FISHERIES and MARINE SERVICE Translation Series No. 4375 An
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Outdoor Club Japan (OCJ) 国際 アウトドア・クラブ・ジャパン Events
Outdoor Club Japan (OCJ) 国際 アウトドア・クラブ・ジャパン Events Norikuradake Super Downhill 10 March Friday to 12 March Monday If you are not satisfied ski & snowboard in ski area. You can skiing from summit. Norikuradake(3026m)is one of hundred best mountain in Japan. This time is good condition of backcountry ski season. Go up to the summit of Norikuradake by walk from the top of last lift(2000m). Climb about 5 hours and down to bottom lift(1500m) about 50 min. (Deta of last time) Transport: Train from Shinjuku to Matsumoto and Taxi from Matsumoto to Norikura-kogen. Return : Bus from Norikura-kogen to Sinshimashima and train to Shinjuku. Meeting Time & Place : 19:30 Shijuku st. platform 5 car no.1 for super Azusa15 Cost : About Yen30000 Train Shinjuku to matsumoto Yen6200(ow) but should buy 4coupon ticket each coupon Yen4190 or You can buy discount ticket shop in town price is similar. (price is non-reserve seat) Taxi about Yen13000 we will share. Return bus Yen1300 and local train Yen680. Inn Yen14000+tax 2 overnight 2 breakfast 1 dinner (no dinner Friday) Japanese room and hot spring! Necessary equipment : Skiers & Telemarkers need a nylon mohair skin. Snowboarders need snowshoes. Crampons(over 8point!) Clothes: Gore-tex jacket and pants, fleece, hut, musk, gloves, sunglasses, headlamp, thermos, lunch, sunscreen If you do not go up to the summit, you can enjoy the ski area and hot springs. 1 day lift pass Yen4000 Limit : 12persons (priority is downhill from summit) In Japanese : 026m)の頂上からの滑降です。 ゲレンデスキーに物足りないスキーヤー、スノーボーダー向き。 山スキーにいいシーズンですが、天気次第なので一応土、日と2日間の時間をとりました。 -
Vol2 Case History English(1-206)
Renewal & Upgrading of Hydropower Plants IEA Hydro Technical Report _______________________________________ Volume 2: Case Histories Report March 2016 IEA Hydropower Agreement: Annex XI AUSTRALIA USA Table of contents㸦Volume 2㸧 ࠙Japanࠚ Jp. 1 : Houri #2 (Miyazaki Prefecture) P 1 㹼 P 5ۑ Jp. 2 : Kikka (Kumamoto Prefecture) P 6 㹼 P 10ۑ Jp. 3 : Hidaka River System (Hokkaido Electric Power Company) P 11 㹼 P 19ۑ Jp. 4 : Kurobe River System (Kansai Electric Power Company) P 20 㹼 P 28ۑ Jp. 5 : Kiso River System (Kansai Electric Power Company) P 29 㹼 P 37ۑ Jp. 6 : Ontake (Kansai Electric Power Company) P 38 㹼 P 46ۑ Jp. 7 : Shin-Kuronagi (Kansai Electric Power Company) P 47 㹼 P 52ۑ Jp. 8 : Okutataragi (Kansai Electric Power Company) P 53 㹼 P 63ۑ Jp. 9 : Okuyoshino / Asahi Dam (Kansai Electric Power Company) P 64 㹼 P 72ۑ Jp.10 : Shin-Takatsuo (Kansai Electric Power Company) P 73 㹼 P 78ۑ Jp.11 : Yamasubaru , Saigo (Kyushu Electric Power Company) P 79 㹼 P 86ۑ Jp.12 : Nishiyoshino #1,#2(Electric Power Development Company) P 87 㹼 P 99ۑ Jp.13 : Shin-Nogawa (Yamagata Prefecture) P100 㹼 P108ۑ Jp.14 : Shiroyama (Kanagawa Prefecture) P109 㹼 P114ۑ Jp.15 : Toyomi (Tohoku Electric Power Company) P115 㹼 P123ۑ Jp.16 : Tsuchimurokawa (Tokyo Electric Power Company) P124㹼 P129ۑ Jp.17 : Nishikinugawa (Tokyo Electric Power Company) P130 㹼 P138ۑ Jp.18 : Minakata (Chubu Electric Power Company) P139 㹼 P145ۑ Jp.19 : Himekawa #2 (Chubu Electric Power Company) P146 㹼 P154ۑ Jp.20 : Oguchi (Hokuriku Electric Power Company) P155 㹼 P164ۑ Jp.21 : Doi (Chugoku Electric Power Company) -
Geography & Climate
Web Japan http://web-japan.org/ GEOGRAPHY AND CLIMATE A country of diverse topography and climate characterized by peninsulas and inlets and Geography offshore islands (like the Goto archipelago and the islands of Tsushima and Iki, which are part of that prefecture). There are also A Pacific Island Country accidented areas of the coast with many Japan is an island country forming an arc in inlets and steep cliffs caused by the the Pacific Ocean to the east of the Asian submersion of part of the former coastline due continent. The land comprises four large to changes in the Earth’s crust. islands named (in decreasing order of size) A warm ocean current known as the Honshu, Hokkaido, Kyushu, and Shikoku, Kuroshio (or Japan Current) flows together with many smaller islands. The northeastward along the southern part of the Pacific Ocean lies to the east while the Sea of Japanese archipelago, and a branch of it, Japan and the East China Sea separate known as the Tsushima Current, flows into Japan from the Asian continent. the Sea of Japan along the west side of the In terms of latitude, Japan coincides country. From the north, a cold current known approximately with the Mediterranean Sea as the Oyashio (or Chishima Current) flows and with the city of Los Angeles in North south along Japan’s east coast, and a branch America. Paris and London have latitudes of it, called the Liman Current, enters the Sea somewhat to the north of the northern tip of of Japan from the north. The mixing of these Hokkaido. -
