Newly Designated and Extended Ramsar Sites in 2018
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CBD Fifth National Report
Fifth National Report of Japan to the Convention on Biological Diversity Government of Japan March 2014 Contents Executive Summary 1 Chapter 1 Biodiversity: the current situation, trends and threats 7 1.1 Importance of biodiversity 7 (1) Characteristics of biodiversity in Japan from the global perspective 7 (2) Biodiversity that supports life and livelihoods 9 (3) Japan causing impacts on global biodiversity 10 (4) The economic valuation of biodiversity 11 1.2 Major changes to the biodiversity situation and trends 12 (1) The current situation of ecosystems 12 (2) The current situation of threatened wildlife 17 (3) Impacts of the Great East Japan Earthquake on biodiversity 19 1.3 The structure of the biodiversity crisis 21 (1) The four crises of biodiversity 21 (2) Japan Biodiversity Outlook (JBO) 22 1.4 The impacts of changes in biodiversity on ecosystem services, socio-economy, and culture 24 (1) Changes in the distribution of medium and large mammals and the expansion of conflicts 24 (2) Alien species 24 (3) Impacts of changes in the global environment on biodiversity 26 1.5 Future scenarios for biodiversity 28 (1) Impacts of the global warming 28 (2) The impacts of ocean acidification on coral reefs 29 (3) The forecasted expansion in the distribution of sika deer (Cervus nippon ) 30 (4) Second crisis (caused by reduced human activities) 30 Chapter 2 Implementation of the National Biodiversity Strategy and Mainstreaming Biodiversity 32 2.1 Background to the formulation of the National Biodiversity Strategy of Japan and its development -
Flood Loss Model Model
GIROJ FloodGIROJ Loss Flood Loss Model Model General Insurance Rating Organization of Japan 2 Overview of Our Flood Loss Model GIROJ flood loss model includes three sub-models. Floods Modelling Estimate the loss using a flood simulation for calculating Riverine flooding*1 flooded areas and flood levels Less frequent (River Flood Engineering Model) and large- scale disasters Estimate the loss using a storm surge flood simulation for Storm surge*2 calculating flooded areas and flood levels (Storm Surge Flood Engineering Model) Estimate the loss using a statistical method for estimating the Ordinarily Other precipitation probability distribution of the number of affected buildings and occurring disasters related events loss ratio (Statistical Flood Model) *1 Floods that occur when water overflows a river bank or a river bank is breached. *2 Floods that occur when water overflows a bank or a bank is breached due to an approaching typhoon or large low-pressure system and a resulting rise in sea level in coastal region. 3 Overview of River Flood Engineering Model 1. Estimate Flooded Areas and Flood Levels Set rainfall data Flood simulation Calculate flooded areas and flood levels 2. Estimate Losses Calculate the loss ratio for each district per town Estimate losses 4 River Flood Engineering Model: Estimate targets Estimate targets are 109 Class A rivers. 【Hokkaido region】 Teshio River, Shokotsu River, Yubetsu River, Tokoro River, 【Hokuriku region】 Abashiri River, Rumoi River, Arakawa River, Agano River, Ishikari River, Shiribetsu River, Shinano -
Geographical Variations in Morphological Characters of the Fluvial Eight-Barbel Loach, Nagare-Hotoke-Dojo (Cobitidae: Nemacheilinae)
Biogeography 17. 43–52. Sep. 20, 2015 Geographical variations in morphological characters of the fluvial eight-barbel loach, Nagare-hotoke-dojo (Cobitidae: Nemacheilinae) Taiki Ito*, Kazuhiro Tanaka and Kazumi Hosoya Program in Environmental Management, Graduate School of Agriculture, Kinki University, 3327-204 Nakamachi, Nara 631-8505, Japan Abstract. The morphological and color variations of Lefua sp. 1 Nagare-hotoke-dojo individuals from 13 river systems were examined. Analysis of variance revealed highly significant variations in Lefua sp. 1 mor- phology and coloration among the 13 populations examined, across all 19 measurements and counts. The 13 populations of Lefua sp. 1 were classified into two major clusters (I and II) by using UPGMA cluster analy- sis. Cluster I comprised fish from the Maruyama, Yura, Muko, Mihara, Yoshino, Hidaka, Kumano, Yoshii, Chikusa, and Ibo river systems. Cluster II comprised fish from the Yoshida, Saita, and Sumoto river systems. Cluster I was further subdivided into sub-clusters: I-i (the Maruyama, Yura, Muko, Mihara, Yoshino, Hidaka, Kumano, and