Present and Future Environmental Impact of the Chernobyl Accident
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2.5 Ukraine Waterways Assessment
2.5 Ukraine Waterways Assessment Ukraine has high potential navigable rivers - over 4 thousand km: there are traditional waterways Dnipro - 1,205 km and its tributaries (Desna- 520 km, Pripyat - 60 km) and Dunay - 160 km, Bug - 155 km, and other so-called small rivers. Dnipro River and its major tributaries Desna and Pripyat carried out to 90% of total transport. The remaining 10% are Dunai and other rivers (Desna, Dniester, Southern Bug, Seversky Donets, Ingulets, Vorskla, etc.). Since Ukraine gained independence in 1991, length of river waterways decreased almost twice (from 4 thousand. Km to 2.1 thousand. Km). At the same time the density of river shipping routes reduced 1.75 times; intensity of freight transport - in 4,3 times, and passenger transportation - 7.5 times The volume of traffic fellt to 60 mln. MT in 1990 to 12 mln. MT in 2006, and then - to 5 mln. MT in 2014. Over the past two or three years, inland waterway transportation is only 0.2 - 0.8% of all the cargo traffic. The main categories of goods that are transported via inland waterway – agricultural products (mainly grain), metal products, chemicals. Company Information Only few companies operate on rivers. First, it is a private company "Ukrrichflot" http://ukrrichflot.ua/en/ , declares the presence of about 100 vessels of various types and their ports and other elements of the port infrastructure. The second important market player - Agrocorporation "NIBULON" http://www. nibulon.com/ . The company owns a private fleet and private river terminals. Dnipropetrovsk River -
General Assembly Distr.: General 27 September 2019
United Nations A/74/461 General Assembly Distr.: General 27 September 2019 Original: English . Seventy-fourth session Agenda item 71 (d) Strengthening of the coordination of humanitarian and disaster relief assistance of the United Nations, including special economic assistance: strengthening of international cooperation and coordination of efforts to study, mitigate and minimize the consequences of the Chernobyl disaster Persistent legacy of the Chernobyl disaster Report of the Secretary-General Summary The present report is submitted in accordance with General Assembly resolution 71/125 on the persistent legacy of the Chernobyl disaster and provides an update on the progress made in the implementation of all aspects of the resolution. The report provides an overview of the recovery and development activities undertaken by the agencies, funds and programmes of the United Nations system and other international actors to address the consequences of the Chernobyl disaster. The United Nations system remains committed to promoting the principle of leaving no one behind and ensuring that the governmental efforts to support the affected regions are aimed at achieving the 2030 Agenda for Sustainable Development and the Sustainable Development Goals. 19-16688 (E) 041019 151019 *1916688* A/74/461 I. General situation 1. Since the Chernobyl nuclear plant accident on 26 April 1986, the United Nations, along with the Governments of Belarus, the Russian Federation and Ukraine, has been leading the recovery and development efforts to support the affected regions. While extensive humanitarian work was conducted immediately after the accident, additional recovery and rehabilitation activities were conducted in the following years to secure the area, limit the exposure of the population, provide medical follow-up to those affected and study the health consequences of the incident. -
Present and Future Environmental Impact of the Chernobyl Accident
IAEA-TECDOC-1240 Present and future environmental impact of the Chernobyl accident Study monitored by an International Advisory Committee under the project management of the Institut de protection et de sûreté nucléaire (IPSN), France August 2001 The originating Section of this publication in the IAEA was: Waste Safety Section International Atomic Energy Agency Wagramer Strasse 5 P.O. Box 100 A-1400 Vienna, Austria PRESENT AND FUTURE ENVIRONMENTAL IMPACT OF THE CHERNOBYL ACCIDENT IAEA, VIENNA, 2001 IAEA-TECDOC-1240 ISSN 1011–4289 © IAEA, 2001 Printed by the IAEA in Austria August 2001 FOREWORD The environmental impact of the Chernobyl nuclear power plant