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BEWHERE EXAMINES THE INFLUENCE OF CARBON
TAX ON FUTURE BIOENERGY INVESTMENTS IN
EUROPE
Karthikeyan Natarajan
Researcher
University of Eastern Finland, Joensuu
[email protected]
27th January 2016, Biomass market and policies
Contents
• BeWhere Optimization model
• Case Europe: CHP or biofuel production
• Policy factors – Carbon tax and biofuel support
• Model inputs
• Model Results
• Key conclusions
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Supply Chain (1/2)
Bio-product
transport
Biomass
transport
Production site
Distribution
Harvesting
Where to set up the plant?
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Supply Chain (2/2)
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Research Questions?
1. Which bioenergy technologies for woody biomass are costeffective in reducing CO2 emissions and substituting fossil
fuels?
2.
Which bioenergy policy instruments reach the targets of
reducing CO2 emissions and substituting fossil fuels costeffectively.
3. Which restrictions are imposed on bioenergy utilization by
the spatial structure of biomass supply and energy demand?
4. Which plant locations are suitable and optimal for bioenergy
production?
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MILP : cost minimization problem
• The model minimizes the total cost of the supply chain which is defined as
(Total Cost) = (Supply chain cost) + (supply chain emissions) * (CO2 cost)
• The supply chain cost includes:
–
feedstock cost, collection cost & transportation cost to the production plant
–
production plant: set up & bioenergy production costs,
–
bioenergy transport cost to the gas stations,
–
income from the co-products,
• The supply chain emission include:
–
emissions of fossil CO2 from biomass and biofuel transportation,
–
emissions from additional transport fossil fuel use,
–
offset emissions from replaced fossil transportation fuel, power and heat
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BeWhere
Bioenergy supply chain costs
Biomass supply
CHP
Forest
Biomass
Pellet
Sawmill
Pulp mill
Import
Bioenergy
.harvesting
.forwarding
.chipping
.storage
Biomass
transport
.truck
.train
Production
.investment
.operation &
maintenance
.interest rate
Bioenergy
transport
.truck
.train
Distribution
.fuel station
Model results
1.plant no
2.optimal location
3.Size
Transport network
.Road
origin
Biomass
supply
Bioenergy
production
Energy
demand
destination
5.biomass share
6.biofuel sold
++++++++++++
.Rail
4.biomass area
7.heat sold
origin terminal destination
8.electricity sold
9. minimized costs
a.biomass
Candidate sites
b.transport
.close to biomass supply
.close to energy demand
.pulp & paper industry
.ports
c.production
d.fuel station
Heat Demand
10.bioenergy cost
11.CO2 emissions
12.parameter sensitivity
Energy demand
.transport fuel
.district heating
Parameters
Constraints
Other costs
.biofuel yield
.biomass supply
.production plant
.energy demand
.heat transport
.fossil fuel
.heat price
.electricity price
.heat yield
.electricity yield
.emission factor
13.biofuel blend
14.import & export
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Biomass
potential
Possible
production
plants
Bioenergy
Demand
Parameters
Biomass Cost
Transport cost
Production cost
Excel
Input data reading
Matlab
Optimization
Gams
Results Interpretation
Matlab
Results
Costs
Emissions
Biomass flows
Biomass
Supplied
Production
plants
selected
Excel
Energy
delivered
ArcGis
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Case Europe: CHP or biofuel production?
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Objective
To investigate the opportunity to invest into CHP or biofuel
production plants under varying
• CO2 costs
• biofuel support
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What is CO2 costs or Carbon tax ?
• A tax levied on carbon emissions from coal, oil and natural gas (A
fee for greenhouse gas pollution).
• Cost is calculated per ton on carbon translated it into a tax for fossil
fuels. (Polluter pays!)
• Carbon tax encourage alternative energy and reduce fossil fuel use
and CO2 emissions.
• Carbon tax offers an incentive to the alternate energy (e.g biomass
CHP or biofuel).
• Carbon tax increases the energy efficiency.
By reducing fuel consumption, increasing fuel efficiency, using cleaner
fuels and adopting new technology, businesses and individuals can
reduce the amount they pay in carbon tax, or even offset it altogether.
/BCMF
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Carbon tax disadvantages
Industrial production shift to countries with no or lower carbon tax
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Cop21 reflections on carbon market
• Revenue-neutral carbon taxes (as per economic conditions of the
countries – Elon Musk).
• Put a global tax on carbon pollution (international fair pricing)
• Carbon tax (revenue) to be invested in clean energy and
technology.
Cop21 five action points
1. Cop21 Paris agreement ratifications
2. End fossil fuel subsidies
3. Put a global tax on carbon pollution
4. Wrok toward political consensus
5. Invest in greener technologies
Source: Cnn, cop21
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BeWhere Model Boundaries
Major harbor
Inland trade points
between two regions
Country not
considered
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Europe – Input Data
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Economy of scale
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Technologies
Key parameters
Unit
Methanol a, b Ethanol c
CHPd
Base plant capacity
MW
357
105
100
Base investment cost
M€
505
143
78
M€/PJbiofuel
1.2
2.5
3.7
GJbiofuel/GJbiomass
0.55
0.30
-
GJelectricity/GJbiomass
0
0.11
0.42
GJheat/Gjbiomass
0.11
0.40
0.43
GJin/GJout
0.66
0.81
0.85
Operating and maintenance cost
Biofuel efficiency
Electrical efficiency
District heating efficiency
Total efficiency
a Hamelinck , et al., 2002.
b Wahlund, et al., 2004.
c Barta, et al., 2010.
d
Schmidt et al, 2010.
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Example results – EU
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18
Results - Potential
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Biomass Use
CHP
Biofuel
CHP
Biofuel
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Biofuel Support vs Carbon Cost
Biomass used (PJ/a)
Emissions (MtCO2/a)
Biofuel
CHP
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Conclusions
•
CHP  High carbon cost
Low biofuel support
•
Biofuel  High biofuel support
Irrespective of the carbon cost
•
Highest emission substituted  High carbon cost
Low biofuel support
•
Conflict of interest between
increase biofuel production & decreased CO2 emissions
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Case Eastern Finland: CHP or methanol
production?
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Model Scheme
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Optimal plant locations
Influence of CO2 cost on technology diffusion
and emission savings
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THANK YOU!