Department of BioSystems Sustainability

Department of BioSystems Sustainability


The Department BioSystems Sustainability focuses on studying physiological, biophysical and biochemical processes of the body exposed to various technogenic sources, including ionizing and non-ionizing radiation, and is striving to discover the ways of improving radioresistance and adaptive capacity of the organism.


To achieve the set goals, the Department’s researchers:

  • carry out experiments involving the models of in vivo and in vitro radiation-induced pathologies;
  • study a spontaneous and induced mutagenesis and carcinogenesis in biological models exposed to ionizing radiation;
  • study molecular-cellular radiosensitivity mechanisms of biological systems;
  • search for the novel medicinal substances that would possess radiomodifying properties;
  • study the process of the body’s adaptive capacity formation under chronic exposure to low-level electromagnetic radiation from wireless devices (e.g. mobile phones, Wi-Fi routers etc.);
  • study nanomechanical properties of cells in various pathophysiological processes;

investigate structural and mechanical properties of nanoparticles in biological liquids (e.g. extracellular vesicules, lipoproteins etc.).

Lab staff

Natalya CHUESHOVA, head of the Department, PhD BioScs

Matvei MATVEYENKAU, researcher, Chairman of IRB’s Council of Young Scientists

Alexander KOZLOV, researcher

Sergei GONCHAROV, researcher

Elena SHCHUROVA, junior researcher

Vladislav SHCHEMELEV, junior researcher


The Department BioSystems Sustainability was founded in 2020 by merging Laboratory of Experimental Biological Models, Endocrinology & Biochemistry Laboratory and Combined Effects Laboratory.


Endocrinology & Biochemistry Laboratory was founded in 2003 via unification of four laboratories of Biochemistry, Physiology, Endocrinology, Morphology and Cytogenetics, which had been functioning before IRB permanently moved from Minsk to Gomel. The laboratory’s founder and long-time ruler in the first five years of its functioning was Academician of the National Academy of Sciences of Belarus, Honoured Scientist of the Republic of Belarus, Professor, Doctor of Medical Sciences Evgenij F. Konoplya. From 2009 to 2015, it was headed by Doctor of Biological Sciences, associate professor Alexander D. Naumov. In 2004–2015, the lab’s deputy head was lead researcher Gennadii G. Vereshchako, Candidate of Biological Sciences. The last head of the laboratory, from 2017 to 2020, was Grigoriy A. Gorokh.

The origin of Combined Effects Laboratory dates back to as far as 1965, when the Institute of Nuclear Energy teamed up a special nuclear research group and in 1974 established on its base the laboratory for the development of nuclear-physical analysis methods and their application in biology and medicine, which was later transformed into laboratory of radioecology headed by Dr. A. Malenichenko. In 1992, following institutional rearrangements at the Institute of Nuclear Energy, the laboratory was reorganized into laboratory of radiation and toxicological ecology and became part of the Institute of Radioecological Problems of the National Academy of Sciences of Belarus. In 2003, the Institute of Radioecological Problems was reorganized and the laboratory became affiliated to the Institute of Radiobiology of the National Academy of Sciences of Belarus, which was soon after relocated from Minsk to Gomel.

Laboratory of Experimental Biological Models was created in September 2014 and up until 2017 was headed by Dr. T.I. Milevich, PhD BioScs. The lab’s Radiation Exposure Sector was operating two gamma-radiation units, IGUR and GAMMARID, used for acute and chronic irradiation of biological objects. The fruitful work done by the unit operators over many years can be found reflected in quite a number of PhD and Doctoral theses authored by the home and external researchers.

