New Stage Towards Reconstruction & Revitalization
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Greetingsfrom Koriyama City
‘Nunobiki Plateau Wind Farm’: boasting 33 wind turbines with the height of roughly 100 meters, one of the largest scale wind farms in Japan Greetings from Koriyama City -Toward a future-oriented and mutually-beneficial relationship between the cities of Essen and Koriyama- Business Creation Division City of Koriyama, JAPAN City of Koriyama, Fukushima Prefecture JAPAN 1 Geographical Features of Koriyama City -Two Cities of Essen and Koriyama- 2nd most populous in Fukushima Prefecture and 3rd most populous in Tohoku Region ‘Economic Capital City in Fukushima Prefecture’, boasting its Essen City biggest retail sales and largest number of retail businesses in the prefecture Largest number of agricultural households in Fukushima State of North Rhine- Prefecture, boasting biggest rice production in the prefecture Westphalia 51 Degrees 37 Degrees Koriyama City Fukushima Prefecture Koriyama City Central urban area of Koriyama City (the west exit of Koriyama Station) City of Koriyama, Fukushima Prefecture JAPAN 2 History of the Development of Koriyama City -Transition from a city of power generation to city of renewable energy and medical devices- 5.Great East Japan 6.Restoration Earthquake and Nuclear Accident from the disasters, at Fukushima Daiichi Nuclear promoting renewable Power Station in 2011 energy and medical device development Oyasuba Burial Mound, built in the Fukushima Renewable Energy early Kofun Period (250 AD-538 AD) Institute, AIST (FREA) opened in April 2014 Building with its first floor collapsed due to the fierce earthquake 4.People gathered, schools and banks established, Fukushima Medical Device Development Numagami Hydroelectric Power Station, laid Support Center (FMDDSC) the foundation of Koriyama’s development railroaded to become the center of Fukushima Prefecture opened in November 2016 3.New industry revolution, cotton and chemical industries flourished by hydro electric power generation, Hodogaya Chemical Co., LTD. -
The Fukushima Nuclear Accident and Crisis Management
e Fukushima Nuclearand Crisis Accident Management e Fukushima The Fukushima Nuclear Accident and Crisis Management — Lessons for Japan-U.S. Alliance Cooperation — — Lessons for Japan-U.S. Alliance Cooperation — — Lessons for Japan-U.S. September, 2012 e Sasakawa Peace Foundation Foreword This report is the culmination of a research project titled ”Assessment: Japan-US Response to the Fukushima Crisis,” which the Sasakawa Peace Foundation launched in July 2011. The accident at the Fukushima Daiichi Nuclear Power Plant that resulted from the Great East Japan Earthquake of March 11, 2011, involved the dispersion and spread of radioactive materials, and thus from both the political and economic perspectives, the accident became not only an issue for Japan itself but also an issue requiring international crisis management. Because nuclear plants can become the target of nuclear terrorism, problems related to such facilities are directly connected to security issues. However, the policymaking of the Japanese government and Japan-US coordination in response to the Fukushima crisis was not implemented smoothly. This research project was premised upon the belief that it is extremely important for the future of the Japan-US relationship to draw lessons from the recent crisis and use that to deepen bilateral cooperation. The objective of this project was thus to review and analyze the lessons that can be drawn from US and Japanese responses to the accident at the Fukushima Daiichi Nuclear Power Plant, and on the basis of these assessments, to contribute to enhancing the Japan-US alliance’s nuclear crisis management capabilities, including its ability to respond to nuclear terrorism. -
Paper Sludge Carbon As an Adsorbent for Fukushima Radiocontaminated Paddy Soil
