uusiutuvat polttoaineet jäte- ja...
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Uusiutuvat polttoaineet jäte- ja tähdevirroista
Teknologiajohtaja Lars Peter Lindfors, Neste Oil
Neste Oil in brief
Refining capacity:
15 million t/a of
petroleum products
and 2 million t/a of
renewable diesel
Net sales: € 17.5
billion (2013)
Listed on the
Helsinki Stock
Exchange
Largest owner:
Finnish State
(50.1%)
A refining and
marketing company
focused on
premium-quality
traffic fuels
Operations in 15
countries; employs
approx. 5,000
people
2
Being innovative drives our leadership position
3
Creating
unique
technological
innovations
Expanding
raw material
base
Several new
products
since 2008
1,000
professionals
in R&D and
engineering
Co-operation
with large
number of
leading
universities,
institutes and
companies
City-gasoline:
lead-free, with
MTBE as an
important
component
1980
Lead-free Futura
95E, replacing
92-octane
gasoline
Cleaner products along the way
Futura Citydiesel:
end of sales for the
low-aromatic and
nearly sulfur-free
gasoline
1990
Sulfur-free
gasolines and
diesel fuels
2000
NExBTL
renewable
aviation fuel
2010
Neste Alfa
lubricants
Futura brand:
gasoline that keeps
engines clean
City Futura, with an
oxygen-containing
MTBE component
synthetic PAO
VHVI
base oils
New Futura:
less sulfur than
ever before
New Futura
gasoline market
launch
Neste Green
diesel
NExBTL diesel
from renewable
materials
Neste Green 100
diesel
Neste Pro
Diesel
4
5
So far we have consumed over 1,000 billion barrels of oil, but there is plenty of it left
6
Road transportation dominating total oil demand also in
coming decades – fuel economy improving significantly
Source: ExxonMobil, The Outlook for Energy 2012; BP, Energy Outlook 2012
0
10
20
30
40
50
60
70
Mbpd
2030 Increased
use of
alternatives
Improved
vehicle
efficiency
Reduced
average
usage
Increased
number of
vehicles
2010
Biofuels Non-OECD
OECD
Non-OECD
OECD
Other*
Oil demand in road transportation
* Including GTL, CTL, LNG and electricity
• Heavy duty fleets, aviation and city traffic have limited ways to increase renewable share – advanced biofuels, e.g. NEXBTL, are a viable option
• Hybrid cars increase rapidly after 2020 (representing ~10 % of fleet in 2030)
• Electric / natural gas vehicles expected to remain marginal due to cost and functionality considerations
GHG emissions from well-to-wheel strongly
dependent on feedstock and technology
Well-to-wheel gCO2eq/km
0 50 100 150
gasoline
E10
E85
Diesel
B7
dieselhybrid
renewable diesel (NEXBTL)
electric car (EU-averageelectricity)
Source: JEC, 2014
8
To combat
climate change
and
reduce emissions
To reduce
society’s
dependency on
crude oil and
imports
To safeguard
energy security
The drivers for biofuels
12 13
20
5 5
8
5 5
6
4 4
5
0
10
20
30
40
50
2014 2015 2020
Asia-Pacific
Latin America
North America
Europe
+8% p.a
Bio/renewable diesel demand,
million tons
26 27
39
9
Source: Neste Oil estimates
The growth estimate
• Since 2007, the renewable business has grown from 0 in earnings and revenue to earnings of 273 m€ and revenues of 2,5 bn € in 2013
• Customers are choosing NEXBTL due to its superior quality and flexibility using it as drop in fuel
• Strong market position in several European countries and in North America
10 10
Neste Oil – The leading producer of renewable diesel in the world
4.8 million
tons
avoided
GHG
emissions
Fuelling
2.6 million
cars with
renewable
fuel
11
FAME = Fatty Acid Methyl Ester, conventional biodiesel
RME = Rapeseed Methyl Ester, conventional biodiesel
HVO = Hydrotreated Vegetable Oil, advanced biofuel i.e. renewable fuel
BTL = Biomass to Liquid
NEXBTL renewable fuels – fully compatible with fossil diesel
Bio-based
hydrocarbon
(renewable diesel,
jet fuel, bionaphta,
biopropane)
Biodiesel
(FAME / RME) Fossil diesel
Renewable diesel
(HVO)
e.g. NEXBTL
Fischer-Tropsch
(BTL)
Vegetable oils &
animal fats (mainly
rapeseed oil)
Crude oil
(mineral oil)
Flexible mix of raw
materials
(vegetable oils
& waste fats)
Biomass Raw material
Esterification Traditional refining Hydrotreating Gasification &
Fischer-Tropsch Technology
Ester-based,
conventional
biodiesel
Hydrocarbon
(gasoline, jet fuel,
diesel)
Bio-based
hydrocarbon
(renewable gasoline,
jet fuel, diesel)
End product
O
II
H3C-O-C-R
CnH2n+2
+ aromatics CnH2n+2 CnH2n+2
Chemical
composition
Waste animal fat from
the food processing
industry
Crude palm oil
Waste fat from the
fish processing
industry
Camelina oil Jatropha oil Soybean oil Rapeseed oil
• Next generation feedstock to include waste streams from
forestry and agricultural activities, as well as algae oil
12
Technical
corn oil
Tall oil pitch Vegetable oil residues
(stearin, PFAD and
spent bleaching oil)
Range of renewable raw materials used
