The sunliquid process - cellulosic ethanol from agricultural residues. Dr. Ing. Paolo Corvo Biotech & Renewables Center

Similar documents
Cellulosic ethanol from agricultural residues THINK AHEAD, THINK SUNLIQUID

From agricultural residues to value added bio-based products

Thomas Grotkjær Biomass Conversion, Business Development

Sustainability and Megatrends the fuel for Innovation in the Chemical Industry

DuPont Cellulosic Ethanol: Sustainable, Economic, Farm-to-Fuel Solutions

Industrial Biosciences. Jim Collins - President

The potential of sunliquid

GHG savings with 2G Ethanol Industrial Plant. Pierluigi Picciotti BD Director North America & APAC July 26 th, 2017 Montreal

Chemtex Group. Global Engineering and Project Solutions. PROESA technology: the industrial solution for cellulosic ethanol projects

DuPont A Market Driven Science Company. John Ranieri Vice President & General Manager DuPont Applied BioSciences


CORBION: DEVELOPING A BIOBASED PORTFOLIO

ABENGOA BIOENERGY NEW TECHNOLOGIES

Advanced biorefineries A full-scale commercialization in Europe

ABENGOA. Hugoton project

Abstract Process Economics Program Report 252 CHEMICALS FROM AGRICULTURAL WASTES (September 2004)

Press Kit. About DAWN Technology*

A research agenda for making biomass a sustainable source of transportation fuels

From fossil-based refinery to biorefinery stepwise implementation of integrative plant concepts Lichtenwalde, May, 12 th 2011

NOVOZYMES & RENEWABLE CHEMICALS

Topics PROESA TECHNOLOGY. Commercial Scale Production of Fermentable Sugars from cellulosic biomass. Kota Kinabalu September 7 th, 2015

Fueling the Commercializationof Cellulosic Ethanol

DONG Energy Group. Goal - Turning from Fossil fuel to renewable energy 2020: 50/ : 15/85

Trash into Gas: Powering Sustainable Transportation by Plants

The Next Generation of Biofuels

Etanol - störst idag, hur stort om

The 3rd Generation Biorefinery; Conversion of Residual Lignocellulosic Biomass to Advanced Liquid Biofuels, Biochemicals, Biocoal and Fibres

Industrial Biotechnology and Biorefining

Biomass conversion into low-cost and sustainable chemicals*

The Next Generation of Ethanol. Wes Bolsen CMO & VP The Coskata Process The Best of Both Worlds. Biofuels Journal Workshop October 30th, 2008

Biobased opportunities

Outline. A leading ethanol player. The SEKAB Group. Bioethanol from Cellulose - Technology status and Strategy for Commercialisation.

Effect of particle size on enzymatic hydrolysis of pretreated miscanthus

Second Generation Biofuels: Economic and Policy Issues

Bioenergy Research at NREL. Justin Sluiter. Wednesday, June 8, 2016

Cellulosic Ethanol. Strategic Partnering in Advanced Biofuels. Brian Foody Iogen Corporation ABLCNext San Francisco Oct 10, 2013

Global Warming. Department of Chemical Engineering

Making Cellulosic Ethanol Work - for Africa

Produce Cellulosic Ethanol in Existing Plants with Edeniq s Pathway Platform. James Kacmar, Pathway Program Director

2.2 Conversion Platforms

Alternative Feed-stocks for Bioconversion to Ethanol: a techno-commercial appraisal

Jefferies 2013 Global Industrials Conference. Jim Collins. Senior Vice President* E. I. du Pont de Nemours & Company

Biorefineries. International status quo and future directions. Ed de Jong / Rene van Ree

Demonstration of an Integrated Biorefinery

1G and 2G Biofuels in Brazil: competition or complementarity? Conference on Bioeconomy and Second Generation Biofuels.

Resource Base and Technological Advances in Biofuels

NER300 - BEST Project - IBP Srl category RES-BIOg

Bioenergy: From Concept to Commercial Processes

Introduction to BIOFUELS. David M. Mousdale. CRC Press. Taylor & Francis Group Boca Raton London New York

Commercializing Advanced (Second and Third Generation) Biofuels Technologies

Gasification of Renewable Feedstocks for the Production of Synfuels and 2nd Generation Biofuels

MERGER Making Cellulosic Biofuels a Commercial Reality

Agricultural Waste Utilization Systems

The Biorefinery approach to production of lignocellulosic ethanol and chemicals from lignocellulosic biomass

