the contribution of advanced biofuels to meet 2030 target · be used for advanced biofuels so this...
TRANSCRIPT
The contribution of
advanced biofuels to meet
2030 target
SANDRO COBROR
Head of Public Affairs
Biochemtex spa
2000 – TODAY 1979 – 2000 1953 – 1979
Packaging Manufacturing
Phase
HDPE and PVC packaging
production
Chemical Specialty Manufacturing Phase
PET expansion phase
Development and
production of PET resins
for food packaging
Acquisition of PET Shell activities and Rhodia from Rhone Poulenc
Acquisition of Chemtex from Mitsubishi Corporation
Construction of the world’s largest plants for PET production in Altamira (Mexico) and Suape (Brasil)
Renewables
Plans announced for a new plant in Corpus Christi (Texas, USA)
2009 - Pilot plant for cellulosic ethanol
2006 -2008 - Lab scale technology development for 2nd gen ethanol
Mossi Ghisolfi background
2
2013 - World’s 1st commercial-scale plant that produces biofuels from non-food biomass (60.000 ton/year)
2011 - Beta Renewables is founded, dedicated to sustainable chemistry.
2012 - Beta Renewables and Novozymes partnership.
WILMINGTON Engineering Central Office
APPLE GROVE Resin
SHARON CENTER R&D Centre
HOUSTON North America Regional Office
ALTAMIRA Resin
POÇOS DE CALDAS Resin Fiber R&D Centre
SAO PAULO South America Regional Office
INDAIATUBA Recycle
PAULÍNIA PTA
SUAPE Resin
TORTONA (AL) Head Office Process Engineering Office
MILAN Group Head Office Europe Regional Office
RIVALTA (TO) Ethanol Pilot Plant and R&D Centre
PATRICA (FR) Resin
BEIJING Engineering
SHANGHAI Engineering
YIBIN Cellulose Acetate
MUMBAI Engineering
BANGALORE Engineering
CABO Fiber
CRESCENTINO (VC) World First Commercial Scale Cellulosic Ethanol Plant
MODUGNO (BA) Demonstration Plant for MOGHI Tecnhology
Summary Where we are located
3
Current EU policy framework on road transportation
4
• 2009: RED sets 10% renewable energy in the transport sector by 2020. Sustainable
biofuels might be used to meet the target.
• 2012: ILUC Proposal. The Commission published a proposal to limit global land
conversion for biofuel production, and raise the climate benefits of biofuels used in
the EU. The use of food-based biofuels to meet the 10% renewable energy target of
the Renewable Energy Directive should be limited to 5%.
• 2013: Sept 11th, the EP voted ILUC proposal on its first reading. Key revisions
suggested were: Capping the contribution of food-based biofuels to meeting RED targets;
Introducing reporting of iLUC emissions based on default iLUC factors for cereal, sugar and
vegetable oil feedstocks;
Introducing a category of advanced biofuels from wastes and residues that would be
quadruple counted for compliance with targets in the Renewable Energy Directive.
• 2014: June 13th, Energy Council reached a political agreement on ILUC proposal:
7% cap on conventional biofuels
Non binding 0,5% min national targets for advanced biofuels
5x for electrical vehicles (from renewable sources), 2,5x for electrified rail transport
The EU strategy for upcoming decade
5
• On 22 January 2014 the Commission proposed energy and climate
objectives to be met by 2030. The targets must be met if the EU is to keep its
promise to cut its greenhouse gas emissions by 80-95% by 2050.
40% cut in greenhouse gas emissions (compared to 1990 levels) To achieve at least a 27% share of renewable energy consumption Energy efficiency to play a vital role, but no specific target at this point.
Juncker’s agenda priorities on jobs and energy: Getting people back to work: Jobs, Growth and
Investment Package to generate an extra EUR 300
billion in investment over the next three years.
A Resilient Energy Union with a Forward-Looking
Climate Change Policy: Europe’s Energy Union to
become the world number one in renewable energies.
Significant enhancement of energy efficiency beyond
the 2020 objective, notably when it comes to buildings,
in favour of an ambitious, binding target to this end.
Any biofuel capable to address all the policy
obligations and expectations?
6
According to the current policy framework and
expectations, allowed biofuels shall feature at least:
• No competition vs food
• Minimal use of land
• Minimal use of water
• Price competition
• Technology innovation
• Protection of biodiversity
• Benefit for rural areas
THIS IS WHAT WE CALL ADVANCED BIOFUELS !