Research areas of today

The Department’s current research efforts are following the national priority directions with regards to scientific, technological and innovative activities set by the Government for the period 2021–2025, being as follows:

– the use of atomic force and fluorescent microscopy techniques for the examination of the structural and mechanical properties of the cellular surface layer, post-cellular structures and nano-scale organic and inorganic objects for the purposes of developing fundamental principles of innovative diagnostic approaches aimed at determining pathological conditions of a body at cellular and sub-cellular levels, and deepening our understanding of the pathogenesis of different health disorders, including radiation-induced pathologies;

– development of prognostic tests for the assessment of clinical radiation effects of radiotherapy;

– simulation of radiation-induced pathologies and validation of elaborated methods for their correction using laboratory animals;

– biodosimetry and assessment of a genetically predisposed radiosensitivity;

– the use of in vitro and in vivo models for the experimental research of cancer formation at different organizational levels of living organisms under exposure to various wavelengths of radiation (ionizing radiation, UV etc.), and investigation of the effect implementation mechanisms of normal and tumour cells;

– estimation and prediction of long-term biomedical effects of the low-intensity electromagnetic field generated by modern-time communication devices;

– gerontological studies of the effects of various stress factors, such as radiation-induced factors, stress, xenobiotics, towards improving the quality of life under changing habitat conditions.

The Department’s Laboratory Equipment   

In 2019, within the framework of Gratuitous Aid Agreement between Mission Support and Test Services, LLC (USA) and IRB, the laboratory equipment was essentially reinforced with an X-ray biological irradiation unit X-RAD 320, a self-contained X-ray system designed to deliver a precise radiation dosage to biological samples and small laboratory animals.

The X-RAD 320 unit offers the ability to experiment either with irradiation of the whole animal body or its specific parts and areas. Irradiation of cell cultures and suspensions in experiments in vitro is another advantageous ability of this instrument.

It is equipped with a built-in OptiMAX imaging module used in the variety of radiation therapy research and producing high-resolution optical molecular and X-ray images.

This unit is a perfect use for the variety of research purposes, from modelling ionizing radiation-induced pathologies and studying the mechanisms and effects of ionizing radiation at different organizational levels of biological systems to working out the ways of correction of somatic and cancerous diseases and evaluating remedial effects from different medicinal substances and materials.



The atom-force microscope AFM BioScope Resolve and an inverted fluorescence microscope Axio Observer 3 provides with a high-resolution examination of structural, mechanical and other cell properties, live cells in liquid media, nanoparticles etc.

Microplate photometers / fluorometers / chemiluminometers

Tecan Safire 2 and Tecan Infinite M200


The multimode plate readers offer a range of detection techniques for the performance of photometry assays, fluorescence intensity measurements and chemiluminescence studies.

Automatic biochemistry analyzer EUROLYSER CCA 180


The analyzer with a throughput of up to 180 photometric tests per hour and an open-access sample and reagent carousels.

The Model L8-50ME Preparative Ultracentrifuge (Beckman Coulter, USA) is used to generate centrifugal forces for the separation of particles. With its rotor speed of up to 70,000 rpm, acceleration and deceleration profiles and a g Force rotation capacity of up to 226,000 × g, this centrifuge offers solutions to a range of tasks in molecular biology and cytology research.


The Refrigerating Centrifuge CR-01 (“NPO Center”, Belarus) is used to fractionate the blood and its components, i.e. plasma, serum, lymphocytes and erythrocytes, with a max Rcf of up to 2,500 G.


Refrigerated tabletop centrifuges 

Centurion Scientific K220R and MPW-350R


Compact multi-purpose benchtop laboratory centrifuges

The Cytomics FC 500 Flow Cytometry System (Beckman Coulter, USA) performs an automated 5-color analysis using a single argon-ion laser with a wave length of 488 nm, and, with being able to analyze more antibodies per tube (e.g. immunophenotyping of blood lymphocytes), examine the ongoing changes in dispersed tissues (e.g. testicular tissue) and its other features, maximizing the method’s informative value and a workflow efficiency.


Cell culture equipment:

laminar-flow hood, CO2 incubator and inverted microscope


These pieces of equipment are used for microbiological, biomolecular, and cell (tissue, organ) culture research.


