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The role of Carbon Capture Utilization and Storage in
the global energy transition: long-term optimization on
the industry sector
Lucas Desport, Sandrine Selosse
To cite this version:
Lucas Desport, Sandrine Selosse. The role of Carbon Capture Utilization and Storage in the global en-ergy transition: long-term optimization on the industry sector. ISDRS, Jul 2020, Budapest, Hungary. �hal-03022005�
TOTAL Classification: Restricted Distribution TOTAL - All rights reserved
Lucas DESPORT, PhD Student & Sandrine SELOSSE, Research Fellow
MINES ParisTech, PSL Research University, Centre for Applied Mathematics
TIAM-FR Model
CCUS technologies for industry
Results for the industry sector by 2100
Key issues and way further
•
French version of the IEA-ETSAP TIMES Integrated Assessment Model
•
Bottom-up linear programming model optimizing costs over decades
•
Geographically integrated into 15 regions
•
Commodities, processes and demand depicted in a Reference Energy System below
All commodities but CO
2CO
2flux
CCUS technologies
Process technologies
Primary reserves
Primary reserves processes
End-uses fuel generation
Demand sectors
CH
4options
• Cost actualization
• Other mitigation pathways consideration
• CCU implementation
• Comparison with MIT top-down model
• Sensitivity analysis
• Results feasibility assessment
T
HE
ROLE
OF
C
ARBON
C
APTURE
U
TILIZATION
AND
S
TORAGE
IN
THE
GLOBAL
ENERGY
TRANSITION
:
LONG
-
TERM
OPTIMIZATION
ON
THE
INDUSTRY
SECTOR
•
Minor disruptions in industrial processes between the BAU scenario and the mitigation scenarios, in where the use of coal is slightly replaced by heat importation.
•
Not relying on CCUS technologies will require the electrification of industry. Thus, the carbon content of electricity is dramatically reduced as of 2070.
•
Not relying on CCS will be more expensive.
•
The model choices to invest in CCS mainly for the cement and chemical industries in the second half of the 21
th
century.
•
New technologies with better energy efficiencies are preferred against CCS technologies to reduce industrial emissions. Hydrogen is not chosen as an option.
•
China, ex-USSR, Latin America and Western Europe are the regions that invest the most in CCS technologies.
Key findings
• 23% of global direct CO
2
emissions
• 30% of global GHG emissions (direct and indirect)
• 37% of global final energy use
• High dependence on fossil fuels
• Energy intensive ‘hard-to-abate’ sector
• CCS can achieve industry decarbonation alongside with green
hydrogen, blue hydrogen, and energy efficiency
• CCU can reduce both fossil-based fuels and fossil feedstocks
Power generation
Industrial processes
Fuel generation
• Coal-fired + CCS
• CCGT + CCS
• Bioenergy + CCS
• Co-firing + CCS
• Process heat + CCS
• Process steam + CCS
• Industrial heat + CCS
• Industrial electricity + CCS
• Co-generation + CCS
• Diesel + CCS
• Heavy fuels + CCS
• Ethanol + CCS
• Hydrogen + CCS
• CCU for methanol
3 key sectors for CCUS options in TIAM-FR
•
IEA-ETSAP data (2010)
•
25 years technology life duration
•
1706 GtCO
2
storage capacity
•
Business As Usual
•
2100 2°C/1.5°C climate targets
•
With and without CCUS
Main assumptions and scenarios
8.5 Gt of direct CO
2
emitted in 2017
2
(IEA)
Cement
Iron & Steel
Chemicals
Pulp &
Paper
Non-ferrous
Others
Industrial CO
2
emissions per sector
2
Including energy-related and process emissions
0
5000
10000
15000
20000
25000
30000
35000
Chemicals
Industrial electricity
Industrial heat
Cement
Pulp and Paper
Cumulative CCS new capacities per sector in a 1.5°C mitigation scenario [GW]
0
2000
4000
6000
8000
10000
12000
14000
16000
18000
Africa
Australia
Canada
China
Eastern Europe
India
Japan
Latin America
Mexico
Middle East
Rest of Asia
South Korea
Ex-USSR
USA
Western Europe
Cumulated CCS investments in industry by region in a 1.5°C mitigation scenario [GW]
0%
10%
20%
30%
40%
50%
60%
70%
80%
90%
100%
2020 2030 2040 2050 2060 2070 2080 2090 2100 2020 2030 2040 2050 2060 2070 2080 2090 2100 2020 2030 2040 2050 2060 2070 2080 2090 2100
Chemicals
Cement
Pulp & Paper
E
ner
gy
pr
oc
es
s
es
di
s
tr
ibuti
on
[%
]
Industrial investments temporal breakdown for the chemical, cement and pulp &
paper industry in a 1.5°C mitigation scenario
CCS technologies
High efficiency technologies
Basic technologies
0
50000
100000
150000
200000
250000
300000
350000
400000
450000
500000
2020 2030 2040 2050 2060 2070 2080 2090 2100 2020 2030 2040 2050 2060 2070 2080 2090 2100 2020 2030 2040 2050 2060 2070 2080 2090 2100
1,5_wCCS
2_wCCS
BAU
E
ner
gy
pr
oc
es
s
es
gener
ati
on
[P
J
]
Industrial energy generation processes temporal breakdown in mitigation scenarios and BAU scenario
Others*
Heat
Electricity
Natural gas
Coal
Bioenergy
CCS
0
50000
100000
150000
200000
250000
300000
350000
400000
450000
500000
1
,5
_
wCCS
1,
5_w
oC
C
S
1
,5
_
wCCS
1,
5_w
oC
C
S
1
,5
_
wCCS
1,
5_w
oC
C
S
1
,5
_
wCCS
1,
5_w
oC
C
S
1
,5
_
wCCS
1,
5_w
oC
C
S
1
,5
_
wCCS
1,
5_w
oC
C
S
1
,5
_
wCCS
1,
5_w
oC
C
S
1
,5
_
wCCS
1,
5_w
oC
C
S
1
,5
_
wCCS
1,
5_w
oC
C
S
2020
2030
2040
2050
2060
2070
2080
2090
2100
E
ner
gy
pr
oduc
ti
on [P
J
]
Industrial energy production evolution with and without CCS technologies
Others*
Heat
Electricity
Natural gas
Coal
Bioenergy
CCS
1
2
Scenario
Label
Industrial CCS
investment [TW]
CO
2
stored from
industrial processes [Gt]
Industrial discounted
cost [B€]
Business as usual
BAU
0.2
1
10,300,000
1.5°C mitigation with CCS
1.5_wCCS
62
142
11,100,000
1.5°C mitigation without
CCS
1.5_woCCS
0
0
12,300,000
2°C mitigation with CCS
2_wCCS
61
141
11,100,000
3
5
4
6
*others includes NGL, LPG, heavy fuels, distillates, blast furnace gas, asphalt, naphtha, coke and geothermal energy
Key facts about industry
How CCUS technologies can help reduce
industrial CO
2
emissions?
1
2
3
4
5
6
1