forest and lignocellulose parallel session - bbi-europe.eu · forest and lignocellulose parallel...
TRANSCRIPT
Forest and lignocellulose parallel session
Moderator: Pilar Llorente Ruiz de Azua
BBI JU
Types of actions
Research & Innovation Actions (RIAs)
• Horizon 2020 definition vs. BBI JU• “Activities aiming to establish new knowledge and/or to
explore the feasibility of a new or improved technology, product, process, service or solution.”
• Translated to bio-based industries: tackling a challenge in part of or in the whole value chain (biomass → processing → end products)
• Forest and lignocelluse based projects• Forest management, lignin valorization, biorefinery
technologies, new bio-based applications,…
EFFORTE: Efficient forestry by precision planning and management for sustainable environment and cost-competitive bio-based industry
Natural Resources Institute Finland - Luke, Finland
Sustainable & effective forest management
TECH4EFFECT:Techniques and Technologies for Effective Wood Procurement
The Norwegian Institute of BioeconomyResearch- NIBIO- Norway
Sustainable & effective forest management
PROVIDES:PROcesses for Value added fibres by Innovative Deep Eutectic Solvents
Public private partnership Institute for sustainable technology- PPP ISPT
New sustainable pulping technologies
SHERPACK: Innovative structured polysaccharides-based materials for recyclable and biodegradable flexible packaging
Centre technique de líndustrie des papeier, carton et cellulose- France
Advanced biomaterials for smart food packaging
NEOCEL:Novel processes for sustainable cellulose-based materials
SP Technical Research Institute of Sweden, Sweden
Cellulose based materials (textiles)
HYPERBIOCOAT:High performance biomass extracted functional hybrid polymer coatings for food, cosmetic and medical device packaging
Fraunhofer Gesellschaft e. V., Germany
Bio-based functional molecules for coating and surface treatment
ECOXY: Bio-based recyclable, reshapable and repairable (3R) fibre-reinforced EpOXYcomposites for automotive and construction sectors
Fundacion CIDETEC, Spain
Biopolymers with advanced functionalities for building and automotive parts
SSUCHY: Sustainable structural and multifunctional bio-composites from hybrid natural fibres and bio-based polymers
Université de France-Comte, France
Biopolymers with advanced functionalities for building and automotive parts
US4GREENCHEM:Combined Ultrasonic and Enzyme treatment of Lignocellulosic Feedstock as Substrate for Sugar Based Biotechnological Applications
Verein zur Förderung des Technologietransfers an der Hochschule Bremerhaven-TTZ, Germany
Efficient pre-treatment of lignocellulosic feedstock to advanced bio-based chemicals and biomaterials
LIBRE:Lignin based carbon fibres for composites
University of Limerick, Ireland
Lignin- based fibers and polymers from lignin
SMARTLI:Smart Technologies for the Conversion of Industrial Lignins into Sustainable Materials
CLIC Innovation, Finland
Lignin- based fibers and polymers from lignin
GREENLIGHT:Cost effective lignin-based carbon fibres for innovative light-weight applications
Innventia AB, Sweden
Lignin- based fibers and polymers from lignin
667501 – GreenLight – Cost effective lignin-based carbon fibres for innovative light-weight applications 16
Cost effective lignin-based carbon fibres for innovative light-weight applications
667501 – GreenLight – Cost effective lignin-based carbon fibres for innovative light-weight applications 17
Overview
The overall objective of GreenLight is to develop a new biobased, renewable andeconomically viable carbon fibre precursor “lignin”. The lignin (sourced from pulpmills) is a green, sustainable, abundant and cost-efficient new carbon fibre precursor.Within the GreenLight project the aim is to produce a cost-effective biobased carbonfibre for use as a reinforcement in polymer composite materials.