Particular attention is being paid to the use of high-efficiency liquid chromatography for the separation and purification of complex biological mixtures.

The Department’s research in this field is backed up by the Agilent 1100 Series Liquid Chromatograph, which helps to determine the concentrations of biogenic amines in different parts of the brain, as well as the steroid hormones in adrenal glands and blood serum.

Ongoing projects

Ongoing research projects:

  • Project “The insight into the development of age-associated morphofunctional changes in individual organs under thoracic irradiation”, State R&D Programme on Natural Resources and Ecology, sub-programme “Radiation and Biological Systems”;
  • Project “Develop the criteria for assessing radiation-induced changes of internal media tissues based on the analysis of the structure and mechanical properties of a cellular component using in vitro and in vivo models”, State R&D Programme on Natural Resources and Ecology, sub-programme “Radiation and Biological Systems”;
  • Project “Estimate the doses and effects on biota from ionizing radiation combined with a stress of various origin in the area of chronic radiation exposure”, State R&D Programme on Natural Resources and Ecology, sub-programme “Radiation and Biological Systems”;
  • Project “Analysis of adaptation processes in animal species populations to chronic exposure to increased levels of ionizing radiation”, State R&D Programme “Convergence 2025”, sub-programme “Interdisciplinary Studies and Emerging Technologies”;
  • Project “The effects of chronic exposure to low levels of electromagnetic radiation from Wi-Fi devices (2 450 MHz) on experimental animals during their postnatal development stages. Search for bioactive substances for the correction of the identified pathological alterations”, State R&D Programme on Natural Resources and Ecology, sub-programme “Radiation and Biological Systems”;
  • Project “The mechanisms of the implementation, regulation and correction of the stable and cancer human cell viability under UV exposure with the use of lichen extracts”, State R&D Programme on Natural Resources and Ecology, sub-programme “Radiation and Biological Systems”.
  • Project “Study the physiological and reproduction state of the horses kept inside the Polesie State Radiation-Ecological Reserve, 2021–2025 State Program on Overcoming the Consequences of the Chernobyl Disaster;
  • BRFFR Project “CD109-regulated mechanical properties of endothelial cells”, Belarusian Republican Foundation for Fundamental Research;

BRFFR Project “Mechanical characteristics of exosomes and exomers defining their interrelation with eukaryotic cells, in norm and in pathology”, Belarusian Republican Foundation for Fundamental Research.

Patents & Inventions


Radioprotective Means. Vereshchako G.G., Khodosovskaya A.M., Soldatov V.S., Kuvaeva Z.I., Knizhnikov V.А., Pilchenko N.V. Patent no. 16556, Republic of Belarus. Application no. а20101403 of 30 April 2012.

Dietary Supplement and a Method of the Production Thereof. Morozova А.А., Konoplya E.F., Ananieva N.V. Patent no. 15492, Republic of Belarus.

Composition and a Method of the Production of a Dietary Supplement. Morozova А.А., Naumov A.D., Ananieva N.V. Patent no. 17766, Republic of Belarus.

Dietary Supplement and a Method of the Production Thereof. Morozova А.А., Naumov A.D., Timokhina N.I., Ananieva N.V. Patent no. 17826, Republic of Belarus.

Balneological Means and a Method of their Production. Morozova А.А., Garanovich I.M., Naumov A.D., Timokhina N.I., Ananieva N.V. Patent no. 15715, Republic of Belarus.

Balneological Means and a Method of the Production Thereof. Morozova А.А., Naumov A.D., Titok V.V., Kukhareva L.V., Stavrovskaya L.A., Ananieva N.V. Patent no. 17961, Republic of Belarus.

Radioprotective Drug. Chueshova N.V., Kozlov A.Ye., Cheshik I.A. Patent no. 23292, Republic of Belarus.


Grounding on our research of radioprotective properties of biologically active substances of natural origin, we have developed radioprotective agents based on stump fungi (mushroom) extracts, sodium succinate, biotin, antioxidant complex of vitamins with β-carotene, selenmethionine with methionine, exogenous DNA and others.

