It's Time to Go Nuclear by , CNN November 3, 2013 -- Updated 1315 GMT (2115 HKT) CNN.Com
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Esdo Profile
ECO-SOCIAL DEVELOPMENT ORGANIZATION (ESDO) ESDO PROFILE Head Office Address: Eco-Social Development Organization (ESDO) Collegepara (Gobindanagar), Thakurgaon-5100, Thakurgaon, Bangladesh Phone:+88-0561-52149, +88-0561-61614 Fax: +88-0561-61599 Mobile: +88-01714-063360, +88-01713-149350 E-mail:[email protected], [email protected] Web: www.esdo.net.bd Dhaka Office: ESDO House House # 748, Road No: 08, Baitul Aman Housing Society, Adabar,Dhaka-1207, Bangladesh Phone: +88-02-58154857, Mobile: +88-01713149259, Email: [email protected] Web: www.esdo.net.bd 1 Eco-Social Development Organization (ESDO) 1. Background Eco-Social Development Organization (ESDO) has started its journey in 1988 with a noble vision to stand in solidarity with the poor and marginalized people. Being a peoples' centered organization, we envisioned for a society which will be free from inequality and injustice, a society where no child will cry from hunger and no life will be ruined by poverty. Over the last thirty years of relentless efforts to make this happen, we have embraced new grounds and opened up new horizons to facilitate the disadvantaged and vulnerable people to bring meaningful and lasting changes in their lives. During this long span, we have adapted with the changing situation and provided the most time-bound effective services especially to the poor and disadvantaged people. Taking into account the government development policies, we are currently implementing a considerable number of projects and programs including micro-finance program through a community focused and people centered approach to accomplish government’s development agenda and Sustainable Development Goals (SDGs) of the UN as a whole. -
Significant Incidents in Nuclear Fuel Cycle Facilities
IAEA-TECDOC-867 Significant incidents in nuclear fuel cycle INTERNATIONAL ATOMIC ENERGY AGENCY The IAEA does not normally maintain stocks of reports in this series. However, microfiche copie f thesso e reportobtainee b n sca d from INIS Clearinghouse International Atomic Energy Agency Wagramerstrasse 5 P.O. Box 100 A-1400 Vienna, Austria Orders should be accompanied by prepayment of Austrian Schillings 100, in the form of a cheque or in the form of IAEA microfiche service coupons which may be ordered separately from the INIS Clearinghouse. The originating Section of this publication in the IAEA was: Nuclear Fuel Cycle and Materials Section International Atomic Energy aoiicy A Wagramerstrasse 5 0 10 P.Ox Bo . A-1400 Vienna, Austria SIGNIFICANT INCIDENT NUCLEASN I R FUEL CYCLE FACILITIES IAEA, VIENNA, 1996 IAEA-TECDOC-867 ISSN 1011-4289 ©IAEA, 1996 Printe IAEe th AustriAn y i d b a March 1996 FOREWORD significano Tw t accidents have occurre histore th n di f nuclea yo r power, namely t Threa , e Mile Islan Chernobyld dan orden I . preveno rt t such accidents, causes were investigate actiond dan s were taken r exampleFo . , reporting systems were establishe accumulato dt disseminatd ean e information on accidents such as INES (International Nuclear Event Scale) and IRS (Incident Reporting System). Operators of nuclear power plants also established an information system to share incident information. The purpose of INES is to facilitate prompt communication between the nuclear community, the media and the public. The purpose of IRS is to analyse causes of significant incidents. Those systems serve to promote safety culture in nuclear power plants. -
Local Government Engineering Department District: Pabna ‡Kl Nvwmbvi
