Max Campos - Web pages on water

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Transcript Max Campos - Web pages on water

Climate Change and Water Resources Management
WEB pages on water management activities
Max Campos
[email protected]
San Jose – Costa Rica
Global Water Partnership
(GWP)
Toolbox: a summary of case studies around the world about
water management. It is being continuously updated.
World Water Forum
(III WWF)
The largest conference of the world on water management,
next meeting in Japan march 2003.
Dialogue on Water and Climate Change
One of the thematic activities for the IIIer WWF is this
Dialogue.
Activities from UNESCO
World Water Development Report
Models for Water Management and Climate
Change estimations
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software
Tree overview
Schematic view
Demand Results
Demand results cover requirements by and allocations to demand sites. The following reports are available:
Annual Water Demand
The annual requirement at each demand site, before distribution losses, reuse and demand-side management savings are taken into account.
Monthly Supply Requirement
The monthly requirement at each demand site, after distribution losses, reuse and demand-side management savings are taken into account.
Supply Delivered
The amount of water supplied to demand sites, listed either by source (supplies) or by destination (demand sites). When listed by destination, the
amounts reported are the actual amounts reaching the demand sites, after subtracting any transmission losses.
Unmet Demand
The amount of each demand site's requirement that is not met. When some demand sites are not getting full coverage, this report is useful in
understanding the magnitude of the shortage.
Coverage
The percent of each demand site's requirement (adjusting for distribution losses, reuse and demand-side management savings) that is met, from
0% (no water delivered) to 100% (delivery of full requirement). The coverage report gives a quick assessment of how well demands are being met.
Cost of Delivered Water
The cost of delivering water to demand sites, listed either by source (supplies) or by destination (demand sites).
Demand Site Inflow and Outflow
The mass balance of all water entering and leaving one or more demand sites. Inflows (from local and river supplies) are represented as positive
amounts, outflows (either consumed or routed to wastewater treatment plants, rivers and local supplies) as negative amounts.
Supply and Resources Results
Area
Inflows: Water entering the area (river headflows, surface water inflows to reaches, groundwater recharge, local reservoir inflows, other local
supply inflows).
Outflows: Water leaving the area (consumption at demand sites, evaporation on river reaches and reservoirs, losses in transmission links,
losses in wastewater treatment, and outflows from the end of rivers and diversions).
Note: Inflows to area may not equal total outflows from area due to changes in storage.
River
Streamflow: The streamflow at selected nodes and reaches along a river. You can plot a line for each point on the river over time (choose Year
for the X Axis), or a line for each month plotted along the river (choose River Nodes and Reaches for the X Axis).
Flow Requirement Coverage: The percent of each flow requirement that is met, from 0% (no water flowing) to 100% (flow requirement met or
exceeded).
Groundwater
Storage: The aquifer storage levels at the end of each month.
Inflows and Outflows: A mass balance of all water entering and leaving a specified aquifer. Inflows (from recharge, inflow from river reaches,
and return flows from demand sites and wastewater treatment plants) are represented as positive amounts, outflows (withdrawals by demand
sites and outflows to river reaches) as negative amounts.
Overflow: Groundwater overflow occurs when the aquifer storage is at its maximum, and there is net inflow.
Reservoir
Storage: The reservoir storage levels at the end of each month.
Inflows and Outflows: All water entering and leaving a specified reservoir. Inflows (either from upstream (river reservoirs) or monthly inflow
(local reservoirs) or return flows from demand sites and wastewater treatment plants) are represented as positive amounts, outflows (to
downstream, evaporation, or withdrawals by demand sites) as negative amounts.
Hydropower: The power generated by reservoirs and hydropower nodes.
Transmission Link
Inflows and Outflows: Includes amounts lost to evaporation and leakage.
Other Local Supply
Inflows and Outflows: A mass balance of all water entering and leaving a specified other local supply source. Inflows are represented as
positive amounts, outflows as negative amounts.
Return Link
Inflows and Outflows: Includes amounts lost to evaporation and leakage.
Environment Results
Environment results cover pollution generation by demand sites, pollution loads at receptors, and wastewater treatment.
Pollution Generation
Pollution generated by each demand site.
Pollution Loads
Pollutant loads carried by return flow links from demand sites and wastewater treatments (sources) into rivers and local supplies
(receptors).
Pollution Inflow to Treatment Plants
Total pollution flowing in to wastewater treatment plants.
