What technology where? Crop and Environmental Sciences Division

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Presentation transcript:

What technology where? Crop and Environmental Sciences Division International Rice Research Institute Los Baños, Philippines

Boundary conditions and settings Nature of water scarcity (“imposed”, natural, physical, economical) Socio-economic setting (price of rice, price of water, water market, water rights, labor availability, gender issues) Technical infrastructure (water control, irrigation system) Organizational infrastructure (water user groups, irrigation association) Policy (water pricing)

Response options to level of water scarcity Crack plowing Compaction Good puddling …….. Flooded lowland Yield ‘Safe’ AWD Diversification (nonrice crops) Aerobic rice Upland Low High Water availability

Technologies to reduce water input Furrow, Flush, Sprinkler Irrigation SSC Soil Management, Reduced water depth DY = f (variety, management) Technologies to reduce water input AWD Lowland rice system Aerobic rice Traditional upland rice Water availability High Low Soil Condition FC S Aerobicc Flooded Yield (t ha-1)

Cross-over point flooded - aerobic

Scale considerations Scale level User Objective Field Farmer Yield, income Small landscape Competing farmers Governor, mayor,.. Competing income Votes, regional production Irrigation system Managers Hydropower, industry, city Recreation Equity, production, $$ $$ Region, province, catchment Governor, mayors,.. Nature Votes, production, $$ $$, $$, $$ Various services Country All the above, competing

Scale considerations Loss from field is not always loss from system Increasing options for water reuse with increasing scale

Integrated approach Zanghe Irrigation System. 160,000 ha mainly rice Other users: Hydropower, city, industry

Responses Double rice => single rice (same total yield, less water Active promotion AWD Farmer organization in water user groups Volumetric water pricing System modernization (water control, canal lining, water measurement) Thousands of ponds for water reuse

Water re-use through reservoirs and on-farm ponds

More rice using less water!

Irrigation command area of 10,000 ha Reservoir with 69 106 m3 capacity When water is scarcer than land, maybe maximize water productivity instead of land productivity (= yield) Suppose: Irrigation command area of 10,000 ha Reservoir with 69 106 m3 capacity Water shortage: only 56 106 m3 available Rice Yield (t ha-1) Water (mm) WPIR Flooded 7.4 0.69 1.06 AWD 6.7 0.37 1.81

Two “response options” Conventional (less area) Area (ha) Water used (106 m3) Production (103 t) Flooded rice 8,000 56 59.2 Fallow 2,000 - AWD Total 10,000 Alternative Area (ha) Water used (106 m3) Production (103 t) Flooded rice 5,680 40 42.0 Fallow - AWD 4,326 16 29.0 Total 10,000 56 71.0

Maximized water productivity Higher total production Increased equity among farmers No land abandonment