7
Italy’s approach to advanced biofuels
January 2013: IT Governement signed an agreement (Protocollo
d’Intesa) with Gruppo Mossi Ghisolfi to foster the deployment of
second and third generation biorefineries in Italy
May 2014: IT Government signed an agreement with Biochemtex
to build up 3 cellulosic ethanol plants in the South of Italy
June 2014: DECRETO-LEGGE 24 giugno 2014, embraced a
minimum quota of advanced biofuels in the fuel pool from 2015
on.
October 2014: DM set minimum quota of adv biofuels from 2018
on (from 0,5% in 2018 to 1% in 2022)
The Proesa TM Process
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Steam Water
CO2 Water
Ethanol
Steam
Power
Biomass Enzymes
Boiler + Generator
Recovery Hydrolysis + Fermentation
Pre-Treatment and Viscosity Reduction
Feed Handling
Aggregation: fully integrated process design
Agronomy best energy crops, based on field experiments
Biomass pre-treatment and viscosity reduction: continuous process
Hydrolysis and fermentation: unique hybrid SSCF process yielding high ethanol concentrations
We use sustainable biomasses
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Energy crops
Arundo donax (Giant reed)
Miscanthus giganteus
Panicum virgatum (Switchgrass)
Agricultural and industrial residues
Wheat straw
Rice straw
Corn stover
Sugarcane bagasse
Woody species
Eucalyptus
Poplar
Crescentino project: first industrial scale advanced biorefinery in the world
Nov 2012
Dec 2012
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Apr 2011 Sept 2011
Capacity: 40kt/y ethanol
Biomass supply: approx 200kt/y
80-90% emission reduction
13 MW power plant
Complete water recycling
Separation Fermentation PROESA®
Technology
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Steam
& Electricity
The Biorefinery today ….
Biomass
Ethanol
Lignin Energy
Production
Fermentable
Sugars
The Biorefinery Opportunity - Now a reality with PROESA® Technology
2nd Gen Ethanol Plant located in Crescentino - Italy
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Biomass
Fermentable
Sugars
Separation
Chemical
& Biological
Conversion
Platform
Lignin Conversion/
Separation
Aromatics
Chemicals Materials
…. and tomorrow
Fuel/Chemicals
EtOH iso-BuOH JetFuel
BTX PTA
Fatty Alcohols
Polyols n-BuOH
Lactic acid Acrylic acid
Succinic acid Adipic acid
Plastics & Polymers Market
The Biorefinery Opportunity - Now a reality through PROESA® Technology
PROESA®
Technology Fermentation
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Energy security and emissions reduction
plants (apporx) % on EU fuels toe barrel (BOE)/TOE boe value of barrels NOT imported
1 0,02% 51.000 0,146 349.315 24.801.370€
39 1,00% 2.900.000 0,146 19.863.014 1.410.273.973€
97 2,50% 7.250.000 0,146 49.657.534 3.525.684.932€
155 4,00% 11.600.000 0,146 79.452.055 5.641.095.890€
usd/barrel eu/barrel
92 71
With 4% replacement of Eu fuels with advanced biofuels
5,6 billion €/y oil import and over 30 millions tonns of CO2 emissions avoided
14
Biomass need, value for rural economy
Wasted reports states that of the EU 900million tons of waste/residues, about 223-225 million tons could be used for advanced biofuels So this is a conservative scenario. Also this scenario does NOT take into account the contribution of energy grasses in marginal lands
plants (apporx) % on EU fuels toe tons biomass needed revenues for rural economy
1 0,02% 51.000 400.000 20.000.000
39 1,00% 2.900.000 22.745.098 1.137.254.902
97 2,50% 7.250.000 56.862.745 2.843.137.255
155 4,00% 11.600.000 90.980.392 4.549.019.608
> 4,5 billion euro could go to rural economy each year
15
Jobs creation
low high
residues collection (extra)
114
171
transport& logistic (extra)
45
61
direct for operations of site
65
85
undirect employment - services
33
43
grand total for single plant
257
360
for construction erection
600
800
divided by 20 years operation
30
40
Jobs for 1 plant etoh 51.000
toe
287
400 Jobs
THIS TRANSLATE IN OVER 90,000 NEW JOBS AT 4%
CELLULOSIC ETHANOL FUEL MARKET SHARE
16
Conclusions
• Cellulosic ethanol technology is ready but need quite substantial investment
• Production is cost competitive • Use of sustainable biomasses widely available in EU (multiple
feedstock optimization) • Socially sustainable (no competition with food) • Environmentally sustainable (drastic reduction in emissions) • Profitable for farmers • Able to create high-tech green-jobs • First step to green chemistry deployment
BIOMASS AVAILABILITY IS KEY TO UNLOCK THE POTENTIAL OF
BIOECONOMY AS A WHOLE