March 2011 Earthquake, Tsunami and Fukushima Nuclear Accident Impacts on Japanese Agri-Food Sector
Munich Personal RePEc Archive March 2011 earthquake, tsunami and Fukushima nuclear accident impacts on Japanese agri-food sector Bachev, Hrabrin January 2015 Online at https://mpra.ub.uni-muenchen.de/61499/ MPRA Paper No. 61499, posted 21 Jan 2015 14:37 UTC March 2011 earthquake, tsunami and Fukushima nuclear accident impacts on Japanese agri-food sector Hrabrin Bachev1 I. Introduction On March 11, 2011 the strongest recorded in Japan earthquake off the Pacific coast of North-east of the country occurred (also know as Great East Japan Earthquake, 2011 Tohoku earthquake, and the 3.11 Earthquake) which triggered a powerful tsunami and caused a nuclear accident in one of the world’s largest nuclear plant (Fukushima Daichi Nuclear Plant Station). It was the first disaster that included an earthquake, a tsunami, and a nuclear power plant accident. The 2011 disasters have had immense impacts on people life, health and property, social infrastructure and economy, natural and institutional environment, etc. in North-eastern Japan and beyond [Abe, 2014; Al-Badri and Berends, 2013; Biodiversity Center of Japan, 2013; Britannica, 2014; Buesseler, 2014; FNAIC, 2013; Fujita et al., 2012; IAEA, 2011; IBRD, 2012; Kontar et al., 2014; NIRA, 2013; TEPCO, 2012; UNEP, 2012; Vervaeck and Daniell, 2012; Umeda, 2013; WHO, 2013; WWF, 2013]. We have done an assessment of major social, economic and environmental impacts of the triple disaster in another publication [Bachev, 2014]. There have been numerous publications on diverse impacts of the 2011 disasters including on the Japanese agriculture and food sector [Bachev and Ito, 2013; JA-ZENCHU, 2011; Johnson, 2011; Hamada and Ogino, 2012; MAFF, 2012; Koyama, 2013; Sekizawa, 2013; Pushpalal et al., 2013; Liou et al., 2012; Murayama, 2012; MHLW, 2013; Nakanishi and Tanoi, 2013; Oka, 2012; Ujiie, 2012; Yasunaria et al., 2011; Watanabe A., 2011; Watanabe N., 2013]. -
Toyama Bay, Japan
A Case Study Report on Assessment of Eutrophication Status in Toyama Bay, Japan Northwest Pacific Region Environmental Cooperation Center July 2011 Contents 1. Scope of the assessment........................................................................................................................................................... 1 1.1 Objective of the assessment .................................................................................................................................... 1 1.2 Selection of assessment area................................................................................................................................... 1 1.3 Collection of relevant information.......................................................................................................................... 3 1.4 Selection of assessment parameters........................................................................................................................ 4 1.4.1 Assessment categories of Toyama Bay case study ....................................................................................4 1.4.2 Assessment parameters of Toyama Bay case study...................................................................................4 1.5 Setting of sub-areas .................................................................................................................................................. 4 2. Data processing........................................................................................................................................................................ -
Satoyama Landscapes and Their Change in a River Basin Context: Lessons for Sustainability
Issues in Social Science ISSN 2329-521X 2016, Vol. 5, No. 1 Satoyama Landscapes and Their Change in A River Basin context: Lessons for Sustainability Shamik Chakraborty (Corresponding author) Institute for the Advanced Study of Sustainability (IAS), United Nations University 5-53-70 Jingumae, Shibuya-ku, Tokyo, 150-8925, Japan Tel: 81-3-5467-1212 E-mail: [email protected] Abhik Chakraborty Center for Tourism Research, Wakayama University 930 Sakaedani, Wakayama city, Wakayama, 649-8441, Japan Tel: 81-73-456-7025 Email: [email protected] Received: March 10, 2017 Accepted: April 6, 2017 Published: June 14, 2017 doi:10.5296/iss.v5i1.10892 URL: http://dx.doi.org/10.5296/iss.v5i1.10892 Abstract 'Satoyama' denotes a mosaic of different landscape-types that has sustained agrarian societies for millennia in Japan. These landscapes have undergone degradation during the past few decades. While satoyama is a consistently referred term in landscape management in Japan, little attention is given to how such landscapes undergo change in large spatial units such as river basins. This study, based