Yet another R&D product of the Department is an organic iodine-based dietary supplement Dopinat, which is now used in bakery and dairy food production to make, among others, iodized protein-enriched yogurts and mayonnaises.

Following technical instructions developed by the Department’s researchers, for which corresponding hygiene certificates were issued by the Ministry of Health of the Republic of Belarus, around 20 dairy enterprises throughout the country have launched production of approximately 9 000 tons of various dairy products enriched with innovative iodine casein.


Books, monographs, encyclopedias

Konoplya E.F., Vereshchako G.G., Khodosovskaya A.M. Enciklopedicheskij slovar radiobiologii (Encyclopedic Dictionary of Radiobiology, in Russian). Gomel: Gomel State Medical University, 2005; 251 p.

Morozova A.A., Konoplya E.F. Sredstva i sposoby zashchity organizma ot povrezhdayushchih faktorov vneshnej sredy (The ways and means of protecting the body of the damaging factors of the external environment, in Russian). Minsk: Belaruskaya Navuka, 2010; 395 p.

G.G. Vereshchako. Vliyanie elektromagnitnogo izlucheniya mobil’nyh telefonov na sostoyanie muzhskoj reproduktivnoj sistemy i potomstva (The effects of electromagnetic irradiation from mobile phones on the male reproductive system and progeny, in Russian). Minsk: Belaruskaya Navuka, 2015; 190 p.

Vereshchako G.G., Khodosovskaya A.M. Radiobiologiya: terminy i ponyatiya : enciklopedicheskij spravochnik (Radiobiology: Terms and Concepts : Encyclopedic Guide, in Russian). National Academy of Sciences of Belarus; Inst. of Radiobiology. Minsk: Belaruskaya Navuka, 2016; 335 p.

Publications in peer-reviewed scientific journals

Vereshchako G.G., Khodosovskaya A.M., Konoplya E.F. Protivoluchevaia zashchita muzhskoi reproduktivnoi sistemy: sostoianie voprosa i problemy, voznikshie posle avarii na Chernobylskoi AES (The problem of radiation protection of male reproductive system following the Chernobyl NPP disaster, in Russian). Uspekhi sovr. biologii, 2011; vol. 131 (1); p. 16-29.

E.F. Konoplya et al. Vliianie radioekologicheskikh uslovii zony otchuzhdeniia ChAES na morfofunktsionalnoe sostoianie i reaktivnost organov i tkanei laboratornykh zhivotnykh (The influence of radioecological conditions in the Chernobyl NPP exclusion zone on morphofunctional state and responsiveness of organs and tissues of laboratory animals, in Russian). Radiation Biology. Radioecology, 2011; vol. 51 (1); p. 1-11.

G.G. Vereshchako et al. Vliianie anabolika fenobolina na krov, reproduktivnuiu sistemu i uroven gormonov v syvorotke krovi krys-samtsov, obluchennykh fraktsionirovanno (The effect of anabolic fenobolin on blood, reproductive system and hormone level in blood serum of male rats under fractional exposure, in Russian). Radiation Biology. Radioecology, 2011; vol. 51 (3); p. 337-344.

Ye.F. Konoplya, G.G. Vereshchako, G.A. Goroh et al. The effect of chronic radiation exposure of ChNNP exclusion zone on the morfofunctional state and reactivity of organs and tissues of laboratory animals. // The lessons of Chernobyl. 25 years later. Elena B. Burlakova, Valeria I. Naydich / Chapter XIV. Nuclear materials and disaster research. Nova Science Publishers, Inc., New York, 2012; p. 173-186.

A.A. Morozova et al. Novye balneologicheskie sredstva rastitelnogo proiskhozhdeniia (New plant-based balneological medicines, in Russian). Doklady of the National Academy of Sciences, 2013; vol. 57 (2); p. 91-97.