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CENTRAL AMERICAN CLIMATE CHANGE PROJECT
VULNERABILITY OF THE HYDRIC
RESOURCES DUE CLIMATE CHANGE
PROJECT CASE: RIO SUCIO BASIN
EL SALVADOR
CRRH – MAG/DGRNR
Ana Daisy Lopez
OBJECTIVE
• EVALUATION OF
THE
VULNERABILITY
OF RIO SUCIO
BASIN IN EL
SALVADOR, TO
THE IMPACT OF
CLIMATE
CHANGES
RIO SUCIO BASIN
• AREA : 843.0 KM²
• RIO LEMPA SYSTEM : 8.2 %
AREA
• Q M: 20.7 M3/S (RAINY
SEASON)
• Q M: 6.66 M3/S (DRY
SEASON)
• 300,000 HAB
• T° MED: 23.8 °C
• PRECIP: 1688 mm/Year
• IRRIGATION DISTRICTS:
• ZAPOTITAN AND
ATIOCOYO
BASIN INFORMATION
• HYDROMETEOROLOGICAL NETWORK
– 10 METEOROLOGICAL STATIONS
– 1 HYDROLOGICAL STATION
• USES:
– IRRIGATION, HYDROELECTRICITY
– INDUSTRIAL AND WATER SUPPLY
METODOLOGY
SIMULATION OF THE EFFECTS ON RUNOFF OF
CHANGES IN PRECIPITATION AND
TEMPERATURE.
MODEL USED : CLIRUN 3
CALIBRATION PERIOD 1969-1976
VALIDATION PERIOD 1977-1984
CLIMATE SCENARIOS
PACIFIC REGION
SCENARIO
TEMPERATURE
PRECIPITACION
1
+ 2 °C
+ 15 %
2
+ 2 °C
- 15 %
3
+ 1 °C
+ 10 %
4
+ 1 °C
- 15 %
CHANGES IN RUNOFF
SCENARIO
PRECIP
(%)
TEMP
(°C)
DRY
SEASON
WET
SEASON
1
+ 15%
+2
+ 34%
+34 %
2
- 15%
+2
-2 %
-20 %
3
+10%
+1
+30 %
+30 %
4
-10%
+1
-1 %
+14 %
RESULTS
• MORE CRITICAL SCENARIO: +2 °C AND –
15%
• DRY SEASON
• USES COMPROMISED
2001-2002
1999-2000
1997-1998
1995-1996
1993-1994
1989-1990
1986-1987
1984-1985
1982-1983
1980-1981
1978-1979
1976-1977
1974-1975
1972-1973
1970-1971
1968-1969
1966-1967
1964-1965
1962-1963
1960-1961
1958-1959
CAUDAL (m3/s)
HISTORICAL DISCHARGE DATA
RIO PAZ
ESTACION HACHADURA
35
30
25
NOVIEM BRE
20
DICIEM BRE
15
FEBRERO
ENERO
M ARZO
10
ABRIL
5
0
DRY SEASON DECADAL
RIO PAZ ESTACION LA HACHADURA
PROMEDIOS DECADALES DE CAUDAL
CAUDAL (m3/s)
25
20
1960 - 1970
1970 - 1980
15
1980 - 1990
10
1990 - 2000
2000 -
5
0
NOVIEMBRE
DICIEMBRE
ENERO
FEBRERO
MARZO
ABRIL
RIO SAN PEDRO ESTACION ATALAYA
PROMEDIOS DECADALES DE CAUDAL
CAUDAL (m3/s)
2.5
2
1970 - 1980
1.5
1980 - 1990
1990 - 2000
1
2000 0.5
0
NOVIEMBRE
DICIEMBRE
ENERO
FEBRERO
MARZO
ABRIL
DIFERENCIAS PORCENTUALES DEL PERIODO
NOVIEMBRE 2001 - ABRIL 2002 RESPECTO A LA DECADA 1970
- 1980
ZONA CENTRAL
60.00
40.00
CITALA
20.00
PASO DEL OSO
0.00
TACACHICO
LAS PAVAS
-20.00
SAN ANDRES
EL JOCOTE
-40.00
GUAZAPA
-60.00
LA SIERPE
LAS FLORES
-80.00
-100.00
NOV.
DIC.
ENERO
FEBRERO
MARZO
ABRIL