Yoshii river systems) and I-ii (the Chikusa and Ibo river systems). Principal component analysis revealed that populations within cluster II clearly possessed longer caudal peduncles, while populations within cluster I possessed a longer anterior body on average and a deeper body. Populations within sub-cluster I-ii possessed a higher average dorsal fin and a longer average dorsal fin base than those of populations within sub-cluster I-i. A strong correlation was noted between the PC3 score and population latitude (r = 0.621). Observations of body color patterns revealed that individuals from the Yoshino, Mihara, Sumoto, and Hidaka river systems had dark brown mottling on both sides and the dorsal regions of their bodies and many small dark brown spots on the dorsal and caudal fins, while those from the Yura, Muko, and Kumano river systems possessed neither. -
Analysis of Breach Characteristics and Equilibrium Scour Title Pattern for Overtopping Induced River Dyke Breach
Analysis of Breach Characteristics and Equilibrium Scour Title Pattern for Overtopping Induced River Dyke Breach BHATTARAI, Pawan Kumar; NAKAGAWA, Hajime; Author(s) KAWAIKE, Kenji; ZHANG, Hao Citation 京都大学防災研究所年報. B (2015), 58(B): 386-401 Issue Date 2015-06 URL http://hdl.handle.net/2433/210054 Right Type Departmental Bulletin Paper Textversion publisher Kyoto University 京都大学防災研究所年報 第 58 号 B 平成 27 年 6 月 Annuals of Disas. Prev. Res. Inst., Kyoto Univ., No. 58 B, 2015 Analysis of Breach Characteristics and Equilibrium Scour Pattern for Overtopping Induced River Dyke breach Pawan Kumar BHATTARAI(1), Hajime NAKAGAWA, Kenji KAWAIKE and Hao ZHANG(2) (1) Graduate School of Engineering, Kyoto University (2) Agriculture Unit, Natural Science Clusters, Kochi University Synopsis River dykes are important and effective measure to prevent floods.The main consequences on the flood risk due to construction of river embankments or dykes are that, firstly, it increases the flood hazard reducing the lateral flow storage area and hence the flow capacity of peak discharges attenuation and, secondly, the amount of potential damages induced by flooding is dramatically increased, being the surrounding areas often urbanized. Therefore, although the existence of dyke lowers the probability of flooding but the consequences to personal safety and property are much higher should a dyke overtop or fail. The dynamic lateral widening of the breach process, resulting flow and sediment hydrographs and the scour beneath or downstream of dyke are poorly understood in current studies. Therefore, this study conducted laboratory experiments and numerical simulations of river dyke breach due to overtopping flow with different sediment sizes. -
Readings of Environmental Radiation Monitoring of Public Water Areas (Preliminary Report)
Readings of Environmental Radiation Monitoring of Public Water Areas (Preliminary Report) August 4, 2011 Local Nuclear Emergency Response Headquarters (Radioactivity Team) Disaster Provision Main Office of Fukushima Pref. (Nuclear Power Team) 1 Date: Thursday, July 7 – Friday, July 27, 2011 2 Number of monitoring locations: Rivers: 6 locations (water quality) Lakes and dam reservoirs: 5 locations (water quality) Lakes and dam reservoirs: 2 locations (bottom sediment) Agricultural reservoirs: 4 locations (water quality) Groundwater: 10 locations (water quality) 3 Monitoring Results (1) Rivers (water quality) Radioactive iodine: Not detectable in any locations Radioactive cesium: Cs-134 Not detectable – 1.18 Bq/L Cs-137 Not detectable – 1.30 Bq/L (2) Lakes and dam reservoirs (water quality and bottom sediment) a. Water quality Radioactive iodine: Not detectable in any location Radioactive cesium: Not detectable in any location b. Bottom sediment Radioactive iodine: Not detectable in any location Radioactive cesium: Cs-134 Not detectable – 334 Bq/kg Cs-137 Not detectable – 371 Bq/kg (3) Agricultural reservoirs (water quality) Radioactive iodine: Not detectable in any locations Radioactive cesium: Not detectable in any location (4) Groundwater (water quality) Radioactive iodine: Not detectable in any locations Radioactive cesium: Not detectable in any location *Water quality monitoring has been conducted once a month for rivers since May and once a month for lakes, dam reservoirs, and agricultural reservoirs since June. The quality of groundwater is monitored once a year. (Inquiries: Monitoring Team, Radioactivity Team Tel: 024-521-1917) Readings of Environmental Radiation Monitoring at Rivers, Lakes, Dam Reservoirs, and Agricultural Reservoirs(Preliminary Report)(Second report in July) August 4, 2011 Local Nuclear Emergency Response Headquarters (Radioactivity Team) Disaster Provision Main Office of Fukushima Pref. -
