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OPTIMA INCO-MPC Third Management Board Meeting , May 18/19 2008 Gumpoldskirchen. DDr. Kurt Fedra Environmental Software & Services GmbH A-2352 Gumpoldskirchen Austria [email protected] http://www.ess.co.at. Baseline targets:. WRM performance targets: - PowerPoint PPT Presentation
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OPTIMA INCO-MPCOPTIMA INCO-MPCThird Management Third Management
Board MeetingBoard Meeting,,May 18/19 2008May 18/19 2008 GumpoldskirchenGumpoldskirchen
OPTIMA INCO-MPCOPTIMA INCO-MPCThird Management Third Management
Board MeetingBoard Meeting,,May 18/19 2008May 18/19 2008 GumpoldskirchenGumpoldskirchen
DDr. Kurt Fedra Environmental Software & Services GmbH
A-2352 Gumpoldskirchen Austria [email protected] http://www.ess.co.at DDr. Kurt Fedra Environmental Software & Services GmbH
A-2352 Gumpoldskirchen Austria [email protected] http://www.ess.co.at
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Baseline targets:Baseline targets:Baseline targets:Baseline targets:
• WRM performance targets:– Complete and reasonable scenario– Total outflow +/- 25% observations– Daily flow at least for ONE station close to end
node */ 2
– Basic economic assessment (basis for optimization and comparison )
• STREAM performance targets:– DO/BOD within reasonable ranges – any WQ
observation data ?– WQ related economics under development
• WRM performance targets:– Complete and reasonable scenario– Total outflow +/- 25% observations– Daily flow at least for ONE station close to end
node */ 2
– Basic economic assessment (basis for optimization and comparison )
• STREAM performance targets:– DO/BOD within reasonable ranges – any WQ
observation data ?– WQ related economics under development
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Case studies: how to proceedCase studies: how to proceed
By PM 18 (December 2005):
• Baselines ready for each case
• Basic economic assessment
• Basic water technologies ready to link, on-line data base
• Optimization framework agreed:– Criteria, objectives, constraints
By PM 18 (December 2005):
• Baselines ready for each case
• Basic economic assessment
• Basic water technologies ready to link, on-line data base
• Optimization framework agreed:– Criteria, objectives, constraints
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Work Plan (simple version)Work Plan (simple version)
WP 07 Cyprus + + -WP 08 Turkey + + +WP 09 Lebanon + - -
WP 10 Jordan + - -WP 11 Palestine/Israel + - -WP 12 Tunisia + - -WP 13 Morocco + - -
WP 07 Cyprus + + -WP 08 Turkey + + +WP 09 Lebanon + - -
WP 10 Jordan + - -WP 11 Palestine/Israel + - -WP 12 Tunisia + - -WP 13 Morocco + - -
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Case studies: how to proceedCase studies: how to proceed
Optimization framework:
• Basic economics – TR, CY, ?• Objectives, constraints:
• Instruments, water technologies:
New questionnaires ?
INSTRUMENTS, CONSTRAINTS
Optimization framework:
• Basic economics – TR, CY, ?• Objectives, constraints:
• Instruments, water technologies:
New questionnaires ?
INSTRUMENTS, CONSTRAINTS
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Model use targets:Model use targets:Model use targets:Model use targets:
WRM performance targets:
• Complete and reasonable scenarios includes groundwater links, realistic reservoir data
• Provide observation data for CONTROL NODES, add control nodes for all monitoring stations -> compliance, flood damages
• Basic economic assessment
WRM performance targets:
• Complete and reasonable scenarios includes groundwater links, realistic reservoir data
• Provide observation data for CONTROL NODES, add control nodes for all monitoring stations -> compliance, flood damages
• Basic economic assessment
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ECONOMICS:ECONOMICS:ECONOMICS:ECONOMICS:
Direct Costs:
• Capital and OMR for start nodes, reservoirs, diversions.
Direct Benefits:
• demands satisfied for demand nodes
Direct Costs:
• Capital and OMR for start nodes, reservoirs, diversions.