on documents and interviews, reviews how watershed level changes affect the functioning of such socioecological systems in the Kuma River Basin in Kyushu. Watershed properties of the Kuma River Basin changed during pre-modern and modern times and each phase left a lasting legacy on the landscape. The article analyzes how ecological connectivity became fragmented by identifying changes in ecosystem services, and concludes that while socio-ecological landscapes have a long history of human use; the human component cannot outgrow the fundamental biophysical processes that maintain ecosystem services and system resilience; these systems can undergo swift and irreversible degradation when ecological connectivity is fragmented. -
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 -
Challenges of Restoring and Rehabilitating Sewer Systems Damaged by the Great East Japan Earthquake and Tsunami
Journal of JSCE, Vol. 5, 279-297, 2017 Special Topic - Restoration and Recovery from the 2011 Great East Japan Earthquake( Invited Paper) CHALLENGES OF RESTORING AND REHABILITATING SEWER SYSTEMS DAMAGED BY THE GREAT EAST JAPAN EARTHQUAKE AND TSUNAMI Hiroyasu SATOH1 1Member of JSCE, Associate Professor, Graduate School of Frontier Sciences, The University of Tokyo (5-1-5 Kashiwanoha, Kashiwa, Chiba 277-8563, Japan) E-mail: [email protected] This is a review of the restoration and rehabilitation of sewer systems damaged by the Great East Japan Earthquake and Tsunami. The disaster caused serious damage to sewer systems, amounting to approxi- mately 470 billion JPY. The damage was mainly caused by the tsunami, but the damage due to liquefac- tion was also serious. The tectonic activity caused additional discharge loads to municipalities in coastal areas. The nuclear accident at Fukushima Daiichi Nuclear Power Plant also affected sewer systems in such forms as radio-contamination of sewage sludge and reduction of power supplies. In addition, migra- tion of users of sewer systems took place. In the restoration activities, sewage treatment plants (STPs) were restored step-by-step, and guidelines were developed to strengthen STPs against tsunamis. The ef- fectiveness of different countermeasures against earthquakes and liquefaction were examined, and new countermeasures were proposed. Software measures such as the introduction of business continuity plans and information technologies are recognized as effective measures for overcoming disasters. In particular, the sewer systems in Sendai City have been successfully restored and rehabilitated after the disaster, with different hardware and software measures. In contrast, sewer systems in small municipalities seriously damaged by the tsunami are still taking time to rehabilitate. -
The Geobiology and Ecology of Metasequoia
See discussions, stats, and author profiles for this publication at: https://www.researchgate.net/publication/37160841 The Geobiology and Ecology of Metasequoia. Article · January 2005 Source: OAI CITATIONS READS 11 457 3 authors: Ben LePage Christopher J. Williams Pacific Gas and Electric Company Franklin and Marshall College 107 PUBLICATIONS 1,864 CITATIONS 55 PUBLICATIONS 1,463 CITATIONS SEE PROFILE SEE PROFILE Hong Yang Massey University 54 PUBLICATIONS 992 CITATIONS SEE PROFILE Some of the authors of this publication are also working on these related projects: Conifer (Pinaceae and Cupressaceae (Taxodiaceae)) systematics and phylogeny View project All content following this page was uploaded by Ben LePage on 24 September 2014. The user has requested enhancement of the downloaded file. Chapter 1 The Evolution and Biogeographic History of Metasequoia BEN A. LePAGE1, HONG YANG2 and MIDORI MATSUMOTO3 1URS Corporation, 335 Commerce Drive, Suite 300, Fort Washington, Pennsylvania, 19034, USA; 2Department of Science and Technology, Bryant University, 1150 Douglas Pike, Smithfield, Rhode Island, 02917, USA; 3Department of Earth Sciences, Chiba University, Yayoi-cho 133, Inage-ku, Chiba 263, Japan. 1. Introduction .............................................................. 4 2. Taxonomy ............................................................... 6 3. Morphological Stasis and Genetic Variation ................................. 8 4. Distribution of Metasequoia Glyptostroboides ............................... 10 5. Phytogeography ......................................................... -
Source Apportionment of Annual Water Pollution Loads in River Basins by Remote-Sensed Land Cover Classification