commercially is growing
Used cooking
oil
Waste/residue
Vegetable oils
More than half of the renewable feedstock
used by Neste Oil is waste/residue based
13
Neste Oil renewable feedstock split, 2013
H2/2014 waste/residue based feedstock: 66 %
48 % 52 %
0
200 000
400 000
600 000
800 000
1 000 000
1 200 000
1 400 000
2007 2008 2009 2010 2011 2012 2013
14
Development/committment is required to
increase the usage of waste/residue streams
Technology
• Flexible production
technologies
• Pretreatment
solutions
Global procurement
network
• Logistics
• Qualit assurance and
segregation
• Sustainability
Partnerships
• Commercial concepts
• Co-operation
Several challenges Availability, small local volumes, varying quality level, lack of logistic solutions
• Global energy
consumption / Transport
sector: 95000 PJ/a
• The accessability of the
waste/residue feedstock
in the table corresponds
to 1/3 of global energy
consumption in the
transportation sector
15
Waste/residue streams are crucial for next
generation applications
Availability of some waste/residue based feedstock (PJ/a)
Finnish forests are not able to supply the
transportation fuel needs in Finland at present
Oil product demand in Finland (2014) vs. theoretical
maximum of wood based fuel availability (Mt/a)
•~ 35 Mt dry wood grows in Finland annually
•Currently 70% of Finland’s annual wood growth is
already in use
• If all the rest wood (30%) would be used for fuel, the
amount would be ~ 10 Mt
•With 20% mass conversion, the corresponding
theoretical maximum fuel volume is ~ 2 Mt/a, i.e.
30% of the demand
Sources: Metla, Wood Mackenzie
Conversion from cubic meters to dry t: 0,35
Fuel from wood
0,7
1,5
4,3
2,0
Jet
Max. wood availability
Diesel/Gasoil
Gasoline
Biocrude
Pyrolysis (fast/
catalytic/hydrous) Upgrading
Biofuels
17
Technologies from wood to biofuels is
still on the development stage Microbial oil
Sugar
Feedstock Product
Renewable diesel Fractionation
& hydrolysis
Hydrotreatment Fermentation
Cellulosic ethanol/
butanol
Syngas
Fischer-Tropsch
Gasification
BtL biofuels
Methanol,
other alcohols
Gasoline components
BioDME
Ethanol Fermentation
Catalytic
conversion
Fermentation
Dehydration
Woody biomass
Fermentation (Wood – Sugar – Fuel)
• St1 is planning a demo plant to
Kajaani
• No wood based commercial plants
running or under construction
Pyrolysis (Wood – Biocrude)
• KiOR has build the first pyrolytic
plant with upgrading, they ran
out of money and cannot restart
• There are biocrude facilities
without upgrading, eg. Fortum
Gasification (Wood – Syngas – Fuel)
• Projects of UPM and Vapo are cancelled or on hold
• INEOS Bio (fermentation to ethanol) has opened a
demo plant in U.S.
• No other gasification based wood-to-biofuels
commercial plants running or under construction
18
Global advanced biofuel capacities today
0 0,5 1 1,5 2 2,5 3
Renewable diesel (e.g.NEXBTL)
Cellulosic ethanol
Biomethanol
Catalytic pyrolysis
Syngas fermentation
Neste Oil
Others
Mt/a
Advanced biofuels exclude traditional bioethanol and biodiesel
Capacities include commercial and commercial reference plants
Woody
feedstock
Global biofuels investment have a
decreasing trend
• Most of the biofuel
investments have
taken place in the
Americas where
light-duty fleets use
mainly gasoline
instead of diesel
Global investment in biofuels by region $bn
20
Summary Alternative energy solutions for traffic are emerging slowly
• Continuing dominance for ICE (internal combustion engine) based technologies
is forecasted, implying very extensive use of renewable biofuels in traffic
Long term novel feedstock solutions are far away
• A broad range of globally available feedstock is needed
New conversion technologies have challenges to meet commercialization
• Existing second generation technologies, such as NEXBTL, are proven enablers for
fulfilling the biomandate
EU Biofuels policy should
• Keep ambitious biofuel targets (volume / quality) and maintain technology neutrality
• Not allow protectionism to gain ground
• Accept that feedstock are global – just like oil is
Neste Oil provides a strategic agenda striving for renewal
• -> Significant volumes of NExBTL renewable diesel and biojet
• -> Renewable fuel for lowering GHG and urban air emissions
• -> Continuously broadened flexible mix of sustainable feedstock and technologies
21
Increasing use of biofuels – and waste/residue
based feedstock – an opportunity for Finland
Knowhow
Globally active companies in
relevant fields
Strong research and educational
position in crucial areas
Development of
competitive solutions
for reducing GHG
emissions
In transportation, energy
production and chemical
sectors
Feedstock sources
Opportunity to increase the
amount of domestic raw-
materials
Kiitos.