Government of the Peoples Republic of Bangladesh Office of the Executive Engineer Local Government Engineering Department District: Pabna www.lged.gov.bd ‡kL nvwmbvi g~jbxwZ MÖvg kn‡ii DbœwZ Memo No: 46.02.7600.000.07.076.2020/ 579 Date: 01/03/2021 Invitation for Tender (Works) e-Tender Notice:22/2020-21 (LTM) e-Tender is invited in the National e-GP System Portal (http://www.eprocure.gov.bd) for the procurement of under mentioned works: Sl Name of Scheme Package No. Tender ID Tender Security Time for No No (Tk.) Completion 1 2 3 4 5 6 1 (d) Improvement of Tibapara to Kata River Road at Ch 08-450m [Road GPBRIDP/Rd- 553646 70,000.00 60 days ID No 176225021] under Chatmohar Upazila District-Pabna. [Salvage 549.d Cost BDT.2,17,786.00] 2 Maintenance Work of Bonogram GC - Chinnakhora GC via Samannapara RDRIDP/Pabana 553681 60,000.00 120 days Daroga House road. at ch. 00-1470.00m [Road ID 176722009] under /Santhia/Mainten Santhia Upazila, Pabna. ance-30/20-21 3 Maintenance Work of Nandanpur UP (Nandanpur Bazar R&H) - RDRIDP/Pabana 553682 1,90,000.00 230 days Haludghar Bazar via Tentulia Dattapara & Gopalpur River Dyke road. at /Santhia/Mainten ch. 00-815.00m & 2440-3440m [Road ID 176723027] [ Salvage Cost.- ance-31/20-21 BDT-2,78,904.00 under Santhia Upazila, Pabna. 4 Maintenance Work of Jagatala - Par Bhangoora Road at ch. 00-2445.00m RDRIDP/Pabna/ 553683 1,20,000.00 180 days [Road ID 176194018] under Bhangura Upazila, Pabna. -
Esdo Profile
` 2018 ESDO PROFILE Head Office Address: Eco Social Development Organization (ESDO) Collegepara (Gobindanagar), Thakurgaon-5100, Thakurgaon, Bangladesh Phone:+88-0561-52149, Fax: +88-0561-61599 Mobile: +88-01714-063360 E-mail:[email protected], [email protected] Web: www.esdo.net.bd Dhaka Office : House # 37 ( Ground Floor), Road No : 13 PC Culture Housing Society, Shekhertak, Adabar, Dhaka-1207 Phone No :+88-02-58154857, Contact No : 01713149259 Email: [email protected] Web: www.esdo.net.bd Abbreviation AAH - Advancing Adolescent Health ACL - Asset Creation Loan ADAB - Association of Development Agencies in Bangladesh ANC - Ante Natal Care ASEH - Advancing Sustainable Environmental Health AVCB Activating Village Courts in Bangladesh BBA - Bangladesh Bridge Authority BSS - Business Support Service BUET - Bangladesh University of Engineering & Technology CAMPE - Campaign for Popular Education CAP - Community Action Plan CBMS - Community-Based Monitoring System CBO - Community Based organization CDF - Credit Development Forum CLEAN - Child Labour Elimination Action Network CLEAR - Child Labour Elimination Action for Real Change in urban slum areas of Rangpur City CLMS - Child Labour Monitoring System CRHCC - Comprehensive Reproductive Health Care Center CV - Community Volunteer CWAC - Community WASH Action Committee DAE - Directorate of Agricultural Engineering DC - Deputy Commissioner DMIE - Developing a Model of Inclusive Education DPE - Directorate of Primary Education DPHE - Department of Primary health Engineering -
Compare and Contrast Major Nuclear Power Plant Disasters: Lessons Learned from the Past
163 10th International Conference of the International Institute for Infrastructure Resilience and Reconstruction (I3R2) 20–22 May 2014 Purdue University, West Lafayette, Indiana, USA Compare and Contrast Major Nuclear Power Plant Disasters: Lessons Learned from the Past Sayanti Mukhopadhyay and Makarand Hastak Construction Engineering and Management, Purdue University Jessica Halligan School of Nuclear Engineering, Purdue University ABSTRACT The construction of nuclear power plants is a major step towards reducing greenhouse gas emissions compared to the conventional coal-fired or oil-fired power plants. However, some of the major nuclear accidents in the past have raised questions about the safety and reliability of nuclear power plants. This paper compares and contrasts the major nuclear accidents of the past for example, the Chernobyl disaster (USSR), the Fukushima Daiichi disaster (Japan), and the Three Mile Island incident (USA). Although each of the accidents was unique, a thorough comparison found some common issues, such as faulty design of reactors and safety systems, safety rules violations, and lack of trained operators. The primary impacts mostly involved radiation hazards such as exposure to varying doses of radiation, uninhabitable neighborhoods and health problems; the levels of impact varied mostly due to different intensities of warnings and precautionary measures taken by the local governments. The research findings would serve as an important resource for the nuclear professionals to plan proper precautionary measures in order to avoid the major issues that initiated or resulted from the accidents in the past. 1. INTRODUCTION summarizes the important lessons learned from the past instances which could serve as an Nuclear power plants are one of the most complex information tool for the nuclear professionals to and sophisticated energy systems designed to plan for proper preventive measures well in produce low carbon electrical energy in contrast to advance to avoid similar accidents in future. -
