A Testimony of the Downstream People
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Flood Risk Assessment in the Nam Mae Kok Basin, Thailand
THE MEKONG RIVER COMMISSION SECRETARIAT Flood Risk Assessment in the Nam Mae Kok basin, Thailand The Flood Management and Mitigation Programme, Component 2: Structural Measures & Flood Proofing in the Lower Mekong Basin December 2009 Draft Final Report, Volume 6A HASKONING NEDERLAND B.V. UNESCO IHE Guide to the reporting structure of the Flood Management and Mitigation Programme - Component 2, Structural Measures and Flood Proofing Component 2 on Structural Measures and Flood Proofing of the Mekong River Commission's Flood Management and Mitigation Programme was implemented from September 2007 till January 2010 under a consultancy services contract between MRCS and Royal Haskoning in association with Deltares and Unesco-IHE. The Implementation was in three Stages, an Inception Phase, and two implementation Stages. During each stage a series of outputs were delivered and discussed with the MRC, the National Mekong Committees and line agencies of the four MRC member countries. A part of Component 2 - on 'Roads and Floods' - was implemented by the Delft Cluster under a separate contract with MRC. The consultancy services contract for Component 2 specifies in general terms that, in addition to a Final Report, four main products are to be delivered. Hence, the reports produced at the end of Component 2 are structured as follows: Volume 1 Final Report Volume 2 Characteristics of Flooding in the Lower Mekong Basin: Volume 2A Hydrological and Flood Hazard in the Lower Mekong Basin; Volume 2B Hydrological and Flood Hazard in Focal Areas; Volume 2C Flood Damages, Benefits and Flood Risk in Focal Areas, and Volume 2D Strategic Directions for Integrated Flood Risk management in Focal Areas. -
Freshwater Snail Diversity in Mae Lao Agricultural Basin (Chiang Rai, Thailand) with a Focus on Larval Trematode Infections
ISSN (Print) 0023-4001 ISSN (Online) 1738-0006 Korean J Parasitol Vol. 56, No. 3: 247-257, June 2018 ▣ ORIGINAL ARTICLE https://doi.org/10.3347/kjp.2018.56.3.247 Freshwater Snail Diversity in Mae Lao Agricultural Basin (Chiang Rai, Thailand) with a Focus on Larval Trematode Infections Kittichai Chantima*, Krittawit Suk-ueng, Mintra Kampan Energy and Environment Program, Faculty of Science and Technology, Chiang Rai Rajabhat University, Chiang Rai 57100, Thailand Abstract: The aim of this study was to conduct a freshwater snail survey in Mae Lao agricultural basin to assess the di- versity with a focus on habitat types and their larval trematode infections. Snails were collected and examined in 14 sites of Mae Lao agricultural basin from August 2016 to October 2017. A total of 1,688 snail individuals were collected and classified into 7 families, 8 genera, and 12 species. Snail diversity and habitat types were higher in rice paddies than irri- gation canals and streams. The most abundant species was Bithynia siamensis siamensis, representing 54.6% of the sample. Three species of snails act as first intermediate host were found with cercarial infections. They were Filopaludina sumatrensis polygramma, B. s. siamensis, and Melanoides tuberculata. The cercariae were categorized into 7 types; echi- nostome, monostome, gymnocephalous, virgulate, parapleurolophocercous, pleurolophocercous and megalurous cer- cariae. Parapleurolophocercous cercariae constituted the most common type of cercariae recovered, contributing 41.2% of all infections in snails. Echinostome metacercariae infections were found in 6 snail species with 7.6% prevalence. In addition, the metacercaria of avian trematode, Thapariella sp. were found in Filopaludina spp. -
ON the HISTORY of CHIANG RAI HANSPENTH ARCHIVE of LAN NA INSCRIPTIONS, SOCIAL RESEARCH INSTITUTE CHIANG Mal UNIVERSITY