accident has been extensively investigated by scientists in the countries affected and by international organizations. Assessment of the environmental contamination and the resulting radiation exposure of the population was an important part of the International Chernobyl Project in 1990–1991. This project was designed to assess the measures that the then USSR Government had taken to enable people to live safely in contaminated areas, and to evaluate the measures taken to safeguard human health there. It was organized by the IAEA under the auspices of an International Advisory Committee with the participation of the Commission of the European Communities (CEC), the Food and Agriculture Organization of the United Nations (FAO), the International Labour Organisation (ILO), the United Nations Scientific Committee on the Effects of Atomic Radiation (UNSCEAR), the World Health Organization (WHO) and the World Meteorological Organization (WMO). The IAEA has also been engaged in further studies in this area through projects such as the one on validation of environmental model predictions (VAMP) and through its technical co-operation programme. -
Environment International 146 (2021) 106282
Environment International 146 (2021) 106282 Contents lists available at ScienceDirect Environment International journal homepage: www.elsevier.com/locate/envint Current radiological situation in areas of Ukraine contaminated by the Chornobyl accident: Part 2. Strontium-90 transfer to culinary grains and forest woods from soils of Ivankiv district I. Labunskaa’*, S. Levchukb, V. Kashparov b,c, D. Holiakab, L. Yoschenkob, D. Santilloa, P. Johnston a a Greenpeace Research Laboratories, Innovation Centre Phase 2, Rennes Drive, University of Exeter, Exeter, UK b Ukrainian Institute of Agricultural Radiology (UIAR) of National University of Life and Environmental Sciences of Ukraine, Mashinobudivnykiv str.7, Chabany, Kyiv Region 08162, Ukraine c CERAD CoE Environmental Radioactivity/Department of Environmental Sciences, Norwegian University of Life Sciences, 1432 Aas, Norway ARTICLE INFO ABSTRACT Handling Editor: Olga Kalantzi Some of the highest 90Sr activity concentrations recorded beyond the Chornobyl Exclusion Zone occur in the Ivankiv district of Ukraine, located approximately 50 km south of the power plant, an area which nonetheless Keywords: remains important for agricultural production. Although characterized by soils with low exchangeable calcium 90Sr values, which can enhance the bioavailability of certain radionuclides, information on the transfer of 90Sr to food Grain contamination crops and trees in the region has remained limited to date. Analysis of 116 grain samples (wheat, rye, oat, barley Wood contamination or Triticale) collected from fields in 13 settlements in the region between 2011 and 2019 revealed 90Sr and 137Cs The Chernobyl accident Effective dose activity concentrations above Ukrainian limits in almost half of those samples, with annual averages exceeding Transfer factor this limit in four of those nine years (most recently in 2018) and with no clear evidence for a declining trend over time. -
Chornobyl Center for Nuclear Safety, Radioactive Waste and Radioecology the Report Prepared in a Framework of GEF UNEP Project &
Chornobyl Center for Nuclear Safety, Radioactive Waste and Radioecology The report prepared in a framework of GEF UNEP Project "Project entitled "Conserving, Enhancing and Managing Carbon Stocks and Biodiversity in the Chornobyl Exclusion Zone" (Project ID: 4634; IMIS: GFL/5060-2711-4C40) Revision and optimization of the systems of routine and scientific radiological monitoring of terrestrial and aquatic ecosystems in the ChEZ Slavutich - 2016 1 Analysis by Prof. V. Kashparov Director of UIAR of NUBiP of Ukraine Dr S. Levchuk Head of the Laboratory of UIAR of NUBiP of Ukraine Dr. V. Protsak Senior Researcher of UIAR of NUBiP of Ukraine Dr D. Golyaka Researcher of UIAR of NUBiP of Ukraine Dr V. Morozova Researcher of UIAR of NUBiP of Ukraine M. Zhurba Researcher of UIAR of NUBiP of Ukraine This report, publications discussed, and conclusions made are solely the responsibility of the au- thors 2 Table of Contents 1. INTRODUCTION...................................................................................................................................... 8 1.1 System of the radioecological monitoring in the territory of Ukraine alienated after the Chernobyl accident 8 2. Exclusion Zone....................................................................................................................................... 11 2.1 Natural facilities11 2.2 Industrial (technical) facilities 12 2.2.1 Facilities at the ChNPP industrial site.....................................................................................12 2.2.2 Facilities -