The Nuclear Accident at Chernobyl: Immediate and Further Consequences
The article was received on September 10, 2020, and accepted for publishing on February 13, 2021. VARIA The nuclear accident at Chernobyl: Immediate and further consequences Symeon Naoum1, Vasileios Spyropoulos1 Abstract: The accident at Chernobyl occurred in April 1986 at the Chernobyl Nuclear Power Plant in Soviet Union. The incident occurred during a scheduled safety test. A combination of inherent reactor design flaws and operators’ mistakes resulted in reactor’s No.4 disaster and the emission of a large quantity of radiation. The immediate actions involved the fire extinguishing, the cleanup of radioactive residues and the prevention of a new explosion. For this purpose, plenty of people worked with self-sacrifice. The people who lived nearby were removed. As far as the socio-economic impact for the Soviet Union is concerned, it was quite serious. Moreover, the environmental and human health consequences were also alarming with thyroid cancer being the most studied. Useful conclusions, especially for the safety both of reactors and nuclear power, as well as for the impact of radiation at ecosystems have been drawn. The debate about the use of nuclear power has remained open ever since. Keywords: nuclear power, thyroid cancer, RBMK reactor, radiation, radioactivity, liquidators INTRODUCTION while 28 firemen and employees finally died. The Chernobyl The Chernobyl nuclear accident occurred on 26 April 1986 in accident is considered the most damaging nuclear power the light water graphite moderated reactor No 4 at the plant accident in history. The Chernobyl and the Fukushima Chernobyl Nuclear Power Plant, close the town of Pripyat, in accident are the two nuclear accidents classified as a level 7 Ukrainian Soviet Socialist Republic Soviet Union, roughly (the maximum classification) on the International Nuclear 100km of the city of Kiev [1]. -
The Growth of Nuclear Power: a Detailed Investigation
Journal of Basic and Applied Engineering Research p-ISSN: 2350-0077; e-ISSN: 2350-0255; Volume 2, Number 18; July-September, 2015, pp. 1590-1594 © Krishi Sanskriti Publications http://www.krishisanskriti.org/Publication.html The Growth of Nuclear Power: A Detailed Investigation Soumyajit Saha1, Pallab Ghosh2, Sayantan Mukherjee3, Ayan Mitra4, Diposmit Ghosh5 13rd Year BTech, Civil Engineering Undergraduate Student, University Of Engineering And Management, Jaipur, India 2,3,4,5 3rd Year BTech, Mechanical Engineering Undergraduate Student, University Of Engineering And Management, Jaipur, India Abstract—The concept of atom has existed for many centuries, Nuclear Science because of his contribution to the theory of however the enormous potential of the tiny mass has been realised atomic structure. recently. Atom have a large amount of energy which is required to hold the nuclei together. Certain isotopes of some element can be Albert Einstein developed his theory of the relationship split up and in turn they will release a part of the energy as heat. This between mass and energy one year later. The mathematical entire process is referred to as fission. The heat released in this formula referred to as E=mc2 or energy equal mass times the process can be easily used to generate electricity in power plants. speed of light squared. It took almost 35 year for someone to Uranium -235 (U-235) is one of the isotopes that can be fissioned prove Einstein’s theory. very easily. During fission, U-235 atoms absorb loose neutrons and it becomes unstable and split into light atoms called fission products. The combined mass of the fission products is less than original U- 235. -
Investigation on Conversion of I-Graphite from Decommissioning of Chernobyl Npp Into a Stable Waste Form Acceptable for Long Term Storage and Disposal