ON THE HISTORY OF CHIANG RAI HANSPENTH ARCHIVE OF LAN NA INSCRIPTIONS, SOCIAL RESEARCH INSTITUTE CHIANG MAl UNIVERSITY The historical sources are nearly all agreed that King out the time and throughout its area of distribution, mang has Mang Rai founded Chiang Rai in Culasakkaraja (C.S.) 624, a the meaning of "king" or of "kingdom." year Tao Set. 1 It is therefore probable that Chiang Rai was founded sometime between 27 March 1262 A.D. and 28 March We do not know for how long mang was used in the royal 1263 A.D. 2 house ofthe Thai Yuan, to which PhayaMang Rai belonged. But Most sources do not indicate the day and the month, but it seems that soon after 1300 A.D. mang fell into disuse and was according to a work on the history of Phayao (PA Y.PP.29), the replaced by phaya after a period of transition during which both foundation day was a day 3, month 2, day 15 of the waxing words were used. The Chronicle of Chiang Mai mentions only moon, i.e. day of the full moon, C.S. 624. That corresponds to a two mang: Mang Rai and Mang Khram, his son. Both are also called phayif by the chronicle. But although mang is regularly Tuesday in about October- November 1292 or to a Tuesday two months later, viz. in about December 1262 - January 1263, used for Phaya Mang Rai and sometimes even exclusively depending on whether "month 2" here means the LcL11 Na (dropping the phaya), his son is rarely called Mang Khram; usually he is called Phaya Khram. -
Development and Climate Change in the Mekong Region Case Studies
Development and Climate Change in the Mekong Region Case Studies edited by Chayanis Kri�asudthacheewa Hap Navy Bui Duc Tinh Saykham Voladet Contents i Development and Climate Change in the Mekong Region ii Development and Climate Change in the Mekong Region Stockholm Environment Institute (SEI) SEI is an international non-profit research and policy organization that tackles environment and development challenges. SEI connects science and decision- making to develop solutions for a sustainable future for all. SEI’s approach is highly collaborative: stakeholder involvement is at the heart of our efforts to build capacity, strengthen institutions and equip partners for the long-term. SEI promotes debate and shares knowledge by convening decision-makers, academics and practitioners, and engaging with policy processes, development action and business practice throughout the world. The Asia Centre of SEI, based in Bangkok, focuses on gender and social equity, climate adaptation, reducing disaster risk, water insecurity and integrated water resources management, urbanization, and renewable energy. SEI is an affiliate of Chulalongkorn University, Thailand. SUMERNET Launched in 2005, the Sustainable Mekong Research Network (SUMERNET) brings together a network of research partners working on sustainable development in the countries of the Mekong Region: Cambodia, China, Lao PDR, Myanmar, Thailand and Vietnam. The network aims to bridge science and policy in the Mekong Region and pursues an evolving agenda in response to environmental issues that arise in the region. In the present phase of its program (2019–27), SUMERNET 4 All, the network is focusing on reducing water insecurity for all, in particular for the poor, marginalized and socially vulnerable groups of women and men in the Mekong Region. -
Floodplain Deposits, Channel Changes and Riverbank Stratigraphy of the Mekong River Area at the 14Th-Century City of Chiang Saen, Northern Thailand
Boise State University ScholarWorks Geosciences Faculty Publications and Presentations Department of Geosciences 10-15-2008 Floodplain Deposits, Channel Changes and Riverbank Stratigraphy of the Mekong River Area at the 14th-Century City of Chiang Saen, Northern Thailand. Spencer H. Wood Boise State University Alan D. Ziegler University of Hawaii Manoa Tharaporn Bundarnsin Chiang Mai University This is an author-produced, peer-reviewed version of this article. © 2009, Elsevier. Licensed under the Creative Commons Attribution- NonCommercial-NoDerivatives 4.0 International License (https://creativecommons.org/licenses/by-nc-nd/4.0/). The final, definitive version of this document can be found online at Geomorphology, doi: 10.1016/j.geomorph.2007.04.030 Published article: Wood, S.H., Ziegler, A.D., and Bundarnsin, T., 2008. Floodplain deposits, channel changes and riverbank stratigraphy of the Mekong River area at the 14th-Century city of Chiang Saen, Northern Thailand. Geomorphology, 101, 510-523. doi:10.1016/j.geomorph.2007.04.030. Floodplain deposits, channel changes and riverbank stratigraphy of the Mekong River area at the 14th-Century city of Chiang Saen, Northern Thailand. Spencer. H. Wood a,*, Alan D. Zieglerb, Tharaporn Bundarnsinc a Department Geosciences, Boise State University, Boise, Idaho 83725, USA b Geography Department, University of Hawaii Manoa, Honolulu, HI 96822 USA c Dept. Geological Sciences, Chiang Mai University, Chiang Mai, Thailand 50200 *Corresponding author. E-mail address: [email protected] Abstract the active strike-slip Mae Chan fault has formed Riverbank stratigraphy and paleochannel the upstream 2-5-km wide floodplain at Chiang patterns of the Mekong River at Chiang Saen Saen, and downstream has diverted the river into provide a geoarchaeological framework to a broad S-shaped loop in the otherwise straight explore for evidence of Neolithic, Bronze-age, course of the river. -
