Sakari Tamminen industrial challenges and global climate policy en 11112014-päiv_
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Transcript of Sakari Tamminen industrial challenges and global climate policy en 11112014-päiv_
Industrial challenges and
global climate policy
Sakari Tamminen
13.11.2014
2
Steel is the basis for sustainable developmentSteel demand is expected to grow significantly in developing countries by
2050
Steel is one of society's basic materials.
Steel is heavily involved in
cleantech, including:
• Production of renewable energy
technologies
• Resource and energy efficient
construction
• Low carbon transportat
• Recycling technologies
Source: World Steel Association 2012: Steel at The Core of Green Economy
Steel consumption estimate for 2050
20.11.2014
October 2013 3
Two main routes for the manufacture of steelfrom recycling steel based electric arc furnace production carbon dioxide
emissions differ from ore based blast furnace production to scrap steel
based electric arc furnace production
Metallurgic carbon is an invaluable raw material for the reductionreaction. Metallurgical carbon generated by the carbon monoxide gas from the ore is reduced to iron in a blast furnace. Once produced, steel can be used over and over again without loss quality.
The availability of the recycled steel will limit significantly the emission reduction potential even 2050.
It is not possible to increase the blast furnace/scrap steel more thanfrom ratio 60/40 to ratio 56/44.
Recycling steel requires blast furnace steel
Yearly about 580 million tons of steel is recycled. Steel can be recycled completely , without losing its properties. By recycling steel less carbon is required for the reduction of iron.
Steel is the
most
recycled
material in
the world.
0
50
100
150
200
250
300
350
400
450
500
550
600
650
Ter
äs
Pap
eri
Lasi
Puu
Muo
vi
Alumiin
i
Million tons
Different materials in the global recycling rates
Lähde: worldsteel 2012, Recycling of industrial materials in 2010
Steel is recycled more than all other materials combined.
4
Weak growth in
demand view
The steel industry in international
competition
Tremendous
pressure on the
European steel
industry
The increased
significance of
raw material
Increasingly
stringent
legislation
Over-capacity
of production
The increasing
threat of
imports
5
China and other emerging economies
maintain the steel market - Europe is
stagnating
Steel consumption
6
Source: World Steel Association Short Range Outlook 10/2013
Weak growth
in demand
view
0
200
400
600
800
1000
1200
1400
1600
2001 2002 2003 2004 2005 2006 2007 2008 2009 2010 2011 2012 2013e 2014f
China
EU 27
World
Million tons
~45%
China's share of global
steel market
-4%
The European steel
market growth this year
7
Steel industry production sites in the EU-27Iron and steel industry directly employs 350 000 people in Europe. 65 000
jobs have disappeared in 2008-2012
Source:: Eurofer (2013) A Steel Roadmap for a Low Carbon Europe 205020.11.2014
8
Increasingly
stringent
legislation
Source: World Steel Association 10/2013
European emission legislation is more stringent than in other countries
EU emission trading system and global systems
Current mandatory
emission trading and
similar systems cover
only 21% of the global
production.
The EU accounts for
more than half of the
targets and much
tougher than the rest.
There is no obvious
solution which would
bring the same rules
for everyone.
EU legislation from the industry perspective
3
Climate Act?
MCP
Biodiversity
Resource efficiency
Renewable energy
Reduction of GHG emissions
RES policy 2030?
Security of supply
Energy market integrationTrans-European
energy infrastructure?
Third energy package
Regulation of wholesale
electricity trading
Energy efficiency
Clean air
Good water quality
Industrial emissions directive
RES directive
Water framework directive
Biocides regulation
Bio-economy strategy
Energy strategy 2020
Water management
plans
Federal Water Act (WHG)
Energy and climate strategy
“Energie-wende”
Biodiversity strategy
Federal Act on Air Pollution Control
(BlmSchG)Bio-economy
strategyEnvironmental
Protection Act
Energy roadmap 2050
EU ETS directive
Energy taxation directive
Electricity and Fuel Taxes ActEnergy efficiency
directive
Electricity market Act
Energy Industry Act (EnWG)
EED to be implemented
CHP Act (KWKG)
Reg. on access to electricity network
(StromNEV)
EED to be implemented
Biomass sustainability?
Electricity Guarantee of
Origin Act
Act on subsidies for RES based
electricity
Electricity and Fuel tax Acts
(StromStGEnergieStG)
Emission Trading Act
GHG emission trading Act
(TEHG)
Renewable Energy Sources
Act (EEG)
Transitional National Plans
RoHS directive
WasteREACH
regulation
CLP regulationEco-design
Energy labelling directive
Sevesoregulation
Directive on batteries and accumulators
Regulation on the EU Ecolabel
Circular economy
WEEE directive
Conclusion: Sector-specific emission-
reduction potential has to be taken into
accountEU steel industry is able to reduce the CO2-emissions by 15% by 2050.
