International Water Management Institute Volume 3 No. 1 May 1999 NEWS As the world wakens to the reality that water is a re source that is finite and be- coming increasingly scarce (see Making real water savings to off- set water scarcity, IWMI News, Vol. 2. No. 2.), science requires better tools to understand and manage it. Three IWMI scientists have developed a promising way to examine water basins more closely and efficiently, thus en- abling better conservation of this precious resource. The concept is called “hydro- nomic zones” (“hydro,” for water, and “nomus,” from the Greek for a system of rules governing a spe- cific field). In March 1999, it was presented at a conference on mea- suring water balance, held at San Luis Obispo, California, USA, by David J. Molden, Research Leader of IWMI’s Performance and Impact Assessment Program; R. Sakthi- vadivel, Senior Scientist; and Jack Keller, an IWMI Fellow. The scien- tists’ framework is designed prima- rily to manage water for irrigation schemes, but it can also be used to understand water for urban, ecological, or other purposes in a basin context. “All terrestrial freshwater use,” note the IWMI scientists, “takes place in a basin context.” But within each basin, different areas or reaches are likely to have quite distinct characteristics. Developing the framework of hydronomic zones represents an effort to deal with these differences. As the IWMI researchers state, water is- Getting to Know Basins Better sues are site-specific and, “water management strategies and means to evaluate performance should be tailored to each zone in a basin. Too often, unfortunately, this is not done and the same water man- agement strategies are employed without consideration to the char- acteristics of each zone.” Molden, Sakthivadivel, and Keller say the zones are character- ized mainly by the nature of return flows—whether the water that leaves the zones comes back, and, if so, in what form and of what quality. Their framework defines five major zones for irrigation management, and two additional zones that are important for nonirrigation use. The zones (see figure), listed as they occur from upstream to downstream in a wa- terway, are: Natural Recapture Zone: This is the area of the basin where runoff water, both surface and subsurface, is naturally recaptured by the main body of water. In up- land areas, even water that is di- verted for irrigation returns by gravity to the river from which it came. Such a system is “self-con- serving,” say the researchers. An example of a Natural Recapture zone is the Nile River Valley in upper Egypt, where irrigation wa- ter returns to the river via seep- age or drainage canals. Regulated Recapture Zone: This area is similar to the Natural Recapture zone, except that the water does not return naturally to the river. Instead, physical link- Workshop on Modernization of Irrigation Systems The management and operation of ir- rigation systems require moderniza- tion to generate an adequate and re- liable service to users. That was the tone of the fifth international meeting of the Information Techniques for Ir- rigation Systems (ITIS) Network, held in October 1998 in Aurangabad, Maharashtra State, India. Sixty profes- sionals—managers, decision makers, and researchers—from around the world participated in the meeting. The network, of which IWMI is a supporter along with Cemagref in France and the FAO, “conducted its meeting with a basic assumption,” reported IWMI’s Daniel Renault, who also serves as ITIS coordinator, “that modernization of irrigation system operations is the key to success in increasing yield and productivity in agriculture, and in enhancing the management of limited natural re- sources such as water.” The participants avoided discus- sions of new hardware and specific techniques as there is a poor record of success of past rehabilitation and modernization in irrigation. They pre- ferred instead, to seek generic and strategic actions that might increase the success of modernization efforts. These included rethinking the opera- tion of irrigation systems within a more global framework; development of rapid evaluation methods for mod- ernization at the project level; imple- mentation of adapted training and capacity building programs; and par- tial replacement of “the monoculture of engineer-builders” in irrigation agencies with “a new culture of engi- neer-managers.” Modernization, agreed the partici- pants, should not be limited to the introduction of new hardware and software, but rather, should be seen “as a fundamental transformation of the management of water resources.” The International Irrigation Management Institute, one of sixteen centers supported by the Consultative Group on International Agricultural Research (CGIAR), was incorporated by an Act of Parliament in Sri Lanka. The Act is currently under amendment to read as International Water Management Institute (IWMI). ages must be built to recapture the water. Sometimes, this can be accomplished by gravity schemes and, sometimes, through pump- ing. An advantage of this zone, say the scientists, is that “the re- use can be managed for quality as well as for quantity control.” “Typically,” write the authors, “Regulated Recapture zones