Methane Emissions from Large Dams As Renewable Energy Resources: a Developing Nation Perspective
Mitig Adapt Strat Glob Change (2008) 13:193–206 DOI 10.1007/s11027-007-9086-5 ORIGINAL PAPER Methane Emissions from Large Dams as Renewable Energy Resources: A Developing Nation Perspective Ivan B. T. Lima Æ Fernando M. Ramos Æ Luis A. W. Bambace Æ Reinaldo R. Rosa Received: 14 November 2006 / Accepted: 5 February 2007 / Published online: 2 March 2007 Ó Springer Science+Business Media B.V. 2007 Abstract By means of a theoretical model, bootstrap resampling and data provided by the International Commission On Large Dams (ICOLD (2003) World register of dams. http://www.icold-cigb.org) we found that global large dams might annually release about 104 ± 7.2 Tg CH4 to the atmosphere through reservoir surfaces, tur- bines and spillways. Engineering technologies can be implemented to avoid these emissions, and to recover the non-emitted CH4 for power generation. The imme- diate benefit of recovering non-emitted CH4 from large dams for renewable energy production is the mitigation of anthropogenic impacts like the construction of new large dams, the actual CH4 emissions from large dams, and the use of unsustainable fossil fuels and natural gas reserves. Under the Clean Development Mechanism of the Kyoto Protocol, such technologies can be recognized as promising alternatives for human adaptations to climate change concerning sustainable power generation, particularly in developing nations owning a considerable number of large dams. In view of novel technologies to extract CH4 from large dams, we estimate that roughly 23 ± 2.6, 2.6 ± 0.2 and 32 ± 5.1 Tg CH4 could be used as an environmentally sound option for power generation in Brazil, China and India, respectively. -
Mekong Watch Japan
3F AOKI Bldg., 1-12-11 Taito Taito-ku, Tokyo 110-0016, Japan Mekong Watch Tel: +81-3-3832-5034, Fax: +81 -3-3832-5039 E-mail: [email protected] Website: http://www.mekongwatch.org Mekong Watch Fact Sheet Rasi Salai Dami Project Name: Rasi Salai Weir(Rasi Salai Dam) Location: Rasi Salai District, Srisaket Province Project Outline The Rasi Salai Dam was completed in 1993 in the middle Mun River Basin for irrigation purposes. As a part of the Kong-Chi-Mun Water Diversion Projectii, the dam was built under the direction of the Department of Power Development and Promotion (DPDP), Ministry of Sciences, Technology and Environment, Thailand. It is currently operated by the Royal Irrigation Department of Thailand. Project Costs The original budget for construction was 140 million bahts, but the cost has risen by a factor of more than six to 871 million bahts. In addition, unforeseen compensation payments continue to be made. The Rasi Salai Dam Environmental and Social Impacts of the Dam The area around the dam construction site has distinctive environmental conditions under the influence of the monsoon, being highly arid for half of the year during the dry season, while during the rainy season, it is undergoes flooding for three months, with about 600 km2 of wetlands and inundated forest. The villagers call it Pa Bun Pa Tham, and use it for farming, fishing, pasturage and gathering of wild plants and animals. In ancient times the area was a part of a sea, and has a vast underground layer of salt deposits. The people here have long engaged in salt production, gathering the salt that seeps up from these deposits underground. -
Call for Applications Regional Manager South Asia