CO2 emission reduction potential in the EU steel industry is estimated at 10 % in the period 2010-2030 (specific emission)
Potential increase of 10 per cent subject to a number of breakthrough technologies in the commercialization and large-scale investments in infrastructure
Even so the steel industry is not the Commission's proposed emission reduction path in 2030 nor 2050
The emission reduction paths must be built bottom- up approach based on sector, technical and economic potential
10
Bottom-up approach
Competitiveness of the climate policyA global problem requires a global solution
Instruments need to make industry more competitive by ensuring a globally competitive energy prices, rather than increasing the allowance prices
Not even on a long term the EUA price signal will enable the steel manufacturing breakthrough technologies for production use.
The EU's climate targets should be comparable to other economic endeavors. Risk of carbon leakage must be prevented at all costs.
11
A comprehensive international climate agreement
12
Stainless steel: EU CO2 ETS costs gives
advantage to imports and increases emissions EU 28 flat products: imports
from Asia have increased more than five times from
2004
Data source:
EUROFER
European imports up to ~30% of supply, Asian imports grow increasingly
• Stainless steel is produced in Europe from recycled
steel by electricity – resource efficient business
• The Emission Trading System (ETS) in Europe puts a
price on CO2 • Electricity producers pass on CO2 costs to their
customers but stainless industry cannot due to a world
market and global prizing
• Competitors from outside EU do not have additional
ETS costs and therefore giving them a competitive
advantage
• Carbon leakage is a fact: Due to higher carbon
intensity in raw materials and less efficient production
replacing European production by Chinese imports
increases global CO2 emissions• 20% replacement is increasing the global emission by
some 4 million tonnes *
9%
26%
0%
5%
10%
15%
20%
25%
30%
0
200
400
600
800
1,000
1,200
1,400
2004 2014f
[Kt]
Other
Asia
Imports share of total supply (rhs)
* Estimate: Chinese stainless steel has 2,3 times higher total CO2 footprint than the
European due to different raw materials, energy and transports.
**European stainless steel direct emissions cathered from CITL
13
Carbon leakage and decrease of European
jobs are facts in stainless steel
1 Data source: EUROFER, total cold rolled deliveries of European producers (currently Outokumpu, Aperam, Acerinox,
AST). *) CO2 estimations based on international stainless steel Life Cycle data, data on raw materials and energy sources
In stainless steel EU CO2 ETS costs are increasing import, decreasing EU production and jobs
• During EU CO2 ETS main growth of European stainless steel
producers outside the EU, e.g.
• Outokumpu, ThyssenKrupp: USA, Mexico, China
• Aperam: South America
• Acerinox: South Africa, North America, Asia
• Closures / decreasing of production are fact in many EU
countries, GER, UK, FR, IT, S, SWE, FIN, EST etc.
• In Europe Outokumpu & ThyssenKrupp stainless direct
employees decreased from 15 000 in 2004 to some
9000 in 2014 (estimate for 2016:7000).
• Carbon and job leakage is a fact in stainless steel • The growth of the production outside the EU
• Stainless steel production in Europe is increasingly
replaced by Asian import causing dramatically higher
CO2 emissions / tonne of stainless globally *
• These trends are continuing until EU ETS system will be
reviewed and indirect electricity costs compensated
3.2
2.3
0.5
0.4
0.0
0.5
1.0
1.5
2.0
2.5
3.0
3.5
4.0
4.5
2006 2013
[Mt]
Europe Other
EU mills cold rolled deliveries1 2006 & 2013 by destination [Mtonnes]
2030 energy and climate package
• at least 40% emissions reduction from 1990 levels by 2030
– nationally binding
– reduction cap will increase from 1,74 % to 2,2 % from 2021 onwards
• at least 27% energy efficiency increase by 2030
– indicative at EU level
• at least 27% renewable energy share by 2030
– binding only at EU level
• 15% increased energy interconnections between member states by
2030
– binding only at EU level
1420.11.2014
16
Why EU Emission Trading Scheme (ETS)
have to be reviewed?
Source: Outokumpu
Summary
• Steel industry in Finland is part of the sustainable solution.
• Metals industry supports the global climate agreement.
• Carbon and jobs leakage is a fact – directly and indirectly.
• Competitive industry will create welfare – let’s keep the
European industry competitive.
Back-up slides
1820.11.2014
Emission reduction potential 2030 and
2050
Commission roadmap to low carbon economy
2050 (table 9, source: PRIMES,GAINS)
Emission reduction potential compared to 2010
Reference year 2010 (specific emission) 2030 2050
Economically feasible scenario -9% -15%
Theoretical maximum reduction, no CCS -19% -40%
Theoretical maximum reduction, CCS in use -9% -57%
Reference year 2005 (absolute emissions) 2030 2050
Total -35% … -40% -77% … -81%
ETS -43% … -48% -88% … -92%
Non-ETS -24% … -36% -66% … -71%
19