may be found in the upper reaches of river deltas that are adjacent to coastal plains.” An example is the upper three-quarters of Egypt’s Nile Delta. Final Use Zone: The final use zone lies in areas where there is no opportunity for reusing out- flows for human enterprises. Typi- cally, the final use lies at the ter- minal end of basins next to a sea or other salt sink. Outflows may be required to remove pollutants or to maintain environments such as coastal lagoons or estuaries. Stagnation Zones: These in- clude any isolated areas within the Natural Recapture, Regulated Re- capture, or Final Use zones “where the drainage capacity is insuffi- cient for the removal of leached salts and any excess inflow water.” Here, water percolates into groundwater supplies leading to rising water tables, waterlogging, and salinization. Where drainage waters are saline or polluted, they are not readily recoverable. Stag- nation zones may be found in por- tions of Pakistan and northwestern India, which have pockets of sa- line, shallow groundwater. Watershed Zone: In a typical river basin, this zone is the catch- ment where most of the water sup- ply originates. This zone is in- cluded because everyone agrees it is a major component in any water management plan for a river basin. Ecological Zone: This is any area where water flows are man- aged partly or totally for ecologi- cal purposes. In a typical basin, Ecological Zones exist at the end of the river. But, they also may be found in internal lakes and swamps. Special consideration is required in these areas. IWMI’s scientists have proffered additional considerations, all of which contribute to informed man- agement of water basins and their constituent zones. Two conditions in particular, the presence of pol- lution or salinity, and the degree to which groundwater is present, have an important bearing on the development of the water manage- ment strategies for the basin. Equipped with an understand- ing of the diverse zones within a basin, managers and planners can more rapidly understand the basin to create strategies that use the basin’s water resources more effec- tively. For example, in a closing basin [see box] more emphasis should normally be placed on technologies that increase local ef- ficiencies in the Final Use zone, while less emphasis would be placed on these technologies in the Natural Recapture zone. “There is a need to view irrigation in the context of whole river basins” say IWMI researchers. “But basin interactions are very complex. Separating the basin into several hydronomic zones simplifies the understanding of these interactions, and provides a framework for people to consider irrigation and other water uses in a basin context.” For more information on this article, contact David Molden, Research Leader, Performance and Impact Assessment Program, IWMI. Hydronomic zones in a River Basin. “Open” and “Closed” Basins Researchers have classified water basins into three categories—open basins, which produce abundant year-long outflows; closing basins, which have outflows during only part of the year; and closed basins, which discharge no useable water at all because all of their water is already fully committed and used within the basin. IWMI received a glowing review of its role in a small-scale irriga- tion project in Burkina Faso—the farmers involved did not want to see the project end. The review came from the African Development Bank, which supported the project from 1991 to 1997. The Bank rated the project “highly satisfactory,” the highest performance rating. That was certainly the conclusion of many of the growers involved. “Follow-up analyses of farm budgets in the five study areas,” said AfDB, “indicate that farmers, the ultimate beneficiaries of the project, were able to practically double their annual incomes as a result of increased yields and crop diversification, due at least in part to the better water management and agronomic practices introduced by the project. . . .” Furthermore, reported the Bank, the project generated in- creased interest in agriculture, no- tably among young people. It also produced “real interest on the part of the national authorities to make use of project outputs.” One of those outputs was the re- alization that irrigation does not have to carry high costs of invest- ment and maintenance, but rather that when farmers’ needs and the nation’s priorities are carefully considered, “irrigation systems could, in fact, be put in place and operated at lesser cost.” The Bank found that the “highly participative approach” taken by the IWMI project team in studying the needs, identifying the problems, and seeking appro- priate solutions “had a social and psychological impact such that the different national partners, par- ticularly the farmers, were finding IWMI-Burkina Faso Project Praised by AfDB it difficult to accept the end of the project and were hoping for a follow-up phase.” Following the conclusion of this project, the Autorité de Mise en Valeur de la Vallée du Sourou (AMVS)—a large multifunctional organization charged with devel- oping irrigated agriculture in a lo- cation in northwest Burkina Faso with a potential of about 30,000 hectares—has applied the perfor- mance assessment