applied sciences Article Paper Sludge Carbon as an Adsorbent for Fukushima Radiocontaminated Paddy Soil Ai Van Tran 1,* and Makoto Yanaga 2 1 Corelex SanEi Co. Ltd., Agoyama 775-1, Shizuoka Prefecture, Fujinomiya City 418-0037, Japan 2 Center for Radioscience Education and Research, Faculty of Science, Shizuoka University, 836 Ohya, Suruga-ku, Shizuoka City 422-8529, Japan; [email protected]; Tel.: +81-54-238-4804 * Correspondence: [email protected]; Tel.: +81-544-23-0303 Received: 28 August 2020; Accepted: 15 September 2020; Published: 17 September 2020 Abstract: Radiocontaminated soil in a paddy field in the Iitate village in Fukushima was treated with an industrial paper sludge carbon (PSC) prior to growing rice in May 2011. The results showed that the sum of the activity concentrations of 134Cs and 137Cs in the polished rice harvested in October 2011 was 30 Bq kg 1, a level much lower than the Japanese governmental safeguard value of 100 Bq kg 1. · − · − Upon contacting with the contaminated soil, the contents of calcium, magnesium, copper, potassium, and barium in the PSC were decreased. Among the PSCs impregnated with various chlorides and sulfates of the previously mentioned minerals, potassium chloride, copper sulfate, magnesium sulfate, and potassium sulfate yielded higher decontamination degrees compared to the original PSC. The results imply that radioactive cesium in the soil exchanges cations with these minerals. Keywords: paper sludge carbon; decontamination; rice; ion exchange; 134Cs; 137Cs 1. Introduction As the radiocontaminated soil from the Chernobyl nuclear power plant accident in 1986 is concerned, Guillitte and co-workers [1] proposed countermeasures such as the removal of contaminated surface soil, spraying contaminated canopies with detergents or cleaning agents, defoliation and removal of fallen leaves, as well as plowing after clear felling and prior to planting. -
10 Years Since the Fukushima Nuclear Disaster
10 YEARS SINCE THE FUKUSHIMA NUCLEAR DISASTER By Philip White February 2021 Philip White was international liaison officer for the Tokyo-based Citizens' Nuclear Information Center at the time of the Fukushima nuclear accident. In 2014 he completed a PhD on public participation in Japan's nuclear energy policy-forming process. 1. Remembering the Fukushima Nuclear Disaster 2. How the disaster unfolded 3. What's the situation now? Evacuees ‒ Health issues ‒ Liability and compensation ‒ Decontamination of the environment and agriculture ‒ Radioactive water and fishing ‒ Decommissioning of nuclear power plants ‒ Cost 4. Post-Fukushima energy policy 5. Putting it in perspective References 1. Remembering the Fukushima Nuclear Disaster Ten years ago, three of the nuclear reactors at the Fukushima Daiichi Nuclear Power Station suffered melt downs in the days following a Magnitude 9 earthquake that struck off the northeast coast of Japan on 11 March 2011. Along with the 1986 nuclear accident at the Chernobyl Nuclear Power Station in the former Soviet Union, it was one of the two worst nuclear power accidents in history. On the tenth anniversary, it is important that we remember what happened then and what has happened since. It is in the interests of those who caused the accident that we forget. We must refuse to do so, for the sake of the victims and to prevent more disasters in future. The most important take-home message is that the disaster is far from over. In order to win the bid for the (now postponed) 2020 Olympics, then Prime Minister Abe asserted that the nuclear accident was 'under control'. -
Agri-Food Impacts of Fukushima Nuclear Accident - Lessons Learned 10 Years After Disaster
Munich Personal RePEc Archive Agri-food impacts of Fukushima nuclear accident - lessons learned 10 years after disaster Bachev, Hrabrin Institute of Agricultural Economics, Sofia May 2021 Online at https://mpra.ub.uni-muenchen.de/108041/ MPRA Paper No. 108041, posted 31 May 2021 08:56 UTC Agri-food Impacts of Fukushima Nuclear Accident - Lessons Learned 10 Years after Disaster Hrabrin Bachev, Institute of Agricultural Economics, Sofia, [email protected] Abstract On March 11, 2011, the strongest ever recorded in Japan earthquake occurred which triggered a powerful tsunami and caused a nuclear accident in Fukushima nuclear plant. The latter was a “manmade” disaster having immense impacts on people’s life, health, and property, infrastructure, supply chains, economy, policies, natural and institutional environment, etc. This paper presents work in progress and assesses preparedness for and agri-food impacts of the Fukushima nuclear disaster, identifies challenges in post-disaster recovery, and withdraws lessons for improving disaster risk management. Japan was not well prepared for such a huge disaster while the agri-food