RADIOACTIVITY SURVEY DATA in Japan
RADIOACTIV SURVEY D」A ln Al)ri11963,in compli seLforthbytheJapanAtomi the Division oE Radioactiv Institute ofRadiologicalSci( 1.Collect,rCCOrd and on radiation from Natiorl 2.Analyze theinform之】 3.Establish a radiatior exchange center. As a p;lrt Of thc asく thc Nationwidc R;ldioactiv Were aSSClnbled an〔1coll叩il Prcscntl)1ans are toissuet On a quarterly basis. For furtherinformatioI POrtedin thisissue,rCadcr5 COntributorsindicatedin th RadioactivitySurveyDa inJapan Number 4 AⅦguSt1964 Comtents Page MeteorogictlData I)ieta Strontium-90and Cesium-137in Rain andDry Strontium-90and Cesiu] Fallout(Jbpan AnalyticalChemistry (肋如彿αZ血βま宜紬fβ Rβgβαγ¢九九β招%fβ)………………….1 ぶ¢宜β%¢ββ)‥.‥‥‥. (九pα≠A≠α‡〃抽αZ( GeograpbicalData ∫九βf宜紬fβ)‥.‥.‥‥ Strontium-90and Cesium-137in Soil Strontium-90and Cesiul (抽出0耽α£∫朋f宜f≠fβげ月αd宜0~og宜¢α乙 (九pα彿A≠α如£¢αい ぶβ£β≠¢ββ)‥.‥‥‥‥.‥‥‥‥‥.‥‥‥ J九β£宜紬fβ)‥‥‥‥‥ (九pα彿A≠α‡〃士官¢αZC九β刑由fγyRβg紺γ¢九 (乃αγαg宜Pγ小β£≠γβ 力ほ抽加ゎ)…………………………‥ 7 Strontium-90and Cesiu] Water Data (九pαれA%α如ま¢αヱ・ Strontium-90and Cesium-137in City Water ∫れβf宜ねfβ)‥‥.‥‥. (抽出0≠α~∫≠βま宜ねまβq′Rαd宜0わgieα£ Strontium-90andCesiuI ぶ¢宜β竹βββ).‥‥‥‥‥‥.‥‥‥‥‥.‥.‥ (tねpα雅Aれα如宜eα‡・ (九pα≠A≠αZyfま¢α乙C九β例言8fγyRβββαγC九 ∫那f宜f髄fβ).‥‥‥‥. ● MeteorologlCalData Strontium-90and Cesium-137in Rain and Dry Fallout (九pα彿A≠α如宜¢α‡C九β例言β£γ財月βββαγC九∫れβ£加古β) SinceMay1963,theJapanAnalyticalChemistry StrOntium and cesium c王 ResearchInstitute,On COmmission bytheScience COlumn fi11ed with sodil] andTechnologyAgency,hasmeasuredstrontium-90 resin(Dowex 50W-Ⅹ8, and cesium-137 contentin monthly deposits at COlumn was sent totheJ VariouslocationsthroughoutJapan.Samplingand ResearchInstitute for m. for Pre-treatment concentration have been carried used wasillustratedin Outby24prefecturalpublic healthlaboratories. this publication. The tray recommended by the Science and After a fraction conl TechnologyAgencyhasacollectionareaof5,000cm2, and cesium-137was elut( to andis exposed rain and dust throughout the ChemicalanalysIS WaS Ca二 depth month・The of waterin the trayiskept recommendedbytheScien to atlOmm preventdust from beingblown away. -
A Synopsis of the Parasites from Cyprinid Fishes of the Genus Tribolodon in Japan (1908-2013)
生物圏科学 Biosphere Sci. 52:87-115 (2013) A synopsis of the parasites from cyprinid fishes of the genus Tribolodon in Japan (1908-2013) Kazuya Nagasawa and Hirotaka Katahira Graduate School of Biosphere Science, Hiroshima University Published by The Graduate School of Biosphere Science Hiroshima University Higashi-Hiroshima 739-8528, Japan December 2013 生物圏科学 Biosphere Sci. 52:87-115 (2013) REVIEW A synopsis of the parasites from cyprinid fishes of the genus Tribolodon in Japan (1908-2013) Kazuya Nagasawa1)* and Hirotaka Katahira1,2) 1) Graduate School of Biosphere Science, Hiroshima University, 1-4-4 Kagamiyama, Higashi-Hiroshima, Hiroshima 739-8528, Japan 2) Present address: Graduate School of Environmental Science, Hokkaido University, N10 W5, Sapporo, Hokkaido 060-0810, Japan Abstract Four species of the cyprinid genus Tribolodon occur in Japan: big-scaled redfin T. hakonensis, Sakhalin redfin T. sachalinensis, Pacific redfin T. brandtii, and long-jawed redfin T. nakamuraii. Of these species, T. hakonensis is widely distributed in Japan and is important in commercial and recreational fisheries. Two species, T. hakonensis and T. brandtii, exhibit anadromy. In this paper, information on the protistan and metazoan parasites of the four species of Tribolodon in Japan is compiled based on the literature published for 106 years between 1908 and 2013, and the parasites, including 44 named species and those not identified to species level, are listed by higher taxon as follows: Ciliophora (2 named species), Myxozoa (1), Trematoda (18), Monogenea (0), Cestoda (3), Nematoda (9), Acanthocephala (2), Hirudinida (1), Mollusca (1), Branchiura (0), Copepoda (6 ), and Isopoda (1). For each taxon of parasite, the following information is given: its currently recognized scientific name, previous identification used for the parasite occurring in or on Tribolodon spp.; habitat (freshwater, brackish, or marine); site(s) of infection within or on the host; known geographical distribution in Japan; and the published source of each locality record. -