water Article Source Apportionment of Annual Water Pollution Loads in River Basins by Remote-Sensed Land Cover Classification Yi Wang 1, Bin He 2,*, Weili Duan 2,*, Weihong Li 1, Pingping Luo 3,4 and Bam H. N. Razafindrabe 5 1 State Key Laboratory of Desert and Oasis Ecology, Xinjiang Institute of Ecology and Geography, Chinese Academy of Sciences, Urumqi 830011, China; [email protected] (Y.W.); [email protected] (W.L.) 2 Key Laboratory of Watershed Geographic Science, Nanjing Institute of Geography and Limnology, Chinese Academy of Sciences, Nanjing 210008, China 3 Key Laboratory of Subsurface Hydrology and Ecological Effects in Arid Region (Chang’an University), Ministry of Education, Xi’an 710064, China; [email protected] 4 School of Environmental Science and Engineering, Chang’an University, Xi’an 710064, China 5 Faculty of Agriculture, University of the Ryukyus, Nishihara, Okinawa 903-0213, Japan; [email protected] * Correspondence: [email protected] (B.H.), [email protected] (W.D.); Tel.: +86-025-8688-2171 (B.H.); +86-025-8688-2173 (W.D.) Academic Editor: Y. Jun Xu Received: 4 April 2016; Accepted: 9 August 2016; Published: 23 August 2016 Abstract: In this study, in order to determine the efficiency of estimating annual water pollution loads from remote-sensed land cover classification and ground-observed hydrological data, an empirical model was investigated. Remote sensing data imagery from National Oceanic and Atmospheric Administration (NOAA) Advanced Very High Resolution Radiometer were applied to an 11 year (1994–2004) water quality dataset for 30 different rivers in Japan. -
FY2017 Results of the Radioactive Material Monitoring in the Water Environment
FY2017 Results of the Radioactive Material Monitoring in the Water Environment March 2019 Ministry of the Environment Contents Outline .......................................................................................................................................................... 5 1) Radioactive cesium ................................................................................................................... 6 (2) Radionuclides other than radioactive cesium .......................................................................... 6 Part 1: National Radioactive Material Monitoring Water Environments throughout Japan (FY2017) ....... 10 1 Objective and Details ........................................................................................................................... 10 1.1 Objective .................................................................................................................................. 10 1.2 Details ...................................................................................................................................... 10 (1) Monitoring locations ............................................................................................................... 10 1) Public water areas ................................................................................................................ 10 2) Groundwater ......................................................................................................................... 10 (2) Targets .................................................................................................................................... -
Quantitative Evaluation of Water and Substances Cycle in the Upper River Basin of Kushiro Mire by Using Swat Model
Proceedings of the 22nd IAHR-APD Congress 2020, Sapporo, Japan QUANTITATIVE EVALUATION OF WATER AND SUBSTANCES CYCLE IN THE UPPER RIVER BASIN OF KUSHIRO MIRE BY USING SWAT MODEL HIROKI OHASHI OYO corporation, Saitama-City, Japan, [email protected] MAKOTO NAKATSUGAWA Muroran Institute of Tecnology, Muroran-City, Japan, [email protected] ABSTRACT The purpose of this paper is to evaluate water and substances (sediment, nitrogen and phosphorus) runoff mechanism quantitatively in Kuchoro River watershed located in the upper river basin of Kushiro mire. We applied SWAT model, which is sufficiently calibrated to this objective area, to understand runoff mechanism of water and substance cycle in 1940 to 2017. Main results of this study are 1) Substances flowed out from not only Pasture area but also highland area because of rapid surface water flow occurrence and 2) development and river straighten in upper watershed would be influenced to the environment of Kushiro Mire. These results will contribute to evaluate water and substances cycle in whole Kushiro mire and to propose efficient countermeasures for preserving the natural environment in Kushiro River. Keywords: Water and substances cycle, SWAT, Nature Restoration, Kushiro mire, Quantification 1. INTRODUCTION For Kushiro Mire, registered in the Ramsar Convention in 1980, the Kushiro Wetland Nature Restoration Committee has been organized to restore and conserve the condition of the mire at the time of Ramsar registration because of its rapid qualitative and quantitative changes in recent years (Kushiro Wetland Nature Restoration Committee, 2005). The most basic and important action for this issue is to understand the mechanism of water and substances cycle in Kushiro Mire.