sector and consumption have been among the worst-hit areas. The triple disaster was a rare but high-impact event, therefore, it is necessary to “prepare for the unexpected”. Risk assessment is to include diverse hazards and multiple effects of a likely disaster, it is to be discussed with all stakeholders, and measures taken to educate and train all for complex disasters. It is necessary to modernize property rights, regulations, safety standards, and norms, enhance the capability of responsible public authorities and improve coordination between diverse actors. It is important to set up mechanisms for effective public resource allocation and reduction of agents’ costs. -
Fukushima Daiichi 2011-2021 the Decontamination Myth and a Decade of Human Rights Violations
Fukushima Daiichi 2011-2021 The decontamination myth and a decade of human rights violations March 2021 01 Contents Executive summary 1 The reality of contamination in Fukushima 2 The decontamination myth 3 Greenpeace surveys 4 Areas where evacuation orders have been lifted – Iitate and Namie 5 Iitate district 6 Namie town and district 7 Namie ‘difficult-to-return’ exclusion zone 8 Strontium-90 – an additional threat 9 Ten years of evacuation, displacement and human rights violations 10 The future of difficult-to-return exclusion zones 11 Conclusion and recommendations Endnotes Cover: Nuclear waste storage area in Iitate, Fukushima prefecture. (October 1, 2017) Page 2-3: Greenpeace survey team in Namie, Fukushima prefecture. (March 26, 2011) © Christian Åslund / Greenpeace 02 Acknowledgements Radiation survey team 2020 Report team 2021 Coordinator and Lead Radiation Protection: Survey data compilation: Jan Vande Putte, Greenpeace Belgium Mai Suzuki, Greenpeace Japan and Mai Suzuki, Greenpeace Japan Researcher: Daisuke Miyachi, Greenpeace Japan Report and analysis : Shaun Burnie, Greenpeace East Asia; Technical support: Jan Vande Putte, Greenpeace Jan vande Putte, Greenpeace Belgium; and Heinz Smital, Belgium and Heinz Smital, Greenpeace Germany Greenpeace Germany Communication/photography support: Review and Editing: Dr Rianne Teule (Greenpeace RPA Mitsuhisa Kawase, Greenpeace Japan coordinator); Kazue Suzuki, Greenpeace Japan; Insung Lee, Greenpeace East Asia; Caroline Roberts Survey teams 2011-2020 Photographs: Christian Aslund; Shaun -
Tomography of the 2011 Iwaki Earthquake (M 7.0) and Fukushima Nuclear Power Plant Area
Solid Earth, 3, 43–51, 2012 www.solid-earth.net/3/43/2012/ Solid Earth doi:10.5194/se-3-43-2012 © Author(s) 2012. CC Attribution 3.0 License. Tomography of the 2011 Iwaki earthquake (M 7.0) and Fukushima nuclear power plant area P. Tong1,2, D. Zhao1, and D. Yang2 1Department of Geophysics, Tohoku University, Sendai 980-8578, Japan 2Department of Mathematical Sciences, Tsinghua University, Beijing, China Correspondence to: P. Tong ([email protected]), D. Zhao ([email protected]) Received: 12 December 2011 – Published in Solid Earth Discuss.: 22 December 2011 Revised: 2 February 2012 – Accepted: 6 February 2012 – Published: 14 February 2012 Abstract. High-resolution tomographic images of the crust zone but also in regions far away from the epicenter, and so and upper mantle in and around the area of the 2011 Iwaki the seismic activity in the crust of the overriding plate west of earthquake (M 7.0) and the Fukushima nuclear power plant the source area has increased significantly after the Tohoku- are determined by inverting a large number of high-quality oki mainshock that ruptured the megathrust zone beneath the arrival times with both the finite-frequency and ray tomog- Pacific Ocean (Okada et al., 2011). raphy methods. The Iwaki earthquake and its aftershocks The Iwaki earthquake (M 7.0) occurred in a previous seis- mainly occurred in a boundary zone with strong variations micity gap on 11 April 2011 and it was one of the ma- in seismic velocity and Poisson’s ratio. Prominent low- jor aftershocks following the Tohoku-oki mainshock and the velocity and high Poisson’s ratio zones are revealed under the strongest one hit the Japan land area. -
The Fukushima Daiichi Accident Technical Volume 3