Rainfall in Japan
SAKURA SCIENCE Exchange Program Contents Sakura Science Plan Dec. 9th, 2019 Brief Introduction of Recent Flood Disasters in Japan Recent Flood Disasters in Japan Flood Disasters in 2004 River Bank Breach at the Asuwa River River Bank Breach at the Maruyama River Prof. & Dr. Hajime NAKAGAWA [email protected] Hydroscience and Hydraulic Engineering Disaster Prevention Research Institute, Kyoto University 01 02 Brief Introduction of Recent Flood Rainfall in Japan Disasters in Japan One year (mean) 1,714 mm One day (max.) & 1,317 mm (Tokushima, 2004) 24 hours (max.) One hour (max.) 187 mm (Nagasaki, 1982) Ten minute 49mm (Kochi, 1946) (max.) 03 04 (Person) Death Toll due to Natural Disasters in Japan 6500 19,486 Recent Major Flood Disasters in Japan the rest (from 1998 onwards) Snow related 6400 6482 Volcanic 2016 flood disaster by Typhoon Earthquake 1607, 09, 10, 11 in Hokkaido Flood, wind 2010 flood disaster due to heavy 2003 flood disaster Japan Territory: rainfall in Hokkaido by Typhoon0310 in Hokkaido 2019 Flood & strong wind Disasters 2 2012,2013,2014 flood disaster due to 380,000 km heavy rainfall (Kyoto), 2018 storm caused by Typhoons 15 & 19 10 Typhoons surge & strong wind disaster in Osaka 2011 Tsunami disaster due to Tohoku 500 10% :Alluvial plains landed earthquake 438 2004, 2011 flood disaster 50% :Population in Hokuriku area 1998 flood disaster in Fukushima, Tochigi and Ibaragi 400 75% :Property 2004 flood disaster by Typhoon0423 327 2008 flood disaster by 2015 flood disaster in the Kinu River basin 300 heavy -
Chapter 8. Creating and Preserving a Beautiful and Healthy Environment
Section 1 Promoting Global Warming Countermeasures Creating and Preserving a Beautiful II Chapter 8 Chapter 8 and Healthy Environment Section 1 Promoting Global Warming Countermeasures a Beautiful and Healthy Environment and Preserving Creating 1 Implementing Global Warming Countermeasures At the 21st session of the Conference of the Parties to the Framework Convention on Climate Change (COP21) held in 2015, the Paris Agreement was adopted as a new international framework for reducing greenhouse gas emissions be- ginning in 2020, with participation by all countries. The agreement went into effect in November 2016, and Japan is a signatory nation. Based on the Paris Agreement, Japan adopted the Plan for Global Warming Countermeasures by a Cabinet decision in May 2016, and has committed to efforts toward the achievement of the mid-term objective to achieve a 26.0% decrease in the FY2013 level of greenhouse gases by FY2030, and as a long-term objective aims to reduce emissions 80% by 2050. The MLIT has committed to a wide array of policy development initiatives for achieving the mid-term objective based on this plan, including making housing and buildings more energy efficient, measures for individual vehicles, and the promotion of low-carbon urban development. In addition, we partially amended our Environmental Action Plan in March 2017, and set out long-term roles for the MLIT in mitigation policies and other environmental policies. In March 2018, the Bill to Partially Amend the Act Concerning the Rational Use of Energy, which includes provisions for certifying energy-saving efforts through the collaboration of multiple transportation operators and allowing corpo- rations to allocate energy-saving credits amongst one another and report regularly, was submitted to the National Diet. -
Flood Control in Small Urban Rivers: an Example of River Projects in Tokyo
Urban Water 215 Flood control in small urban rivers: an example of river projects in Tokyo K. Sato1, K. Masuhara1, S. Mochida1, T. Yamamoto2, H. Gotoh3 & M. Takezawa3 1Tokyo Metropolitan Government, Japan 2Chuo College of Technology, Japan 3Department of Civil Engineering, Nihon University, Japan Abstract The Tokyo Metropolitan Government (TMG) has conducted a variety of river projects to protect citizens and their property from damage due to flooding, storm surges, and landslides. Projects have also been undertaken to improve and create riversides that support nature, and to protect and restore the natural environment. The hardening of urban and inner city areas with high population densities and developed areas have relatively poor water retention and flood prevention properties. Consequently, these areas have sustained extensive water damage during times of heavy rainfall