667501 – GreenLight – Cost effective lignin-based carbon fibres for innovative light-weight applications 18
Cost reduction – current state of the art
• Textile grade PAN fiber: solution spun
• Alternative conversion and large scale tow processing
• Another synthetic polymer, e.g. PE
• Lignin / cellulose blends: similar to Rayon CF
• By replacing it with melt spun LIGNIN … but it has 50% lower cost
Costs of PAN carbon fibre
20 Euro/kg: low due to current crude oilprice
Precursor:Is considered to be the fibre used tomake the CF, not the original polymer –the filament spinning process isimportant
ZELCOR:Zero Waste Lingo-Cellulosic Biorefineries by Integrated Lignin Valorisation
Institut National de la Recherche Agronomique (INRA), France
Biorefineries for conversion of ligning rich streams
– 20 – ZELCOR - BBI JU’s Stakeholder Forum - 6 December 2017, Bruxelles
A consortium of 17 partners …
Academic Excellence in:
• Lignin chemistry
• Biotechnology
• Insect sciences
• Bio-Products design
Experts of Sustainability Assessment:
• Environment (LCA)
• Safety
• Economy
Key Industrial Actors for:
• Lignocellulosic conversion
• Bioprocess engineering
• Enzyme production
• Biological activity screening
• Thermoplastics processing
• Bio-based polymers production
– 21 – ZELCOR - BBI JU’s Stakeholder Forum - 6 December 2017, Bruxelles
… to settle new value chains
End-Product Stakeholders
Consumers
Food Industryusing plastic
packaging and bottles
Cosmetic Industry
– 22 – ZELCOR - BBI JU’s Stakeholder Forum - 6 December 2017, Bruxelles
… through a cascading approach
New enzymes
Lignocelluloserecalcitrantby-products
Residue
CATAL. CONVERSIONBuilding Blocks
BIOCONVERSIONChitin
Feed, Biogas
Bio-basedPolymers
FRACTIONATION
Residue
FunctionalExtracts
Innovativetechnologies
Insect –basedfactory
Antioxidants
Active Ingredients
RESOLVE:REnewable SOLVEnts with high performance in application and improved toxicity profile
University of York, UK
Bio-based alternatives to improve protection of human health and the environment
www.pulp2value.eu www.resolve-bbi.eu– 24 –BBI JU Stakeholder Forum, Brussels, December 2017
The concept
www.pulp2value.eu www.resolve-bbi.eu– 25 –BBI JU Stakeholder Forum, Brussels, December 2017
• 3 year project that started in June 2017
• Involves 11 organisations from 5 countries
• Consortium creates a whole value chain
• From feedstock to solvent producers to end-users
• Aims to find suitable alternatives to Substances of Very High Concern
• Minimum of one replacement each for toluene and NMP
• At least comparable performance in relevant applications
• Improved sustainability, reduced impact on health and the environment.
• Further details at www.resolve-bbi.eu/.
Key facts about the project
www.pulp2value.eu www.resolve-bbi.eu– 26 –BBI JU Stakeholder Forum, Brussels, December 2017
Project partners
Innovation Actions (IA) - DEMOs• Horizon 2020 definition vs. BBI JU
• “A ‘demonstration or pilot’ aims to validate the technical and economic viability of a new or improved technology, product, process, service or solution in an operational (or near to operational) environment, whether industrial or otherwise, involving where appropriate a larger scale prototype or demonstrator.”