Demographic, Economic, Geospatial Data for Municipalities of the Central Federal District in Russia (Excluding the City of Moscow and the Moscow Oblast) in 2010-2016
Population and Economics 3(4): 121–134 DOI 10.3897/popecon.3.e39152 DATA PAPER Demographic, economic, geospatial data for municipalities of the Central Federal District in Russia (excluding the city of Moscow and the Moscow oblast) in 2010-2016 Irina E. Kalabikhina1, Denis N. Mokrensky2, Aleksandr N. Panin3 1 Faculty of Economics, Lomonosov Moscow State University, Moscow, 119991, Russia 2 Independent researcher 3 Faculty of Geography, Lomonosov Moscow State University, Moscow, 119991, Russia Received 10 December 2019 ♦ Accepted 28 December 2019 ♦ Published 30 December 2019 Citation: Kalabikhina IE, Mokrensky DN, Panin AN (2019) Demographic, economic, geospatial data for munic- ipalities of the Central Federal District in Russia (excluding the city of Moscow and the Moscow oblast) in 2010- 2016. Population and Economics 3(4): 121–134. https://doi.org/10.3897/popecon.3.e39152 Keywords Data base, demographic, economic, geospatial data JEL Codes: J1, J3, R23, Y10, Y91 I. Brief description The database contains demographic, economic, geospatial data for 452 municipalities of the 16 administrative units of the Central Federal District (excluding the city of Moscow and the Moscow oblast) for 2010–2016 (Appendix, Table 1; Fig. 1). The sources of data are the municipal-level statistics of Rosstat, Google Maps data and calculated indicators. II. Data resources Data package title: Demographic, economic, geospatial data for municipalities of the Cen- tral Federal District in Russia (excluding the city of Moscow and the Moscow oblast) in 2010–2016. Copyright I.E. Kalabikhina, D.N.Mokrensky, A.N.Panin The article is publicly available and in accordance with the Creative Commons Attribution license (CC-BY 4.0) can be used without limits, distributed and reproduced on any medium, pro- vided that the authors and the source are indicated. -
Late Lessons from Chernobyl, Early Warnings from Fukushima
Emerging issues | Late lessons from Chernobyl, early warnings from Fukushima 18 Late lessons from Chernobyl, early warnings from Fukushima Paul Dorfman, Aleksandra Fucic and Stephen Thomas The nuclear accident at Fukushima in Japan occurred almost exactly 25 years after the Chernobyl nuclear accident in 1986. Analysis of each provides valuable late and early lessons that could prove helpful to decision-makers and the public as plans are made to meet the energy demands of the coming decades while responding to the growing environmental costs of climate change and the need to ensure energy security in a politically unstable world. This chapter explores some key aspects of the Chernobyl and Fukushima accidents, the radiation releases, their effects and their implications for any construction of new nuclear plants in Europe. There are also lessons to be learned about nuclear construction costs, liabilities, future investments and risk assessment of foreseeable and unexpected events that affect people and the environment. Since health consequences may start to arise from the Fukushima accident and be documented over the next 5–40 years, a key lesson to be learned concerns the multifactorial nature of the event. In planning future radiation protection, preventive measures and bio-monitoring of exposed populations, it will be of great importance to integrate the available data on both cancer and non-cancer diseases following overexposure to ionising radiation; adopt a complex approach to interpreting data, considering the impacts of age, gender and geographical dispersion of affected individuals; and integrate the evaluation of latency periods between exposure and disease diagnosis development for each cancer type. -
Chernobyl: Chronology of a Disaster