Direct Benefits:
• demands satisfied for demand nodes
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ECONOMICS:ECONOMICS:ECONOMICS:ECONOMICS:
Indirect Costs:
• shortfall at demand nodes
• penalties at control nodes
• flood damages
Indirect benefits:
• compliance at control nodes
Indirect Costs:
• shortfall at demand nodes
• penalties at control nodes
• flood damages
Indirect benefits:
• compliance at control nodes
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ECONOMICS:ECONOMICS:ECONOMICS:ECONOMICS:
Under development for QUALITY:• Cost of treatment (capital, OMR)
• Cost of waste water reduction (at demand nodes, capital and OMR)
• Penalties for standard violations (control)
• Use benefits for clean water (demand)
• Compliance benefits (control nodes)
• Use benefits (reaches, e.g., recreational)
Under development for QUALITY:• Cost of treatment (capital, OMR)
• Cost of waste water reduction (at demand nodes, capital and OMR)
• Penalties for standard violations (control)
• Use benefits for clean water (demand)
• Compliance benefits (control nodes)
• Use benefits (reaches, e.g., recreational)
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OPTIMISATION:OPTIMISATION:OPTIMISATION:OPTIMISATION:
CONSTRAINTS:
• Global constraints
• Node specific constraints
• Sectoral (not implemented)
directly derived from model results:
CONSTRAINTS:
• Global constraints
• Node specific constraints
• Sectoral (not implemented)
directly derived from model results:
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CONSTRAINTS:CONSTRAINTS:CONSTRAINTS:CONSTRAINTS:
CONCEPTVALUE
Overall Supply / Demand ratio >
Reliability of supply % >
Unallocated water m3/s <
Shortfall m3/s <
Content change/decrease % <
CONCEPTVALUE
Overall Supply / Demand ratio >
Reliability of supply % >
Unallocated water m3/s <
Shortfall m3/s <
Content change/decrease % <
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CONSTRAINTS:CONSTRAINTS:CONSTRAINTS:CONSTRAINTS:Total Cost (combined) Total Benefit (combined)
Total Cost (direct) Total Benefit (direct)
Cost/Benefit ratio (comb.) Benefit/Cost ratio (comb.)
Cost/Benefit ratio (direct) Benefit/Cost ratio (direct)
Water Cost (combined) Economic Efficiency (comb.)
Water Cost (direct) Economic Efficiency (direct)
Net Benefit (combined)
Net Benefit (direct)
And any number of combinations, ratios, node specific, sectoral values, etc.
Total Cost (combined) Total Benefit (combined)
Total Cost (direct) Total Benefit (direct)
Cost/Benefit ratio (comb.) Benefit/Cost ratio (comb.)
Cost/Benefit ratio (direct) Benefit/Cost ratio (direct)
Water Cost (combined) Economic Efficiency (comb.)
Water Cost (direct) Economic Efficiency (direct)
Net Benefit (combined)
Net Benefit (direct)
And any number of combinations, ratios, node specific, sectoral values, etc.
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OPTIMISATION:OPTIMISATION:OPTIMISATION:OPTIMISATION:
1. Technologies are applied to NODES.
2. Each technology affects some model parameters (demand, efficiency/losses) for the different node types at a cost.
3. Benefits accrue from water supplied.
4. Optimization approach: Satisficing• First round: Model selects the combinations
of technologies that meets all constraints
1. Technologies are applied to NODES.
2. Each technology affects some model parameters (demand, efficiency/losses) for the different node types at a cost.
3. Benefits accrue from water supplied.
4. Optimization approach: Satisficing• First round: Model selects the combinations
of technologies that meets all constraints
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TECHNOLOGIES:TECHNOLOGIES:TECHNOLOGIES:TECHNOLOGIES:
Are NOT restricted to technology in a narrow sense, can include policies and institutional change that do affect supply, allocation, demand, efficiency, quality
FOR example: – Pricing/subsidies affects demand– Market (privatization) affects allocation– Enforcement (regulatory change) affects
quality and efficiency
Are NOT restricted to technology in a narrow sense, can include policies and institutional change that do affect supply, allocation, demand, efficiency, quality
FOR example: – Pricing/subsidies affects demand– Market (privatization) affects allocation– Enforcement (regulatory change) affects
quality and efficiency
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Water TechnologiesWater TechnologiesWater TechnologiesWater Technologies• Name, META DATA• Description (unstructured, hypertext HTML, types)
• Application domain• allocation, supply, structures, quality
• Investment (annualized):• unit cost, reference unit for scaling
• Operation (annual):• OMR unit cost, reference unit for scaling
• Effects multiplier for:• Demand, consumptive use, distributions losses
/MANUALS/WATERWARE/watertechnologies.html
• Name, META DATA• Description (unstructured, hypertext HTML, types)
• Application domain• allocation, supply, structures, quality
• Investment (annualized):• unit cost, reference unit for scaling
• Operation (annual):• OMR unit cost, reference unit for scaling
• Effects multiplier for:• Demand, consumptive use, distributions losses
/MANUALS/WATERWARE/watertechnologies.html