• Translated to bio-based industries: tackling a challenge in the whole (not only part of) a value chain (biomass → processing → end products)
SYLFEED:From forest to feed: enable the wood industry to bridge the protein gap
BIOMETHODES S.A., France
New sources of proteins for animal feed from co-products to address the EU protein gap
Dendromass4Europe:Securing Sustainable Dendromass Production with Poplar Plantations in European Rural Areas
Technische Universität Dresden, Germany
Biomass production on unused land for conversion into added-value products while boosting rural and industrial development
LIGNIOX:Lignin oxidation technology for versatile lignin dispersants
VTT Technical Research Centre, Finland
Valorisation of lignin and other side-streams to increase efficiency of biorefineries and increase sustainability of the whole value chain
EUCALIVA:EUCAlyptus LIgnin VAlorisation for Advanced Materials and Carbon Fibres
CONTACTICA S.L. (Spain)
Valorisation of lignin and other side-streams to increase efficiency of biorefineries and increase sustainability of the whole value chain
OPTISOCHEM:OPTimized conversion of residual wheat straw to bio-ISObutene for bio based CHEMicals
Global Bioenergies, France
Optimise technical production routes to bio-based chemicals in bio-or chemo-catalytic processes
BIOMOTIVE:Advanced BIObased polyurethanes and fibresfor the autoMOTIVE industry with increased environmental sustainability
SELENA LABS SP, Poland
Bio-based polymers and plastic materials with new functionalities for the automotive industry
VALCHEM:Value added chemical building blocks and lignin from wood
UPM-Kymmene, Finland
Chemical building blocks and value-added materials through integrated processing of wood
GREENSOLRES:Demonstration of solvent and resin production from lignocellulosic biomass via the platform chemical levulinic acid
GFB EUROPE BV, the Netherlands
Lignocellulosic feedstocks into chemical building blocks and high added value products
FRESH:Fully bio based and bio degradable ready meal packaging
Huhtamaki Molded Fiber Technology BV, The Netherlands
Innovative cellulose-based composite packaging solutions
BIOFOREVER:BIO-based products from FORestry via Economically Viable European Routes
API Europe, Greece
Lignocellulosic feedstocks into chemical building blocks and high added value products
• Timeline: September 2016 – September 2019
• Budget: € 16 million of which € 10 million subsidy from Bio Based Industries Joint
Undertaking (Horizon 2020)
• 14 European companies from 8 countries:
Woody wasteresidues
Spruce Poplar Other lignocellulosicstreams
BALI process AVAP process Dilute acid ZAMBEZI process
Separation Separation Separation Separation
Hydrolysate
Nanocellulose
Butanol/ethanol FDCA
Lignosulfonates
Specialty sugars
Feedstock
Pretreatment
Separation
Additionalproducts
Sugars
Resin acid Vitamin B2 & Enzymes
Additional purification, separation, conversion
Lignosulfonates
Lignin, humin, energy,…
Sugar basedBiochemicals
Potential additional prepration
Sidestreams
Status
• Methods for LC feedstock composition analysis of various partners benchmarked
• Feedstocks shipped by feedstock suppliers to pre-treatment partners
• Various pre-treatment technologies applied to all four woody feedstocks on lab scale. Now
scaled up to pilot scale.
• Hydrolysates produced exchanged between partners for testing in next stage of value chain
• Start made in alignment of information to be supplied by all partners for overall cost modelling
and conceptual biorefinery design
Contacts sought
• suppliers of sustainable biomass (500 ktons of DM/a) at competitive prices (€70/ton dry mass)
• sites interested in developing a bio-refinery project
• strategic investors interested in bio-based products
• companies that have an interest in off-take of bio-based products
• government support for example equity participation by regional development agencies or loan
guarantees
• In case of interest, please contact Anton Robek <[email protected]>
PULPACKTION:Optimised moulded pulp for renewable packaging solutions
Rottneros Packaging AB, Sweden
Innovative cellulose-based composite packaging solutions
Grant agreement No. 720744
Project data:
• 12 partners from 8 countrys
• Four year project
• Total budget ca 12M€
• Relevant stakeholders and relations represented in BOAC
Over-all project objectives:
• 100 % bio-based and biodegradable solution
• 10 % lighter than competingsolutions
• At least 50 % CO2 reduction
I RESEARCH
II PULP AND MOLDING
IIIFILMS AND BARRIERS
Support project with research capacity and excellence
Production of wood derived fibers and fiber molding technology
Development and production of new bio-based film solutions
IV CHEMICAL SUPPLIERSAdditives and printing/ printing inks
WhatMain Task Organization names
Grant agreement No. 720744
• 100 % bio-based and biodegradable solution
• 10 % lighter than competing solutions
• At least 50 % CO2 reduction
Specific Objectives
Five performance indicatorsObtain cellulose based blends with a good balance between mechanical properties, processability and final cost. MS2.1 and MS2.2.
