharipov. Radiation situation at the tailing dump of the Stepnogorsk mining-chemical combine and adjacent territories. Message I. Meditsinskaya Radiologya I Radiatsionnaya Bezopasnost 2018; 63, 40-7.
II Pelevina, VV Petushkova, VA Biryukov, AV Akleyev, EA Neifakh, NGMinaeva, OV Ktitorova, AV Aleshchenko and RI Pleshakova. The “radiation-induced non-targeted effects” and their role in human cell response to low radiation forcing. Radiat. Biol. Radioecol. 2019; 3, 261-73.
VN Ivanov and TK Hei. A role for TRAIL/TRAIL-R2 in radiation-induced apoptosis and radiation-induced bystander response of human neural stem cells. Apoptosis 2014; 19, 399-413.
OI Kravtsov. Psychohygiena and psychoprophylaxis in the activities of specialists who take part in the elimination of the consequences of radiation accidents. Hyg. Sanit. 2017; 96, 900-3.
H Gao, Z Dong, X Gong, J Dong, Y Zhang, W Wei, R Wang and S Jin. Effects of various radiation doses on induced T-helper cell differentiation and related cytokine secretion. J. Radiat. Res. 2018; 59, 395-403.
International Atomic Energy Agency. Radiation biology: A handbook for teachers and students. International Atomic Energy Agency, Vienna, Austria, 2010.
MA Sandybaev, BA Zhetpisbayev, NA Bazarbayev and OZ Ilderbayev. Method of topometric-dosimetric preparation of experimental animals for irradiation, Republic of Kazakhstan. Innovat. Patent Bull. 2009; 2009, 21845.
BA Zhetpisbayev, MN Sandybaev, OZ Ilderbayev and NA Bazarbayev. Cell for irradiation of experimental animals. Republic of Kazakhstan. Innovat. Patent Bull. 2009; 2009, 21532.
AG Artemova. The phenomenon of the inhibition of migration of blood leukocytes in guinea pigs with delayed hypersensitivity to a foreign tissue agent. Bull. Exp. Biol. Med. 1973; 10, 67-71.
JJ Grinkevich and AN Alferov. Determination of immune complexes in the blood of cancer patients. Laboratornoe Delo 1981; 8, 493-5.
G Mancini, JP Vaerman, AO Carbonara and JF Heremans. A single radial diffusion method for the immunological quantitation of proteins. In: H Peeters (Ed.). Protides of biological fluids, Elsevier, Amsterdam, Netherlands, 1964, p. 370-3.
EA Kost and IV Stenko. Investigation of phagocytosis by clinical and laboratory research methods. Moscow, Russia, 1968, p. 78-80.
BS Nagoev and MG Shubich. The Value of the nitrosine tetrazolium recovery test for studying the functional activity of leukocytes. Laboratornoe Delo 1981; 4, 195-8.
K Khan, S Tewari, NP Awasthi, SP Mishra, GR Agarwal, M Rastogi and N Husain. Flow cytometric detection of gamma-H2AX to evaluate DNA damage by low dose diagnostic irradiation. Med. Hypotheses 2018; 115, 22-8.
J Rak, L Chomicz, J Wiczk, K Westphal, M Zdrawowicz, P Wityk, M Zyndul, S Makurat and L Golon. Mechanisms of damage to DNA labeled with electrophilic nucleobases induced by ionizing or UV radiation. J. Phys. Chem. B 2015; 119, 8227-38.
Y Shen, X Jiang, L Meng, Ch Xia, L Zhang and Y Xin. Transplantation of bone marrow mesenchymal stem cells prevents radiation-induced artery injury by suppressing oxidative stress and inflammation. Oxid. Med. Cell Longev. 2018; 2018, 5942916.
BA Zhetpisbayev, AA Alimbayeva and KS Adrisova. Long-term effects after fractionated gamma radiation and immobilization stress on non-specific phagocytic resistance of the body. Sci. Health 2014; 4, 59-62.
Downloads
Published
Issue
Section
License

This work is licensed under a Creative Commons Attribution-NonCommercial-NoDerivatives 4.0 International License.



