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(1)

Indus Basin Knowledge Forum, June 2018

MESSAGE-basin

Model applied to

Indus

(2)

Overview

• Contestualization

• MESSAGEix

• MESSAGE-basin

• Progress

• Next steps

(3)

Develop new nexus tool to identify sustainable development pathways at the river basin-scale

• Balances human development and environmental objectives

• Integrates water and energy infrastructure planning

• Incorporates key global change processes in the assessment of resource availability

• Interacts with global tools used to provide international market and policy guidance

• Incorporates key regional and local indicators from stakeholders

• Addresses issues and provides results for the whole basin

Research Objectives

(4)

Prioritized nexus challenges for the Indus basin assessment

Water and land

• Complex canal and irrigation system

• Groundwater depletion and water storage

• Lack of wastewater treatment

• Burning of crops leads to air pollution

• Very little flow reaches the sea

Energy systems

• Electricity can be unreliable

• Electricity can be too cheap

• Air pollution and GHGs increasing

• Hydropower generation

Livelihoods

• Transformations and employment impacts

Laghari and others (2012)

(5)

MESSAGEix framework

Why using the MESSAGEix framework?

• Well consolidated

• Open source: sharing, capacity building

• Online IIASA scenario database

• Prerequisites for transferability

Possible future opportunities

1. Application of the model to other basins 2. Multi-basin analysis

3. Nesting basin model with the MESSAGEix global model

(6)

MESSAGEix: basic concepts

Technology 1

Technology 2

C om m odity 1.lev el 1 C om m odit y 2. lev el 1 C om m odit y 2. lev el 2

Resource extraction/

availability

Demand

Optimization variables

associated to each technology:

CAPACITY ACTIVITY

Investment cost Fixed and variable costs

Linear optimization model

• minimization the total system costs

Commodity balance with demand

(7)

MESSAGE-basin: Indus

An integrated tool for nexus analysis

Key features

• Focus on medium- to long-term technological pathways

• Optimization of technology size (capacity), location and inter- linkages between technologies

• Technology output optimized to meet varying demands and resource constraints through time

• Computes economic and environmental impacts of technologies and policies

Novelties of MESSAGE-basin

1. Co-optimization of water and energy technologies

2. Linkage to land-use and hydrological modeling

3. Flexible approach for application in other regions

(8)

Multi-scale assessment of pathways

Indus River Basin

Reduced-form River network

Outlet to sea

MESSAGE-GLOBIOM IAM

International trade

Climate policies and impacts Socioeconomic pathways

Global transformations 11 Regions

NAM

LAM

MEA

SSA WEU

EEU

FSU

CPA

PAO PAS

SAS

MESSAGE-Indus Integrated water-energy systems modeling

Optimal system transformations under combined policy objectives

MESSAGE-basin

GLOBIOM

CWatM Technology and

Policy Database

Water Availability Irrigation Pathways

(9)

freshwater.retrun_flow

urban_sw_diversi urban_gw_diversion

on

rural_sw_diversio rural_gw_diversion

n

irrigation_sw_dive rsion irrigation_gw_dive

rsion

urban_piped_distr ibution urban_unpiped_di

stribution

rural_piped_distri bution rural_unpiped_dis

tribution

irrigation_drip irrigation_sprinkle

irrigation_floodr urban_wastewate

r_collection urban_wastewate

r_release

rural_wastewater _collection rural_wastewater

_release urban_return_flo

w

rural_return_flow internal_runoff

groundwater river_flow (from

upstream)

river_flow (to downstream)

Irrigation_desal

urban_wastewate r_treatment urban_wastewate

r_recycling rural_wastewate

r_treatment rural_wastewate

r_recycling rural_desal

urban_desal

urban_withdrawal

rural_withdrawal

irrigation_withdraw al

conveyance (to downstream) conveyance (from

upstream)