The Fukushima Daiichi Accident Daiichi Fukushima The The Fukushima Daiichi Accident Technical Volume 3/5 Technical Volume 3/5 Emergency Preparedness and Response Emergency Preparedness and Response Preparedness Emergency PO Box 100, Vienna International Centre 1400 Vienna, Austria Printed in Austria ISBN 978–92–0–107015–9 (set) 1 THE FUKUSHIMA DAIICHI ACCIDENT TECHNICAL VOLUME 3 EMERGENCY PREPAREDNESS AND RESPONSE i The following States are Members of the International Atomic Energy Agency: AFGHANISTAN GERMANY OMAN ALBANIA GHANA PAKISTAN ALGERIA GREECE PALAU ANGOLA GUATEMALA PANAMA ARGENTINA GUYANA PAPUA NEW GUINEA ARMENIA HAITI PARAGUAY AUSTRALIA HOLY SEE PERU AUSTRIA HONDURAS PHILIPPINES AZERBAIJAN HUNGARY POLAND BAHAMAS ICELAND PORTUGAL BAHRAIN INDIA QATAR BANGLADESH INDONESIA REPUBLIC OF MOLDOVA BELARUS IRAN, ISLAMIC REPUBLIC OF ROMANIA BELGIUM IRAQ RUSSIAN FEDERATION BELIZE IRELAND RWANDA BENIN ISRAEL SAN MARINO BOLIVIA, PLURINATIONAL ITALY SAUDI ARABIA STATE OF JAMAICA SENEGAL BOSNIA AND HERZEGOVINA JAPAN SERBIA BOTSWANA JORDAN SEYCHELLES BRAZIL KAZAKHSTAN SIERRA LEONE BRUNEI DARUSSALAM KENYA SINGAPORE BULGARIA KOREA, REPUBLIC OF SLOVAKIA BURKINA FASO KUWAIT SLOVENIA BURUNDI KYRGYZSTAN SOUTH AFRICA CAMBODIA LAO PEOPLE’S DEMOCRATIC SPAIN CAMEROON REPUBLIC SRI LANKA CANADA LATVIA SUDAN CENTRAL AFRICAN LEBANON SWAZILAND REPUBLIC LESOTHO SWEDEN CHAD LIBERIA SWITZERLAND CHILE LIBYA SYRIAN ARAB REPUBLIC CHINA LIECHTENSTEIN TAJIKISTAN COLOMBIA LITHUANIA CONGO LUXEMBOURG THAILAND COSTA RICA MADAGASCAR THE FORMER YUGOSLAV CÔTE D’IVOIRE MALAWI -
The Failed Nuclear Risk Governance: Reflections on the Boundary Between Misfortune and Injustice in the Case of the Fukushima Daiichi Nuclear Disaster Hiroyuki Tosa
The Failed Nuclear Risk Governance: Reflections on the Boundary between Misfortune and Injustice in the case of the Fukushima Daiichi Nuclear Disaster Hiroyuki Tosa Abstract Although technological progress has greatly created the possibilities for the expanded reach of risk management, its newly manufactured uncertainty may bring about a big scale of catastrophe. In order to control risk of the nature, the human ironically may create a hybrid monster that the human cannot control. Te Fukushima Daiichi nuclear disaster also can be described as a hybrid monster, in which natural and technological elements combine to produce uncontrollable risks that may have disastrous consequences. Tis article scrutinizes the politics of the boundary between calculable risks and unpredictable uncertainty as well as the politics of the boundary between misfortune and injustice by focusing upon the lineage of a hybrid monster such as the Fukushima Daiichi nuclear disaster. Following the check of implications of a hybrid monster, we will interrogate historical lineage. Tird we will examine the way in which technocratic politics of <risk/uncertainty> would infuence the boundary between misfortune and injustice. Fourth we will scrutinize problems with the probabilist way of thinking, which tends to suppress the risk of nuclear technology. Finally we shed a light on technocratic governance forcing the people to become resilient. As recent Science and Technology Studies (STS) literature suggests that sci- entifc and technical knowledge needs to be seen as situated in social and material spaces(Simondo 2010, 204, O’Malley 2004), political interests would shape the presentation of scientifc facts and predictions in areas of high uncertainty(Heazle 2010, Jasanof 1990, 6) and the confguration of political actors in each country may bring about the diferent perceptions of risk and its related diferent regulatory policy(Jasanof 2005, Brickman, Jasanof, and Ilgen 1985, Vogel 2012, Jasanof 2012, 23–58). -
A Record of the Reconstruction from March 2011 to March 2019 a Er the Great East Japan Earthquake and Tsunami
IWATE Moving toward Reconstruction A record of the reconstruction from March 2011 to March 2019 aer the Great East Japan Earthquake and Tsunami Sanriku Railway Rias Line All parts of the Tohoku East-West Expressway, Kamaishi Akita Line are open. Miyako-Muroran Ferry August 2019 Iwate Kamaishi Unosumai Memorial Stadium Contents Introduction Introduction 1 1 Disaster Damage and the Reconstruction Plan 2 When the Great East Japan Earthquake and Tsunami infrastructures that we could not finish during the initial struck the Tohoku region on the Pacific coast side on March recovery period. We will also promote efforts to Build Back 11, 2011, 5,140 lives were lost in Iwate, primarily on the coast. Better in the Sanriku area, by also taking into account its 2 Status of the Reconstruction 4 I would like to express my sincere condolences to those that future, through supporting mental and emotional care of lost their loved ones, in addition to the families of the 1,114 disaster survivors, providing assistance to form new commu- 3 Support from Abroad 6 people that are still missing. nities, and revitalizing commercial activities in the forestry, With the love and feelings the victims had towards their marine, and agricultural sectors. 