Global Cellulosic Ethanol Industry 2015 Market Research Report

Biomass to sugar with. PRO.E.SA Technology: Enabling Biobased Chemicals

Long-term Outlook for Biofuel Production and Technologies [What has to be done in practice] Richard Flavell Ceres, California, USA

Plant biotechnology and the future of ethanol

The CIMV organosolv Process. B. Benjelloun

Presentation to: Emerging Energies Conference University of California Santa Barbara

Commercial facilities for the production of lignocellulosic ethanol

Second Annual California Biomass Collaborative Forum

Futurol : a Step Further Towards Sustainable Mobility with Cellulosic Ethanol

Citi Basic Materials Conference. Jim Collins. Senior Vice President, Performance Materials & Industrial Biosciences E. I. du Pont de Nemours & Company

Novozymes Cellic CTec3 HS - secure your plant's lowest cost

Renewable Chemicals from the Forest Biorefinery

BIOFUELS: EUROPEAN EUROPEAN -- SPANISH OVERVIEW Mercedes Ballesteros Head of Biofuels Unit CIEMAT 3rd March,

Ethanol From Cellulose: A General Review

Bio Base Europe Pilot Plant Pilot Plant for the Key Enabling Technology Industrial Biotechnology and the biobased economy

Agricultural Outlook Forum Presented: March 1-2, 2007 U.S. Department of Agriculture

INDUSTRIAL ENZYMES FOR CELLULOSIC SUGARS AND BEYOND

PERP/PERP ABSTRACTS Ethanol

Why did DSM step into this?

Canada s Biomass Opportunity. Canadian Forest Service - May, 2016 Anne-Helene Mathey, Jean-Francois Levasseur

The future is BIOREFINING

PlantBio s initiatives in

Cellulosic Sugar Project PROJECT OVERVIEW JAMES LEE BIOINDUSTRIAL INNOVATION CANADA

From fossil- to bio-based refineries Case Study Biorefinery Leuna. Uwe Welteroth Director Biotechnology Plants Linde-KCA-Dresden GmbH

Separation and Purification: the Missing Link Between Biomass Deconstruction and Commercial Products

Update on Lignol s Biorefinery Technology

Biomass for future biorefineries. Anne-Belinda Bjerre, senior scientist, ph.d.

Direct fermentation to bio-based isobutene, a platform to fuels and chemicals. October 2017

XyloFerm - Yeast strains for efficient conversion of lignocellulose into ethanol

A TECHNICAL PERSPECTIVE ON 2G BIOFUELS AND THE WAY FORWARD

MAXIMISING REVENUES AND MINIMISING WASTE IN FUEL AND FEED BIOREFINERIES

Future U.S. Biofuels and Biomass Demand Uncertainty Reigns. Wally Tyner

Biofuels A policy driven logistics and business challenge

Waste becomes fuels. The world becomes better. Introduction to Enerkem BANZ Municipal Biogas Conference August 14, 2014

100% Biobased PET: A Sustainable Approach to Fiber, Film, and Bottles.

Biogas Production from Lignocellulosic Biomass

Processing Recalcitrant Feedstocks in a Biorefinery

Value Maximization through PRAJ's 2nd Generation Smart Bio Refinery. Amol Sheth October, 17 th 2016

ENABLING THE BIO-ECONOMY

Thailand Sugar Industry and Opportunities. 28 January 2016 Upsorn Pliansinchai Vice-President, Mitr Phol Innovation and Research center

ECN Research and Development in bioenergy

Enerkem: A waste-to-biofuels solution for China

Mobilisation and utilisation of recycled wood for lignocellulosic(lc)bio-refinery processes. Dr. Guido Hora, Fraunhofer WKI, GERMANY

DENSIFYING & HANDLING AFEX BIOMASS: A COOPERATIVE RESEARCH PROJECT

DuPont BioFuels: Strategy, Progress and Next Steps

Challenges in the future bio-based economy

Transcription:

The sunliquid process - cellulosic ethanol from agricultural residues Dr. Ing. Paolo Corvo Biotech & Renewables Center

Introduction to Clariant and the Biotech & Renewable Center Dr. Ing. Paolo Corvo Biotech & Renewables Center

3 Clariant Key Facts World leader in colors, surface effects and performance chemicals Annual sales of CHF 6.0 billion in 2012 Headquartered in Muttenz near Basel, Switzerland World-wide operations with more than 100 group companies Approximately 21,200 employees Products and services of 7 Business Units are based on innovative specialty chemicals Clariant acquired Süd-Chemie in 2011 and as of July 2012 Süd-Chemie is officially integrated into Clariant