INVESTIGATION ON CONVERSION OF I-GRAPHITE FROM DECOMMISSIONING OF CHERNOBYL NPP INTO A STABLE WASTE FORM ACCEPTABLE FOR LONG TERM STORAGE AND DISPOSAL BORYS ZLOBENKO, YRIY FEDORENKO, VICTOR YATZENKO, BORYS SHABALIN, VADIM SKRIPKIN National Academy of Sciences of Ukraine: State Institution “Institute of Environmental Geochemistry” Department of Nuclear Geochemistry (Radiocarbon Laboratory), Kyiv, Ukraine INTRODUCTION For Ukraine, the main radiocarbon (14C) source is irradiated graphite from Chernobyl Nuclear Power Plant. The ChNPP is a decommissioned nuclear power station about 14 km northwest of the city of Chernobyl, and 110 km north of Kyiv. The ChNPP had four RBMK reactor units. The commissioning of the first reactor in 1977 was followed by reactor No. 2 (1978), No. 3 (1981), and No.4 (1983). Reactors No.3 and 4 were second generation units, whereas Nos.1 and 2 were first-generation units. RBMK is an acronym for "High Power Channel-type Reactor" of a class of graphite-moderated nuclear power reactor with individual fuel channels that uses ordinary water as its coolant and graphite as its moderator. The combination of graphite moderator and water coolant is found in no other type of nuclear reactor. Parameters RBMK-1000 Thermal power, MW 3840 Core diameter, m 11.80 Core height, m 7.0 Core volume, m 765 Mean specific power 5.02 per core volume, MW/m Mean specific power 20.8 per fuel quantity, MW/t Mean power per fuel 18.3 rod length, kW/m On September 9, 1982, a partial core meltdown occurred in Reactor No. 1 at the Chernobyl plant. The extent of the accident was not made public until several years later. -
Investigation on Anthrax in Bangladesh During the Outbreaks of 2011 and Definition of the Epidemiological Correlations
pathogens Article Investigation on Anthrax in Bangladesh during the Outbreaks of 2011 and Definition of the Epidemiological Correlations Domenico Galante 1 , Viviana Manzulli 1,* , Luigina Serrecchia 1, Pietro Di Taranto 2, Martin Hugh-Jones 3, M. Jahangir Hossain 4,5, Valeria Rondinone 1, Dora Cipolletta 1, Lorenzo Pace 1 , Michela Iatarola 1, Francesco Tolve 1, Angela Aceti 1, Elena Poppa 1 and Antonio Fasanella 1 1 Istituto Zooprofilattico Sperimentale of Puglia and Basilicata, Anthrax Reference Institute of Italy, 71121 Foggia, Italy; [email protected] (D.G.); [email protected] (L.S.); [email protected] (V.R.); [email protected] (D.C.); [email protected] (L.P.); [email protected] (M.I.); [email protected] (F.T.); [email protected] (A.A.); [email protected] (E.P.); [email protected] (A.F.) 2 Servizio Igiene degli Allevamenti e delle Produzioni Zootecniche—Asl 02 Abruzzo Lanciano—Vasto-Chieti, 66054 Vasto, Italy; [email protected] 3 Department of Environmental Sciences, Louisiana State University, Baton Rouge, LA 70803-5705, USA; [email protected] 4 International International Centre for Diarrheal Disease Research, Programme on Infectious Diseases & Vaccine Sciences, Health System & Infectious Disease Division, Bangladesh (ICDDR,B), 1212 Dhaka, Bangladesh; [email protected] 5 Medical Research Council Unit The Gambia at the London School of Hygiene and Tropical Medicine, 273 Banjul, The Gambia * Correspondence: [email protected]; Tel.: +39-0881786330 Citation: Galante, D.; Manzulli, V.; Serrecchia, L.; Taranto, P.D.; Abstract: In 2011, in Bangladesh, 11 anthrax outbreaks occurred in six districts of the country. -
A History of Nuclear Power
After a flying start in the 1950s, nuclear power generation faltered in the two decades before 2000, though it did not go away completely. Now the industry is gearing up to offer its servic- es to a world faced with the twin challenges of global warming and energy shortages. How viable is the nuclear option, and what are the lessons of history? James Chater investigates. A history of nuclear power By James Chater “Think of me ten per cent,” says the about global warming and a possible taining uranium, he found the plates nuclear plant engineer to the journal- energy crunch, nuclear is back on the had been exposed by invisible ema- ist in “The China Syndrome”, the agenda. How viable is the nuclear nations from the uranium. 