4 Main Initiatives So Far hometown firmly in our mind, it became our mission to In addition, as a disaster-affected prefecture, ensure the livelihood as well as the ability to learn and work we can contribute to the improvement of disaster for those affected by the disaster. It also became essential for risk reduction both in Japan and the entire world. -
Fukushima Nuclear Disaster – Implications for Japanese Agriculture and Food Chains
Munich Personal RePEc Archive Fukushima nuclear disaster – implications for Japanese agriculture and food chains Bachev, Hrabrin and Ito, Fusao Institute of Agricultural Economics, Sofia, Tohoku University, Sendai 3 September 2013 Online at https://mpra.ub.uni-muenchen.de/49462/ MPRA Paper No. 49462, posted 03 Sep 2013 08:50 UTC Fukushima Nuclear Disaster – Implications for Japanese Agriculture and Food Chains1 Hrabrin Bachev, Professor, Institute of Agricultural Economics, Sofia, Bulgaria2 Fusao Ito, Professor, Tohoku University, Sendai, Japan 1. Introduction On March 11, 2011 at 14:46 JST the Great East Japan Earthquake occurred with the epicenter around 70 kilometers east of Tōhoku. It was the most powerful recorded earthquake ever hit Japan with a magnitude of 9.03 Mw. The earthquake triggered powerful tsunami that reached heights of up to 40 meters in Miyako, Iwate prefecture and travelled up to 10 km inland in Sendai area. The earthquake and tsunami caused many casualties and immense damages in North-eastern Japan. According to some estimates that is the costliest natural disaster in the world history [Kim]. Official figure of damages to agriculture, forestry and fisheries alone in 20 prefectures amounts to 2,384.1 billion yen [MAFF]. The earthquake and tsunami caused a nuclear accident3 in one of the world’s biggest nuclear power stations - the Fukushima Daiichi Nuclear Power Plant, Okuma and Futaba, Fukushima prefecture. After cooling system failure three reactors suffered large explosions and level 7 meltdowns leading to releases of huge radioactivity into environment [TEPCO]. Radioactive contamination has spread though air, rains, dust, water circulations, wildlife, garbage disposals, transportation, and affected soils, waters, plants, animals, infrastructure, supply and food chains in immense areas. -
Fukushima: Liability and Compensation
Fukushima: liability and compensation by X. Vásquez-Maignan* n 11 March 2011, Japan endured one of the mit tee), which the Japanese Ministry for Edu- Oworst natural disasters in its history when a cation, Culture, Sport, Science and Technology massive earthquake struck the Pacific coast of the (MEXT) may establish following an accident and country and was followed by a tsunami which led whose function is, on the one hand, to draft to considerable loss of lives. It also led to a major instructions to establish the scale of the nuclear accident1 at the Fukushima Daiichi nuclear power damage as well as to actually assess them and, plant. Soon afterwards, the operator of the plant, on the other hand, to mediate disputes concern- Tokyo Electric Power Company (TEPCO), assumed ing compensation claims. responsibility and liability for the nuclear accident. In the case of the Fukushima accident, MEXT On 28 April 2011, TEPCO established a dedicated con- established the Reconciliation Committee in early tact line to provide consulting services for financial April 2011. compensation related to the damage caused.2 Third party nuclear liability Nuclear damage principles According to the Act on Compensation for Nuclear The compensation procedure set up by TEPCO com- Damage (the Compensation Act), nuclear damage plies with the Japanese legislation governing third means “any damage caused by the effects of the party liability for nuclear activities. Even though fission process of nuclear fuel, or of the radiation Japan is not party to any of the international