Obtain cellulose wet moulded packages at semi-industrial scale with competitive price and performance. MS3.1 and MS3.2
Produce bio-based films with improved barrier, mechanical and thermal properties by implementing compounding and film production at industrial scale. MS 4.1 and MS4.2
Packaging Eco-design and Life Cycle Analyses (LCA) and Carbon Footprint. MS 1.6, MS8.2, MS8.3, MS8.4, MS8.5 and MS8.6.
Produce and validate a final package solution at semi-industrial scale: final package performance characterization (MS6.1), Food contact and shelf-life studies (MS7.1) and Distribution simulation test results (MS7.4)
Grant agreement No. 720744
PULPACTION WORK PACKAGES
WP1 - Consumer Insight
WP2 - Bio-based pulp formulation for wet moulding
packaging applications
WP3 - Cellulose-based packaging’s production by
wet moulding
WP4 - Advanced bio-based films and coatings
WP5 - Development of integrated packaging traceability
system
WP6 - Production of demonstrators and validation at
semi-industrial scale
WP7 - Validation of techno-economic feasibility of
demonstrators in an industrial environment
WP8 - Evaluation of the new products’ sustainability
WP9 - IPR and Dissemination Activities
Work package structure and technical goals
TECHNICAL GOALS
• New pulp formulations that incorporate biopolymers and
bio-additives, for wet moulding applications
• Production at industrial scale of wet compression
moulded packages
• Demonstrate on Industrial scale production of new
100% bio-based polymer materials with enhanced
barrier and mechanical properties for film and coating
applications
• Development of bio-based inks to be used for inkjet
printing applications
• Implementation at industrial scale of the production of
100% bio-based tailored-to-purpose packaging
• Bridging the innovation gap, moving from laboratory
results to industrial implementation
Innovation Actions (IA) - Flagships
• BBI JU-specific type of action• “A ’flagship’ action aims to support the first application /
deployment in the market of an innovation that has already been demonstrated but not yet applied/deployed in the market due to market failure/barriers to uptake.”
GRACE:GRowing Advanced industrial Crops on marginal lands for biorEfineries
Universität Hohenheim , Germany
Improvement and adaptation of industrial crop varieties and novel sources of biomass to diversify biomass feedstock for biorefineries
This project has received funding from the Bio-Based Industries Joint Undertaking under the European Union’s Horizon 2020 research and innovation programme under grant agreement No 745012.
GRACE - GRowing Advanced industrial Crops on marginal lands for biorEfineries
Details:Funding: Bio-Based Industries JU under EU H2020Project type: BBI Demonstration project (Call BBI 2016.D2)
Coordinator: A. Kiesel and I. Lewandowski, University of HohenheimConsortium: 22 partners – Science, Industry, SME and AgricultureTotal Budget: 15 million €Project time: June 2017 – May 2022
Objectives:Crop production: Demonstrate 14 novel, seed-based Miscanthus hybrids at large scale (80+ ha)
Focus area: Miscanthus and Hemp on low-productive, contaminated and unused land
Industry: Demonstrate 10 biomass based value chains at industry relevant scale
Sustainability: Assess techno-economic viability and socio-environmental performance
Stakeholders: Participative approach – Join now open Industry Panel!
GR
AC
E –
De
mo
Cas
es
This project has received funding from the Bio-Based Industries Joint Undertaking under the European Union’s Horizon 2020 research and innovation programme under grant agreement No 745012.
GRACE - Consortium
BIOSKOH:Innovation Stepping Stones for a novel European Second Generation BioEconomy
Biochemtex, Italy
From lignocellulosic feedstock to advanced bio-based chemicals, materials or ethanol
LIGNOFLAG:Commercial flagship plant for bio-ethanol production involving a bio-based value chain built on lignocellulosic feedstock
Clariant Produkte, Deutschland
From lignocellulosic feedstock to advanced bio-based chemicals, materials or ethanol
EXILVA:Flagship demonstration of an integrated plant towards large scale supply and market assessment of MFC
Borregaard AS, Norway
High added value products from cellulose
Wh
atis
Exilv
a?