MARCH 11, 2011 | No. 724 CHERNOBYL: CHRONOLOGY OF A DISASTER CHERNOBYL; CHRONOLOGY OF A DISASTER 1 INHOUD: 1- An accident waiting to happen 2 2- The accident and immediate consequences ( 1986 – 1989) 4 3- Trying to minimize the consequences (1990 – 2000) 8 4- Aftermath: no lessons learned (2001 - 2011) 5- Postscript 18 Chernobyl - 200,000 sq km contaminated; 600,000 liquidators; $200 billion in damage; 350,000 people evacuated; 50 mln Ci of radiation. Are you ready to pay this price for the development of nuclear power? (Poster by Ecodefence, 2011) 1 At 1.23 hr on April 26, 1986, the fourth reactor of the Cherno- power plants are designed to withstand natural disasters (hur- byl nuclear power plant exploded. ricanes, fl oods, earthquakes, etc.) and to withstand aircraft The disaster was a unique industrial accident due to the crash and blasts from outside. The safety is increased by scale of its social, economic and environmental impacts and the possibility in Russia to select a site far away from bigger longevity. It is estimated that, in Ukraine, Belarus and Russia towns." (page 647: "Zur Betriebssicherheit sind die Kraftwerke alone, around 9 million people were directly affected resulting (VVER and RBMK) mit drei parallel arbeitenden Sicherheit- from the fact that the long lived radioactivity released was systeme ausgeruested. Die Kraftwerke sing gegen Naturka- more than 200 times that of the atomic bombs dropped on tastrophen (Orkane, Ueberschwemmungen, Erdbeben, etc) Hiroshima and Nagasaki. und gegen Flugzeugabsturz und Druckwellen von aussen ausgelegt. Die Sicherheit wird noch durch die in Russland Across the former Soviet Union the contamination resulted in moegliche Standortauswahl, KKW in gewisser Entfernung van evacuation of some 400,000 people. -
PDF: Transforming Chernobyl
The works to transform Chernobyl into a safe and on the ground. Total costs for the Shelter secure state are nearing conclusion. The New Implementation Plan – of which the NSC is the Safe Confinement (NSC), a gigantic steel arch, most prominent element – were estimated to be has been erected and is now being equipped €2.1 billion in 2014, leaving a large funding gap with systems and tools to make the site safe for of €615 million. generations to come. The EBRD shareholders’ decision in November Impressive progress has been made and we are 2014 to commit an additional €350 million confident that the NSC will be completed and (from the Bank’s reserves) for the NSC and operational by the end of 2017. an anticipated €165 million from the G7/ European Commission have significantly The Chernobyl project would not have been reduced the funding gap. However, a shortfall of possible without the active involvement and €100 million remains. generous contributions of the international community and Ukraine. The fact that to date Ukraine is currently in a vulnerable state and more than 40 countries and the EBRD have cannot be left to bear this uniquely hazardous provided funds speaks for itself. burden alone. The EBRD welcomes the leadership of the G7 to secure the full funding As the project is now far-advanced it is possible of the project. to make a reliable cost estimate based on the final design of the NSC and the progress Suma Chakrabarti, EBRD President PART OF A LARGER The New Safe Confinement (NSC) is a structure intended to the international community’s work together with Ukraine cover the destroyed reactor unit 4 at Chernobyl, the site of got under way. -
Thyroid Cancer in Children and Adolescents of Bryansk and Kaluga Regions
BY0000285 Thyroid Cancer in Children and Adolescents of Bryansk and Kaluga Regions A.F. TSYB, E.M. PARSHKOV, V.V. SHAKHTARIN, V.F. STEPANENKO, V.F. SKVORTSOV, I.V. CHEBOTAREVA MRRC RAMS, Obninsk, Russia Abstract We analyzed 62 cases of thyroid cancer in children and adolescents of Bryansk and Kaluga regions, the most contaminated as a result of the Chernobyl accident. The data on specified radiation situation as well as probable radiation doses to the thyroid are given. It is noted that the development of thyroid cancer depends on the age of children at the time of accident (0-3, 7-9, 12-15 years). They arc the most critical periods for the formation and functioning of the thyroid, in particular, in girls. It is suggested that thyroid cancer develops in children and teenagers residing in areas with higher Cs-137 contamination level at younger age than in those residing in less contaminated regions. It is