and flooding. Indeed, extensive flood damage was observed in downtown areas as recently as September 2005 and August 2008, demonstrating the need to implement additional flood mitigation measures to prevent flood damage in the metropolitan area. The number of rivers currently under the direct management of the TMG is 61 class A rivers and two class B rivers, which together measure 494.82 km. In addition, the city office of the TMG also controls 33 class A rivers and 13 class B rivers, which together equal 215.91 km. The main projects undertaken by the TMG is small river development, reinforce of lowland, improvement of the river environment for ecology, improvement of sediment disaster control facilities, development of software programs, river enlightenment activities and improved shoreline protection measures. In 2010, the total costs of river projects amounted to approximately JPY 65 billion. -
CONSERVATION and RESTORATION of RIVER ENVIRONMENT Kazuo OKAYAMA1, Noboru MARUOKA2 1 INTRODUCTION Japan's Rivers Are One Of
CONSERVATION AND RESTORATION OF RIVER ENVIRONMENT Kazuo OKAYAMA1, Noboru MARUOKA2 1 INTRODUCTION Japan’s rivers are one of its most precious resources. They are the habitat for a wide variety of life and are a key element in the natural environments and cultures of each region of the country. The people’s close relationship and interaction with rivers and riverside environments is an integral part of the national culture. River areas are of inestimable value as spaces for rest and recreation. On the other hand, ongoing construction work such as straightening river channels and building concrete revetments is necessary to prevent flood damage and landslides. Unfortunately, these kinds of effective flood control measures often come at the expense of altering the natural environments of rivers and the surrounding Fig. 1 The River in Hokkaido is an example of a desirable river environment. landscape. The rise in the standard of living that has taken place in Japan in the past few decades has created new needs and new expectations of a higher quality of life and an opportunity to enjoy the benefits of pleasant environment. This has led to people taking a new look at problems related to environmental protection and building regional communities. As a result, new concepts are being advanced for creating diverse river environments and spaces along rivers to meet functional needs. It was against this background that Japan’s River Law was amended in 1997 to include the goal of Fig. 2 A Tokyo river encased in concrete protecting and improving river environments. Since then, energetic efforts have been made and public works projects are being carried out to meet this new goal. -
Mitigation of Flood Hazards in Japan
River Basin Management IV 271 Mitigation of flood hazards in Japan M. Takezawa1, H. Gotoh1 & Y. Takeuchi2 1Nihon University, Tokyo, Japan 2Japan Infrastructure Partners Abstract In recent years, there have been instances of unusually heavy rain in Japan, including rainfall in excess of 200 mm/day. The aim of flood-control planning in Japan since 1945 has been to confine river water to within riverbanks and to ensure that levees protect river basins from flooding. In many rivers, dams were constructed in upstream areas and long levees were built along the riverbanks. The main aim of flood-control planning is to prevent the flooding of river basins by the over-flow of river water across riverbanks; however, as rainfall prediction has recently become difficult because of the effects of global warming, the main emphasis of flood-control planning has shifted from prevention to providing areas of refuge. Flood hazards must be dealt with by ‘hard measures’ such as levees and reservoirs, and ‘soft measures’ such as the provision of hydrological information, regulation of land use, and evacuation advice. In 2001, the Japanese Government made it mandatory for all regional bodies to compile and distribute flood-hazard maps to inform inhabitants of the danger of flooding and the locations of sites of refuge for all inhabitants. It is difficult to provide residents with complete protection from flooding hazards. Many people in Japan live alongside rivers, and Japanese culture has long encompassed wet-rice cultivation. Communities have always lived under the threat of flooding, but the profitability of river water makes it preferable to live close to a river even if flooding occurs at times of heavy rain.