CALL FOR APPLICATIONS REGIONAL MANAGER SOUTH ASIA Effective: October 2020 ROLE PURPOSE International Rivers works to protect rivers and the rights of communities that depend on them. Working with an international network of dam-affected people, grassroots organizations, environmentalists, human rights advocates and others who are committed to stopping destructive river projects and promoting better options; International Rivers has expertise in big dams, energy and water policy, climate change, and international financial institutions. We support partner organizations and dam-affected people by providing advice, training and technical assistance, and advocating on their behalf with governments, banks, companies and international agencies. International Rivers is looking for an experienced, skilled, dynamic Program Manager for our South Asia and global campaigns. The preferred location of this full-time position is Delhi, Mumbai, Guwahati or Kolkata, but other locations in South Asia will be considered. The Program Manager will work with partner organizations in South Asia and other parts of the world, and with colleagues in our California and regional offices in South East Asia, South America and Africa. Job responsibilities include domestic and international travel. The position will report to the International Rivers Director of Programs. This position is full-time and offered on a consulting basis. [Upon completion of the one-year term, International Rivers may make a permanent offer.] ROLE DIMENSIONS Status: 1.0 FTE Location: Delhi, -
Warming the Earth Hydropower Threatens Efforts to Curb Climate Change
WARMING THE EARTH HYDROPOWER THREATENS EFFORTS TO CURB CLIMATE CHANGE The Petit Saut reservoir floods a French Guyana forest, emitting greenhouse gases. Caption: Jacky Brunetaud he hydropower industry is eager to promote dams as “climate-friendly” alternatives to Tfossil fuel plants, hoping to benefit from subsidies intended to curb global warming. But, growing evidence suggests that dams and reservoirs are globally significant sources of the greenhouse gases carbon dioxide and, in particular, methane. Scientists have studied more than 30 reservoirs, and The science of quantifying reservoir emissions is still found emissions at all of them. In tropical countries, young, however, and filled with uncertainties which several of the hydropower plants studied appear to have are the subject of a heated scientific – and political – a much greater impact on global warming than natural debate. The controversies include determining the gas plants generating equivalent amounts of electricity. best methods for measuring emissions from reservoir While the global warming impact of hydropower out- surfaces, how to account for sources and sinks of side the tropics does appear to be significantly lower gases in the watershed before a dam was built, the than that of fossil fuel-generated electricity, it is not magnitude of emissions generated when water is dis- negligible as has commonly been assumed. charged from the dam, and how to compare hydropower emissions with those from fossil fuels. HOW EMISSIONS ARE PRODUCED Gross reservoir emissions are those measured directly Reservoirs emit greenhouse gases because of the rot- at the reservoir surface and dam. But the actual ting of organic matter – the vegetation and soils impact of a dam on the global climate depends on net flooded when the reservoir is created, the plants that emissions. -
Chiang Rai Information
Chiang Rai Information Chiang Rai Information Introduction Chiang Rai province covers some 11,678 square kilometres with a population of 1.23 million at an average elevation of 580 metres above sea level, is bordered by Myanmar to the north, and Laos to the north and northeast. The provincial capital is 785 kilometres north of Bangkok. Chiang Rai was founded in 1262 by King Mengrai and was the first capital of Lanna Thai (Kingdom of a Million Ricefields). The province contains Thailand's northernmost point at Mae Sai, is well known for its crisp mountain scenery, and hilltribes, and falls within the region known as the Golden Triangle, the area where the borders of Thailand, Myanmar and Laos converge. Attractions CITY ATTRACTIONS King Mengrai the Great Monument This is located on the city outskirts, beside the northern road to Mae Chan, and honours the monarch who founded Chiang Rai in 1262. Ku Phra Chao Meng Rai Situated in Wat Ngam Muang, on Ngam Muang Hillock, this stupa contains King Mengrai's ashes and relics. Wat Phra That Doi Chom Thong This ancient hilltop pagoda overlooks the Mae Kok River and predateds the founding of Chiang Rai as the capital of Lanna Thai. Wat Phra Sing This temple, on Singhakhlai Road, is a fine example of Lanna Thai religious architecture. The Phra Buddha Sihing image now housed in Chiang Mai's Wat Phra Sing was formerly enshrined here. Wat Phra Kaeo Located benind Wat Phra Sing, this temple is said to have been the original place where the Emerald Buddha now enshrined in Bangkok's Wat Phra Kaeo (Chapel of the Emerald Buddha) was enshrined. -