methodology developed by IWMI-Burkina Faso to 5 schemes (ranging in size from 50 to 500 hectares) under its juris- diction. Judging by the conclusions and recommendations of a draft re- port, the AMVS endorses the ap- proach as “being suitable for rou- tine, system-wide application.” AMVS is now expected to develop a full-fledged proposal for setting up a systematic performance moni- toring system in their project area. Donor Support for IWMI Activities IWMI has recently received finan- cial support for several projects that promote greater understand- ing and management of water in a number of Asian and South Asian countries, and in South Africa, and for cultivating knowledge in gender and water issues. The as- sistance comes from a variety of sources, including the Asian De- velopment Bank, Australia, the Ford Foundation, Sweden, and the United Kingdom. The Asian Development Bank is funding an ambitious collabora- tive research project on water management institutions in five developing countries: The People’s Republic of China, Indo- nesia, Nepal, Philippines, and Sri Lanka. The Bank itself will di- rectly contribute US$737,000 to the project, with national agricul- tural research systems in partici- pating countries adding the equivalent of US$513,000, most of it in in-kind contributions. The 3- year project seeks to “improve the management of scarce water sup- plies for agriculture” in the partici- pating nations, “within and re- sponsive to a framework for inte- grated resource management.” IWMI, which is also providing some financial support, is partici- pating in the institutional assess- ments and preparation of action plans in the countries, and will conduct case studies in two in- dustrialized countries to look for techniques that can be transferred to the developing countries. The Australian Centre for Agri- cultural Research (ACIAR) is pro- viding A$148,412 (US$92,096) to the CGIAR’s System-Wide Initia- t ive for Water Management (SWIM), of which IWMI is the lead institution, to seek ways to successfully apply water-saving ir- rigation (WSI) techniques in China. The concept of WSI is not new, but it needs wider use in rice-based systems, especially those in China, where per-capita freshwater availability is declining and water demand is expected to increase by 50 percent in the next 20 years. The project is being un- dertaken in collaboration with the Wuhan University of Hydraulic Engineering and the Zhejiang Ag- ricultural University, China, and IWMI’s sister research institution, the International Rice Research In- stitute of Los Baños, Philippines. The Australian agency is also contributing A$633,199 (US$392,925) for a 3-year project to promote conjunctive manage- ment of water in irrigated areas of South Asia. “Conjunctive water management has not been effec- tive in most parts of the world,” states a project document, “due to lack of appropriate combinations of institutions and management tools.” The document defines such management as “the man- agement of water from all sources within a water basin, such that the net availability of acceptable quality water for irrigation within a water basin is optimized.” The effort will identify combinations of institutions and management tools that can be used together to manage surface and subsurface water in the Rechna Doab in the Punjab, Pakistan, and in the Murrumbidgee Region in Austra- lia. IWMI’s collaborators include the Pakistan Council of Research in Water Resources (PCRWR) and Australia’s Commonwealth Scien- tif ic and Industrial Research Organisation (CSIRO). South Africa’s Northern Prov- ince is one of the country’s driest and poorest. It is also the home of some 14,000 hectares of small- scale irrigation schemes, but pro- ductivity and farmers’ income re- main low. The United Kingdom’s Department for International De- velopment (DFID) is contributing Sterling Pounds 225,000 (US$355,000) toward a 3-year ef- fort to identify practical strategies and useful institutional arrange- ments for “productive, profitable, socially equitable, and sustain- able irrigation systems” in the province and to strengthen local partners’ research capabilities. South Africa’s University of the North is IWMI’s main collaborator. The university has received a grant of R863,500 (US$141,000) for 3 years from the Water Research Commission of South Africa for “Sustainable Management of Smallholder Irrigation,” a project directly related to the DFID-spon- sored study. The province’s women farmers are expected to be among the major beneficiaries. Women and farming constitute the subject of another grant, of US$198,200 from the New Delhi office of the US-based Ford Foun- dation. The 18-month-long project will attempt to remedy what its planners call “the paucity of good research—and competent re- searchers—in the general area of gender and natural resources management, and particularly gender and water.” IWMI will use the support to identify and train researchers, carry out research into gender issues, and communi- cate the results to a wider audi- ence of educators, program man- agers, and policy makers. In support of the wider issues related to gender and poverty, the Swedish International Develop- ment Agency (Sida) has contrib- uted