G.G. Vereshchako. Problemy reproduktsii u muzhchin, vyzvannye ispolzovaniem mobilnogo telefona (Reproduction problems of males due to the use of mobile phones, in Russian). Problemy reprudukcii = Reproduction Problems, 2014; no. 4; p. 73–78.

Vereshchako G.G., Chueshova N.V., Gorokh G.A., Naumov A.D. Sostoianie reproduktivnoi sistemy krys-samtsov 1-go pokoleniia, poluchennykh ot obluchennykh roditelei i podvergnutykh vozdeistviiu EMI (897 MGts) v period embriogeneza i postnatalnogo razvitiia (Reproductive system of first-generation male offspring of irradiated parents following their exposure to EMR (897 MHz) during embryogenesis and postnatal development, in Russian). Rad. Biol. Radioecology, 2014; vol. 54 (2); p. 186-192.

  1. I. Timokhina, S. N. Sushko, N. N. Veyalkina, S. V. Goncharov, V. V. Truhonovets. Biologicheski-aktivnye svoistva vodnykh ekstraktov kultivirovannykh gribov Hericium erinaceus (The bioactive properties of aqueous extracts of cultured mushrooms Hericium Erinaceus, in Russian). Problemy zdorovia i ekologii, 2017; vol. 52 (2); p. 71-74.

G.G. Vereshchako, N.V. Chueshova. Reaktsiia organov reproduktivnoi sistemy i epididimalnykh spermatozoidov krys na elektromagnitnoe izluchenie ot mobilnogo telefona (1800 MGts) razlichnoi prodolzhitelnosti (Reactions of reproductive organs and epididymal sperms of rats on electromagnetic exposure from a mobile phone (1800 MHz) of different time length, in Russian). Rad. Biol. Radioecology, 2017; vol. 57 (1); p. 71–76

Timokhina N.I., Nadyrov E.A., Veyalkina N.N., Sushko S.N., Goncharov S.V., Fabusheva K.M. Genetically-caused tumor formation in lungs of mice of line Af under influence of radiation and chemical factors, and at aging. Journal of Anatomy and Histopathology. 2018; 7(3): 56–60. doi: 10.18499/2225-7357-2018-7-3-56-60. (In Russian.)

Trukhanavets V.V., Kadukova A.M., Veyalkina N.N., Sushko S.N., Puchkova T.A., Bisko N.A., Shahovskaya O.V., Kozlov A.E., Miadzvedzeva A.A., Kolody T.A. Introduction of  the medicinal mushroom Ganoderma  lucidum (Curt.: Fr.) P. Karst. in culture and prospects of  its practical use in the radioactive pollution conditions. Journal of the Belarusian State University. Ecology. 2019;4:62-70. Russian.

M.N. Starodubtseva, I.A. Chelnokova et. al. Nano- and microscale mechanical properties of erythrocytes in hereditary spherocytosis. J. Biomechanics. 2019. Vol. 83. Р. 1–8.

J.-M. Bertho et. al. Assessment of population radiation exposure at the edge of the exclusion zone 32 years after the Chernobyl accident: methods and preliminary results. Radioprotection. 2019. 54 (4). P. 247–257.

Chueshova N. V., Vismont F. I. Long-term effects of electromagnetic radiation of the mobile phone frequency on the morphofunctional state of the reproductive system of rats and males and their offspring. Doklady Natsional’noi akademii nauk Belarusi = Doklady of the National Academy of Sciences of Belarus, 2019, vol. 63, no. 2, pp. 198-206 (in Russian).

Chueshova N. V., Vismont F. I., Cheshyk I. А. Effect of electromagnetic radiation from a mobile phone (1745 MHz) on the condition of the reproductive system of male rats during their postnatal development. Vestsi Natsyyanal’nai akademii navuk Belarusi. Seriya meditsinskikh navuk = Proceedings of the National Academy of Sciences of Belarus. Medical Series, 2019, vol. 16, no. 2, pp. 216–225 (in Russian).