LExilva has a unique set of characteristics
— Rheology modification, stabilisation, structure enhancement properties
— Valuable and novel applications in a variety of products
— Adhesives, detergents, cosmetics, composites and other industrial formulations
New production facility
— Capex 225 mNOK (not part of EU H2020 funding)
— Initial capacity 1000 tonnes
— Production started in Q3-16
— Location: Sarpsborg, Norway
The
pro
ject
and
ob
ject
ives
• Successful technology transfer from the pilot plant to the flagship plant.
• Optimization of the full scale process.
• Reach a stable production of at least 1000 tons MFC per year of sufficient quality.
• A flagship unit capital intensity of: 33 million € /2000 tons of MFC.
• Mutual economic benefits between biomass industry and advanced market segments by supplying high performance MFC for an array of applications.
• Low CO2 footprint of MFC as a substitute product in marketable applications and a low CO2 footprint during MFC manufacturing (compared to main competitor process)
• Creation of direct and indirect jobs throughout the entire value chain
The
con
sort
ium
• Borregaard (NO)• Constructed and running the flagship plant
• Commercializing the cellulose fibrils, Exilva
• Unilever (UK)• Unilever will explore new opportunities with Exilva microfibrillated cellulose, with
the aim of further increasing Unilever's use of sustainable materials and minimizing the consumption of oil-derived ingredients, while maintaining affordable pricing for its customers.
• Chimar (GR)• CHIMAR will develop adhesives and adhesive systems suitable for the production
of composite wood panels using EXILVA microfibrillated cellulose
• KTH (SE)• KTH will develop characterization methods for microfibrillated cellulose as a
product and in the context of various applications.
• Østfoldforsjkning (NO)• Østfold Research will contribute with environmental and social LCA analyses, and
we will document the environmental and social properties of a selection of the main products developed in the project.
• Ayming (FR)• Running project administration and marketing studies for the Exilva project
PEFerence:From bio-based feedstocks via di-acids to multiple advanced bio-based materials with a preference for polyethylene furanoate
SYNVINA CV (The Netherlands)
Converting bio-based feedstocks via chemical building blocks into advanced materials for market applications
Synvina - Joint Venture between Avantium and BASF
57
PARTNERING FOR SUCCESS
GLOBAL LEADER IN FDCA & PEF
• YXY technology
• Application know-how
• Pilot plant & labs
• Research & Development
• Agility & Speed
Technology & innovation
• Large scale engineering
experience
• Cost-effective upscaling
• Reputation
• Engineering workforce
• Financial Stability
Engineering &
excellence
BASFAVANTINUM
PEF a unique material
58
PEF
GAS BAR-
RIER PER-
FORMANCE
RECYCLA-
BILITY
Sustainability
100% Biobased
polymer
MECHANICS
SUPERIOR
HEAT RESISTANCE
Shelf Life improvement:• Oxygen 10x • CO2 6-10x• Water 3~4x
Lightweighting60% higher
modulus vs PET
Hot Filling12°C higher glassTransition vs PET
100% recyclable
BIOBASED
FDCA
59
The PEFerence project is about:
• Realisation of the 50,000 tons FDCA flagship plant in Antwerp
• Demonstration, validation and commercialisation of 100% bio-based materials
such as PEF films and bottles in end-user applications
• An industry consortium of EU located companies covering the whole value
chain from wheat to PEF applications: Tereos (sugars), Avantium (2nd gen
glucose), Synvina (FDCA & PEF), BASF (Engineering FDCA flagship plant),
Alpla & OMV (convertors), Croda (producer), Nestle & Lego (brandowners),
Nova Institute (LCA analyses), Spinverse (Project management)
• EUR 25 million BBI Flagship subsidy granted to the PEFerence Consortium
The PEFerence Project
Forest and lignocellulose parallel session
Moderator: Pilar Llorente Ruiz de Azua
BBI JU