Fixed Demand Resource Extraction Technology

Legend

sea

energy sector freshwater techs

energy sector seawater techs

spill

freshwater.rural_secondary freshwater.rural_final freshwater.irrigation_final freshwater.irrigation_field

wastewater.urban_secondary wastewater.rural_secondary wastewater.urban_final wastewater.rural_final

freshwater.river freshwater.aquifer salinewater.sea

Water sector

freshwater.urban_secondary freshwater.urban_final

(10)

freshwater.retrun_flow

urban_sw_diversi urban_gw_diversion

on

rural_sw_diversio rural_gw_diversion

n

irrigation_sw_dive rsion irrigation_gw_dive

rsion

urban_piped_distr ibution urban_unpiped_di

stribution

rural_piped_distri bution rural_unpiped_dis

tribution

irrigation_drip irrigation_sprinkle

irrigation_floodr urban_wastewate

r_collection urban_wastewate

r_release

rural_wastewater _collection rural_wastewater

_release urban_return_flo

w

rural_return_flow internal_runoff

groundwater river_flow (from

upstream)

river_flow (to downstream)

Irrigation_desal

urban_wastewate r_treatment urban_wastewate

r_recycling rural_wastewate

r_treatment rural_wastewate

r_recycling rural_desal

urban_desal

urban_withdrawal

rural_withdrawal

irrigation_withdraw al

conveyance (to downstream) conveyance (from

upstream)

gas_cl_freshwater

gas_ot_freshwater

gas_ot_seawater gas_air_cooling

Coal: different cooling technologies Oil: different

cooling technologies

hydropower

Nuclear: different cooling technologies Geothermal:

different cooling technologies

solar_pv Fixed Demand wind

Resource Extraction Technology commodity.level

Legend

water flow

urban_elec_demand

rural_elec_demand

industry_elec_dema nd electricity_distributi

on_urban electricity_distributi

on_rural electricity_distributi

on_irrigation electricity_distributi

on_industry sea

energy sector freshwater techs

energy sector seawater techs

spill

water sector urban, rural and

irrigation techs

freshwater.rural_secondary freshwater.rural_final freshwater.irrigation_final freshwater.irrigation_field

wastewater.urban_secondary wastewater.rural_secondary

wastewater.urban_final wastewater.rural_final electricity.ittigation_final

oil.energy_secondary coal.energy_secondary

freshwater.river freshwater.aquifer salinewater.sea gas.energy_secondary electricity.urban_secondary electricity.urban_final electricity.rural_final electricity.industry_final

Water sector

Energy sector

freshwater.urban_secondary freshwater.urban_final

Water

withdrawals for power plants

Electricity for water

technologies Water

discharges from power plants

Under development:

• Irrigation technologies

• different crops,

• food demand/price

irrigation_drip irrigation_sprinkle

r

(11)

Progress to date

Mapping infrastructure, potentials and policies

✓ Power generation (existing and planned)

✓ Transmission and road networks

✓ Groundwater pumping capacity

✓ Wind, PV and hydropower potentials

✓ Urbanization pathways

Installed Hydropower Capacity

✓ Indus water treaty allocations

✓ Reservoirs (existing and planned)

✓ Urban water transfers (e.g., Karachi)

✓ Algorithms for multi-scale mapping

✓ Algorithms for model integration

Installed Transmission Capacity

Groundwater Pumping in 2010 [ billion cubic meters per year ] Wind and PV average capacity factor (based on hourly data)

Urban and rural water withdrawal and electricity demand

(12)

Sustainable Development Pathways

Current

Situation Business as

usual Sustainabilit

y 1

Su stain ab le Future s

Sustainabilit y 2

Sustainabilit y 3

Trade-offs Synergies Solutions

Challenges

In reality, many options….

How to find optimal solutions?

Computational modeling

$$$$

$$

$$$

$

Next steps:

• Gathering structured information

• Define clear pathways

• Translate developed pathways for

modelling

(13)

Next Steps

Finalizing model inputs

• Mapping the irrigation canal system

• Calibrate to most recent data

• Establishing a formal linkage with the global models Capacity building

• Visiting PhD students from the Indus (YSSP Program)

• Provincial planning agencies

• Online platform for sharing model and results

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