1979 film starring Jack Lemmon and option? What mistakes were made, Becquerel’s accidental discovery was Jane Fonda. This referred to the per- and what lessons have we learnt? By termed “radioactivity” by his succes- centage of energy derived from examining the past and projecting sor, Marie Sklodowska Curie, who nuclear power in the USA at the time into the future, we may hope to together with her husband Pierre the film was released; now it is more attempt some answers. Curie investigated the properties of like 20 per cent. In the rest of world, uranium and discovered other too, reliance on nuclear power has Hidden powers radioactive substances such as polo- been increasing. Several industrial The first nuclear accident was the dis- nium and radium. Marie hypothe- countries have come to depend on it covery of radioactivity. -
The Status of Spent Fuel Treatment in the United Kingdom
THE STATUS OF SPENT FUEL TREATMENT IN THE UNITED KINGDOM MJ. DUNN, I.R. TOPLISS British Nuclear Fuels pic, Thorp Group, XA9952149 Risley, Warrington, United Kingdom Abstract Nuclear power has been used to generate electricity in the UK since the 1950s. Since that time a number of reactor and fuel types have been developed and are currently in use, requiring different spent fuel treatment routes. This paper reviews the spent fuel treatment technology along with the associated waste management and recycle facilities currently in use in the UK. 1. BACKGROUND AND GENERAL ISSUES Nuclear generating capacity in the UK is static with no units currently under construction. The UK's nuclear generating capacity comprises some 8 320 MWe AGRs (advanced gas cooled reactors) and one 1200 MWe PWR operated by British Energy (BE), and 3 350 MWe Magnox operated by British Nuclear Fuels pic (BNFL). The details of the nuclear power stations currently in operation in the UK are given in Table I. TABLE I. OPERATIONAL NUCLEAR POWER STATIONS IN THE UK Name Type Net Capacity Start of Current (MW) Operation Accountancy Lifetime (Years) Calder Hall Magnox 200 1956 50 Chapelcross Magnox 200 1959 50 Bradwell Magnox 240 1962 t Dungeness A Magnox 440 1965 Average of Hinkley Point A Magnox 460 1965 37 years Oldbury Magnox 440 1967 operating Sizewell A Magnox 420 1966 lifetime Wylfa Magnox 950 1971 I Dungeness B AGR 1140 1983 25 Hartlepool AGR 1180 1983 25 Heyshafn 1 AGR 1100 1983 25 Heysham 2 AGR 1240 1988 25 Hinkley Point B AGR 1170 1976 35 Hunterston B AGR 1240 1976 35 Torness AGR 1250 1988 30 Sizewell B PWR 1200 1994 40 Nuclear power in the UK represents some 18% of installed capacity, but currently supplies some 31% of electricity produced. -
Assessment of the Nuclear Power Industry
Assessment of the Nuclear Power Industry – Final Report June 2013 Navigant Consulting, Inc. For EISPC and NARUC Funded by the U.S. Department of Energy Assessment of the Nuclear Power Industry Study 5: Assessment of the Location of New Nuclear and Uprating Existing Nuclear Whitepaper 5: Consideration of other Incentives/Disincentives for Development of Nuclear Power prepared for Eastern Interconnection States’ Planning Council and National Association of Regulatory Utility Commissioners prepared by Navigant Consulting, Inc. Navigant Consulting, Inc. 77 South Bedford Street, Suite 400 Burlington, MA 01803 781.270.0101 www.navigant.com Table of Contents Forward ....................................................................................................................................... ix Basic Nuclear Power Concepts ................................................................................................ 1 Executive Summary ................................................................................................................... 5 1. BACKGROUND .................................................................................................................... 9 1.1 Early Years – (1946-1957) ........................................................................................................................ 9 1.1.1 Shippingport ............................................................................................................................. 11 1.1.2 Power Reactor Demonstration Program ..............................................................................