US$260,000 to IWMI’s gen- der, water, and poverty project. The project is designed to in- crease the understanding of the linkages between irrigation, gendered poverty eradication, and land and water productivity; and to support research designed to provide better tools and meth- odologies to help poor women and men participate in the man- agement of their irrigation and water resources systems. Research is being undertaken in India, Mexico, Pakistan, and South Af- rica. Women, particularly female children, are most vulnerable to water-borne diseases and health risks posed by increasing expo- sure to contaminated water. “Their role as laborers in agricul- ture and having primary responsi- bility for domestic chores account for these increased risks” states the project document. IWMI, to- gether with the Center for Drain- age and Water Management, McGill University, Montreal, Canada, is addressing these prob- lems in a joint project designed to bridge the gap that exists be- tween irrigation, and water and sanitation sectors so that future initiatives take into account all uses and users of water. The Ca- nadian International Development Agency (CIDA) is providing Can$150,000 (US$93,080) to sup- port this project being undertaken in the Punjab, Pakistan. The les- sons learned here should be ap- plicable to other South Asian countries. Donor Support for IWMI Activities (Continued..) BOOKSHOP New Research Reports • Bastiaanssen, W. G. M., D. J. Molden, S. Thiruvengadachari, A. A. M. F. R. Smit, L. Mutu- watte, and G. Jayasinghe. 1998. Remote sensing and hydrologic models for per formance assessment in Sirsa Irrigation Circle, India. IWMI Research Report 27. • Sakthivadivel, R., S. Thiruven- gadachari, U. Amarasinghe, W. G. M. Bastiaanssen, and D. Molden. 1999. Per formance evaluation of the Bhakra Irrigation System, India, using remote sensing and GIS techniques. IWMI Research Report 28. • Renault, D. and G. G. A. Godaliyadda. 1999. Generic typology for irrigation systems operation. IWMI Research Report 29. • S. A. Prathapar and Asad S. Qureshi, 1999. Mechanically reclaiming abandoned saline soils: A numerical evaluation. IWMI Research Report 30. Spanish Editions • G. Levine, A. Cruz Galván, D. García, Garcés-Restrepo y S. Johnson III. 1998. Desempeno de dos módulos transferidos en la región Lagunera: Relaciones del agua. IWMI Informe de la Investigación 23. Proceedings • Merrey, D., and S. Baviskar (Eds.). 1998. Gender analysis and reform of irrigation management: Concepts, cases, and gaps in knowledge. SWIM Papers • Daene C. Mc Kinney, Ximing Cai, Mark W. Rosegrant, Claudia Ringler, and Christopher A. Scott. 1999. Modeling water resources management at the basin level: Review and future directions. SWIM Paper 6. • Theib Oweis, Ahmed Hachum, and Jacob Kijne. 1999. Water harvesting and supplementary irrigation for improved water use efficiency in dry areas. SWIM Paper 7. • Bakker, Margaretha, Randolf Barker, Ruth Meinzen-Dick, and Flemming Konradsen. 1999. Multiple uses of water in irrigated areas: A case study from Sri Lanka. SWIM Paper 8. Monograph • Harald D. Frederiksen, and Rodney J. Vissia 1998. Considerations in formulating the transfer of services in the water sector. International Water Management Institute. Colombo, Sri Lanka. Special Issue of Agriculture and Human Values • Agriculture and Human Values: Journal of the Agriculture, Food, and Human Values Society, 15(4). December 1998. This special issue is on the theme, “Choice, complexity, and change: Gendered liveli- hoods and the management of water.” The papers in this collection grew out of a workshop on Gender and Water sponsored by the International Water Manage- ment Institute. Special Issue of the Inter- national Journal of Water Resources Development • International Journal of Water Resources Development, 15(1&2), March/June 1999. Special Double Issue: Research from the International Water Management Institute (IWMI). This issue is devoted to IWMI and contains 12 research papers on IWMI’s research work. The volume reports our work on assessing global water supply and demand and the implications of water scarcity for future water and food security policies; analyses of whole river basins; applica- tions of remote sensing for measuring water consumption and agricultural performance; use of new quantitative techniques for assessing the impacts of interventions; and activities aimed at identi- fying and finding solutions to water problems affecting the quality of life, such as water- related diseases and gender inequities. Journal Articles • Johnson III, S. H., M. Svendsen, and X. Zhang. 1998. Changes in system performance in two Chinese irrigation systems as a result of organizational reforms. Irrigation and Drainage Systems 12(4):289-309. • Kloezen, W. H. 1998. Measuring land and water productivity in a Mexican irrigation district. International Journal of Water Resources Development 14(2):231-247. • Konradsen, F., Y. Matsuno, F. P. Amerasinghe, P. H. Amerasinghe, and W. van der Hoek. 1998. Anopheles culicifacies breeding in Sri Lanka and options for control through water management. Acta Tropica 71:131-138. • Konradsen, F., K. A. Stobberup, S. K. Sharma, O. T. Gulati, and W. van der Hoek. 1998. Irrigation water releases and Anopheles culicifacies abundance in Gujarat, India. Acta Tropica 71:195-197. • Sufi, A. B., M. Latif, and G. V. Skogerboe. 