shown that the minimal latent period in the development of thyroid cancer makes up to 5 years. The results of ESR method on tooth enamel specimen indicate that over postaccident period the sufficient share of children has collected such individual radiation dose which are able to affect on their health stale and development of thyroid pathology. For a long period of time Russia unlike Belarus and Ukraine was considered to be "favourable" by the development of thyroid cancer in children and adolescents after the Chernobyl accident. Such a fact appeared to be a dissonance in the common concept on the possible radiation induction of thyroid tissues to malignancy when received relatively low doses of iodine radionuclide. -
The Molecular and Cellular Consequences of the Chernobyl Accident I
ISSN 00063509, Biophysics, 2011, Vol. 56, No. 3, pp. 577–583. © Pleiades Publishing, Inc., 2011. Original Russian Text © I.I. Pelevina, G.G. Afanas’ev, A.V. Aleshchenko, M.M. Antoshchina,V.Ya. Gotlib, A.A. Konradov, O.V. Kudryashova, E.Yu. Lizunova, A.N. Osipov, N.I. Ryabchenko, A.M. Serebryanyi, 2011, published in Radiatsionnaya Biologiya. Radioekologiya, 2011, Vol. 51, No. 1, pp. 154–161. RADIOBIOLOGY AND RADIOECOLOGY The Molecular and Cellular Consequences of the Chernobyl Accident I. I. Pelevinaa, G. G. Afanas’eva,†, A. V. Aleshchenkob, M. M. Antoshchinac, V. Ya. Gotliba, A. A. Konradovb,†, O. V. Kudryashovaa, E. Yu. Lizunovaa, A. N. Osipova, N. I. Ryabchenkoc, and A. M. Serebryanyib a Institute of Chemical Physics, Russian Academy of Sciences, Moscow, 119991 Russia b Institute of Biochemical Physics, Russian Academy of Sciences, Moscow, 119334 Russia c Medical Radiological Research Center, Russian Academy of Medical Sciences, Obninsk, 249036 Russia Email: [email protected] Received July 5, 2010 Abstract—In this paper the results of research at 5–10 and 24 years after the Chernobyl accident are summa rized. These results include the investigation of genomic instability, formation of the adaptive response, genome damage, and oxidative status. The studies were performed on cells in culture, mice, children and adults who lived in the contaminated areas, and liquidators of the consequences of the Chernobyl accident. Inhibition of cell proliferative activity, late cell death, and the increase in micronucleus and giant cell fre quency were observed after the exposure of cells in culture in the accident zone followed by their culturing in laboratory conditions. -
The Chernobyl Nuclear Power Plant Accident : Its Decommissioning, The
The Chernobyl Nuclear Power Plant accident : its decommissioning, the Interim Spent Fuel Storage ISF-2, the nuclear waste treatment plants and the Safe Confinement project. by Dr. Ing. Fulcieri Maltini Ph.D. SMIEEE, life, PES, Comsoc FM Consultants Associates, France Keywords Nuclear power, Disaster engineering, Decommissioning, Waste management & disposal, Buildings, structures & design. Abstract On April 26, 1986, the Unit 4 of the RBMK nuclear power plant of Chernobyl, in Ukraine, went out of control during a test at low-power, leading to an explosion and fire. The reactor building was totally demolished and very large amounts of radiation were released into the atmosphere for several hundred miles around the site including the nearby town of Pripyat. The explosion leaving tons of nuclear waste and spent fuel residues without any protection and control. Several square kilometres were totally contaminated. Several hundred thousand people were affected by the radiation fall out. The radioactive cloud spread across Europe affecting most of the northern, eastern, central and southern Europe. The initiative of the G7 countries to launch an important programme for the closure of some Soviet built nuclear plants was accepted by several countries. A team of engineers was established within the European Bank for Reconstruction and Development were a fund was provided by the donor countries for the entire design, management of all projects and the plants decommissioning. The Chernobyl programme includes the establishment of a safety strategy for the entire site remediation and the planning for the plant decommissioning. Several facilities that will process and store the spent fuel and the radioactive liquid and solid waste as well as to protect the plant damaged structures have been designed and are under construction.