Understanding the Climate Risks to Rivers And
Fishing boats on the Sesan River in Cambodia. The Understanding the Climate river’s fishery has seen dramatic losses as a Risks to Rivers and result of dam construction. Photo: Communities International Rivers he impacts of climate change on freshwater ecosystems will be complex and diffi- Tcult to predict. These impacts will lead to changes in the quantity, quality, and timing of river flows. Some of these changes are already having major effects on freshwater ecosystems around the world, including: 6 Q Shifts from snow to rainfall, and changes in the timing of snowpack melting Q Alteration of surface runoff and groundwater recharge patterns Q Shifts in the timing of floods and freshwater pulses, and more frequent and intense floods 10 | INTERNATIONAL RIVERS CIVIL SOCIETY GUIDE TO HEALTHY RIVERS AND CLIMATE RESILIENCE Q Increased evaporation, especially from shallow PRECIPITATION AND TEMPERATURE water bodies and reservoirs The effects of climate change on rivers POPULATION IN are already becoming apparent as major WATER-STRESSED Q Saltwater intrusion in coastal and delta areas changes in river discharge now affect RIVER BASINS from rising sea levels watersheds around the world. Increasing Based on temperatures will mean that globally, climate-change Q More intense runoff events, which can lead to predicitons more precipitation will fall as rain rather increased sediment and pollution loads 1995 & 2050 5 billion than snow (though the amount will vary projected Q Increased extremes in water temperatures geographically and temporally). Areas that have substantially higher rainfall or Q More intense and/or frequent droughts that will have more intense storms will experience more flooding, especially in For a comprehensive table of expected and existing areas with fewer riparian wetlands and impacts, see Appendix 2: Climate Change Impacts on forests along rivers, both of which act to Rivers and Species. -
IWRM in International River Basins
Faculty of Natural Resources and Agricultural Sciences IWRM in international river basins Hydropower dams and transboundary water conflicts in the Lower Salween river basin Florian Zeitler Uppsala 2013 Department of Water and Environment IWRM in international basins Florian Zeitler Supervisor: Dr. Stephan Köhler (SLU) Assistant Supervisor: Dr. Ashok Swain (UU) Examiner: Dr. Emil Sandström (SLU) Credits: 30 CP Level: Advanced E Course title: Independent Project in Environmental Science Course code: EX0431 Programme/education: Integrated Water Resource Management (MSc.) Place of publication: Uppsala Year of publication: 2013 Cover picture: The Lower Salween in Mae San Laap (source: Florian Zeitler) Online publication: http://stud.epsilon.slu.se Keywords: IWRM, Transboundary, Water Conflict, Hydropower, Salween River, Myanmar, Thailand, China Sveriges lantbruksuniversitet Swedish University of Agricultural Sciences Faculty of Natural Resources and Agricultural Sciences Department of Water and Environment Abstract Sharing a river's potential in terms of hydropower is a common way in transboundary river basins, especially in regions with rising energy demands. However, new strategies in river and basin management are necessary to sustainably benefit from water resources. Implementing IWRM concepts in the national policy is a standard process; the challenges are internationally shared basins. This study investigates the Salween River Basin in South East Asia, a transboundary basin shared by China, Burma and Thailand. The respective governments developed plans to use the Salween's hydropower potential and construct a dam cascade in the downstream part of the river. However, all three countries have different interests and IWRM implementation statuses in the projects due to different backgrounds and national developments. A status analysis of the basin concluded that China has mainly unilateral interests in the hydropower projects and no IWRM experience.