1998. Simulating skimming well techniques for sustainable exploitation of groundwater. Irrigation and Drainage Systems 12(3):203-226. • van der Hoek, W., F. Konradsen, D. S. Dijkstra, P. H. Amerasinghe, and F. P. Amerasinghe. 1998. Risk factors for malaria: A microepide- miological study in a village in Sri Lanka. Transactions of the Royal Society of Tropical Medicine and Hygiene 92:265- 269. • van der Hoek, W., F. Konradsen, D. Perera, P. H. Amerasinghe, and F. P. Amerasinghe. 1997. Correlation between rainfall and malaria in the dry zone of Sri Lanka . Annals of Tropical Medicine and Parasitology 91(8):945-949. • Vermillion, D. L., and D. J. Merrey. 1998. What the 21st century will demand of water management institutions. Journal of Applied Irrigation Science 33(2):165-187. STAFF Douglas Merrey is the new Deputy Director General (Research Programs) at IWMI. Dr. Merrey, who joined IWMI in 1985, holds a Ph.D. in cultural anthropology from the University of Pennsylvania, USA. He has extensive experience in irrigation man- agement issues, much of it in Asia and the Middle East. In addition to his new position, he continues as Leader of the Policy, Institutions, and Management Pro- gram. David Governey is IWMI’s new Deputy Director General (Operations). Before joining IWMI in 1986 as Director of Finance and Administration, he held a simi- lar post at the International Institute of Tropical Agriculture (IITA) in Ibadan, Ni- geria. He is a Fellow of the Institute of Chartered Accountants of Ireland. Yutaka Matsuno has moved from postdoctoral fellow to full member of IWMI’s research staff in Colombo. He received his doctorate in agricultural en- gineering from the University of Idaho, USA, where he conducted computer simulations and research in the transport of dissolved substances in irrigation sys- tems. He joined IWMI in 1996. Ralf Starkloff, Sociologist, joined IWMI in January 1999 as a postdoctoral fel- low, and works on irrigation issues in IWMI Pakistan. Dr. Starkloff has done re- search in Sri Lanka on participatory water supply projects, focusing on the social and environmental factors related to water scarcity in hill-country catchments. Be- fore joining IWMI, he was a Senior Lecturer at the Sabargamuwa University in Sri Lanka. VISITORS Dr. K. R. Sharma, Chief, Re- search and Technology Develop- ment Branch, Kathmandu, Nepal, and Dr. Krishna Prasad, Research Coordinator, IWMI- Nepal, came to IWMI in Co- lombo on 13 January for a 10- day visit. During this time they acquainted themselves with IWMI’s research programs and drafted some project proposals. Dr. Wim Bastiaanssen, an IWMI Fellow working at the In- ternational Institute for Aero- space Survey and Earth Sciences (ITC), the Netherlands, visited IWMI from 19 January to 5 Feb- ruary. During this t ime he worked on remote sensing in Kirindi Oya, and completed a research paper and a project proposal. Dr. Johan Holmberg, Director, Department of Natural Re- sources and the Environment of the Swedish International Devel- opment Corporation Agency (Sida), visited IWMI on 25 Feb- ruary. The visit was arranged to increase the agency’s knowl- edge of the institute’s programs and activit ies. Sida became a new donor to IWMI in 1998. Dr. David Dawe, an Economist from IRRI, visited IWMI for 3 days in March. During this time he worked with IWMI staff on the World Water Council Vision project, due to be presented in the Hague in March 2000. Dr. Mark Svendsen, a Private Consultant from the USA, vis- i ted IWMI in Colombo for 7 days in early April to start writ- ing the final report on the institute’s project in Turkey. He subsequently traveled to IWMI’s office in Izmir, Turkey, to com- plete the report. If irrigation is to help eradicate poverty in the future, there must be a new perspective on society’s exploitation of water available for agricultural use. Take the case of three major poverty groups: urban and rural poor net food buyers; rural poor producers; and rural laborers in irrigation-related occupations. Claims that irrigation development benefited these three groups were valid in recent decades, when rapidly expanding, highly subsidized infrastructure development improved irrigated food production. This in turn lowered and stabilized food prices, which was important for poor net food buyers, who spend as much as 80 percent of their incomes on food. Poor net producers gained, too, if their land happened to fall within the project area, or if land reform policies provided them with newly irrigated plots. And many poor women and men found work indirectly through irrigation—in intensified agriculture, construction, and spin-off employment. But now the irrigation environment has changed drastically. Infrastructure subsidies have declined; the cheapest and most accessible water resources have already been developed; and in a growing number of basins, all the water is committed. Meanwhile, farmers are being urged to diversify their crops and grow high-value foods for the urban elite. What does this mean for the three poverty groups? Poor net food buyers do not consume high-value crops, and thus risk exclusion from the benefits of irrigated agriculture. Profits from new cropping patterns could at least benefit the poor cultivators—if they have and keep access to water as well as expensive inputs. But those who were excluded from access to water in the past, and who lack the means to get it now, may be excluded forever. Poor cultivators who have at least some access are probably the ones who will be forced to bear the burden of required water conservation. The elite cultivators are the most likely group in basin-wide fora to protect the water rights of their schemes as a whole. It is also in the direct interests of the poor users that these negotiations are successful. But within the schemes the elite probably take the scarce water for themselves, gradually forcing the poor out of irrigated agriculture. The rural poor who once found work in irrigation-related occupations will find less, as agencies stop building new infrastructure and larger farm operations become more mechanized. Any future claims, then, of a positive relationship between irrigation and poverty alleviation, let alone eradication, will have to be empirically tested and proven. These issues should be taken into account in a new perspective of water management contributing to poverty eradication in the future. By prioritizing the multiple water needs of poor women and men, protecting their current water rights, and targeting new infrastructure development and other support services to the poor, governments and NGOs can make the critical difference. Barbara Van Koppen, Gender Specialist and Leader of IWMI’s Gender, Poverty and Water Project. CONJECTURES AND REFUTATIONS BOOK REVIEW More jobs per drop: Targeting irrigation to poor women and men. 1998. Barbara van Koppen. The Netherlands: Royal Tropical Institute. “On the one hand, irrigation has important positive effects on the well-being of poor smallholders and landless people while on the other, the exclusion of poor men and especially poor women from owning rights to irrigated land and water is still widespread,” writes Barbara van Koppen in her thesis on the role of external support agencies in irrigation performance. “This limits their control over the benefits and continues deprivation. Governmental and nongovernmental irrigation agencies often reinforce this exclusion.” Barbara van Koppen’s thesis sets out to contribute to better understanding of the links between poverty alleviation, gender issues, and agency approaches to irrigation development. In doing so, she draws instructive comparison between the needs of poor people in rice schemes in different social and cultural settings, and points out how the irrigation agencies can contribute towards poverty alleviation in the rural areas in developing countries. Under many conditions, poor smallholders who are endowed with rights to irrigated land and water, achieve higher land productivity than larger farmers. Similarly, women are often as efficient farm managers as men, provided they have access to productive resoures. “Endowing poor women and men with rights to irrigated land and water,” argues Barbara van Koppen, “will help alleviate poverty and can induce a viable pattern of agricultural growth.” Van Koppen’s arguments are drawn from an extensive literature review and two in-depth case studies she undertook in Bangladesh and Burkina Faso. Her literature review documents the effects of irrigation development on both poverty alleviation and productivity, and traces inclusion and exclusion processes undertaken by irrigation agencies. Those agencies that bear most of the investment costs of infrastructure, or transfer the rights and obligations in these publicly financed schemes to users, are found to have ample opportunity to vest resource rights in poor women and men. “Few agencies use this potential,” writes van Koppen. “Instead, a further skewing of the division of resource rights is widely reported.” The selected case studies provide two contrasting scenarios; the one in Bangladesh supplying targeted support to the poor, and the other in Burkina Faso showing exclusion processes through public irrigation interventions. In spite of the initial project aims in Burkina Faso—which fully recognized women’s role as rice cultivators and future ti t le holders to improved plots—women were categorically excluded, and some men endowed with land rights they traditionally never had. In Bangladesh, where irrigated rice cultivation is predominantly a male activity, the poor were organized into groups by local nongovernment organizations. Support for various activities, including irrigation, was provided to poor people through these groups. Where empowerment of women was the aim of the nongovernment agencies, women have risen to positions where they fully participate in the managerial functions of irrigation enterprises—enterprises that were, traditionally, exclusively managed by males. “This shows,” concludes Barbara van Koppen, “how proper targeting of irrigation support in water development leads to the inclusion of individuals and groups who would otherwise have remained excluded.” Felicity Chancellor, HR Wallingford, UK. P O Box 2075, Colombo, Sri Lanka. Tel (94-1) 867404 • Fax (94-1) 866854 • E-mail iwmi@cgiar.org