4 Clariant has a worldwide presence Revenue split 2012 North America 16% Europe 37% Countries where Clariant is represented Asia / Pacific 23% Latin America 15% Middle East & Africa 9% Clariant is represented in over 70 countries Focused investments in high-growth countries, Global production and safety standards

5 Clariant s Products and Services are delivered through 7 business units Additives Additives for plastics, coatings, adhesives, incl. flame retardants, waxes etc. Masterbatches Color and additives concentrates/ technical composites for plastics Catalysis & Energy Catalysts for chemical, refining and autos Lithium Battery materials Oil & Mining Services Chemical solutions serving refining and mining industries Functional Materials Adsorbents, solutions for protecive packaging and water treatment Pigments Organic pigments, pigment preparations, and specialty dyes for coatings etc. Industrial & consumer specialties Application solutions for consumer care and industrial markets

6 Clariant s dedicated Biotech and Renewable R&D site complements its green strategy Green strategy Renewable feedstock as the basis for development of sustainable biofuels and green chemicals Biotechnology as part of a strong technology platform for renewables Key facts Located in Munich and Straubing (Bavaria) Start in 2006, currently >75 employees Lab and office space: 3,300 m² Demonstration plant: 2,500 m²

7 Biotech & Renewable Center is developing industrial processes for bio-based products Biotechnology Screening Pilot plant Industrial processes Isolation and optimization biocatalysts & microorganisms Detection and selection of biocatalysts Process development Upscaling Since 2009 Synergies between technology platforms (incl. chemical catalysts) New products

8 Milestones to industrial deployment Biotech R&D center established in Munich Acquisition of Süd- Chemie by Clariant Industrial scale sunliquid tech license 2006 2007 2008 2009 2010 2011 2012 2013 Strategic move into Biotech & Renewables Start-up of pilot plant for cellulosic ethanol Start-up of demo plant in Straubing, Germany

The sunliquid technology SUSTAINABLE AND ECONOMIC CELLULOSIC ETHANOL Dr. Ing. Paolo Corvo Biotech & Renewables Center

10 sunliquid - An ideal platform for the production of sustainable solutions at large scale Technology Technology Designed Microorganisms sunliquid Technology Platform Enzymes e.g., Ethylene Oxide Green Ethylene Product Product 2G Sugars Cellulosic Ethanol Fermentation Green Chemicals Biofuels e.g., Organic acids

11 Biomass resources alternatives What s in a hectare of wheat? 6-7 t grain = 4.0 4.5 t sugars as starch 4-5 t straw = 3.0 3.5 t sugars as lignocellulose

12 sunliquid offers a competitive path to cellulosic ethanol Key features and advantages Integrated enzyme production Fermentation of C6 and C5 sugars into ethanol Feedstock and process specific enzymes Energy saving ethanol separation technology

13

14 Transformation from agricultural residues to pure ethanol 1 hectare wheat 4-5 tons of straw 1 ton of ethanol

15 There are several key challenges in the production of cellulosic ethanol Challenges High process yields Low operating costs Low investment costs Sustainable process Process solutions Feedstock-specific reaction conditions Enzymes specific to feedstock composition All sugars (C5/C6) to ethanol Integrated enzyme production Energy-independent Proven (bio)chemical process technology Scalable to production scale No food vs. fuel controversy Ethanol is nearly carbon-neutral Process is energy self sufficient

16 sunliquid offers solutions to the key challenges in the production of cellulosic ethanol Challenges High process yields Low operating costs Low investment costs Sustainable process Process solutions Feedstock-specific reaction conditions Enzymes specific to feedstock composition All sugars (C5/C6) to ethanol Integrated enzyme production Energy-independent Proven (bio)chemical process technology Scalable to production scale No food vs. fuel controversy Ethanol is nearly carbon-neutral Process is energy self sufficient

17 sunliquid offers solutions to the key challenges in the production of cellulosic ethanol Details on next page Challenges High process yields Low operating costs Low investment costs Sustainable process Process solutions Feedstock-specific reaction conditions Enzymes specific to feedstock composition All sugars (C5/C6) to ethanol Integrated enzyme production Energy-independent Proven (bio)chemical process technology Scalable to production scale No food vs. fuel controversy Ethanol is nearly carbon-neutral Process is energy self sufficient

18 Using its world-leading screening expertise, Clariant has developed feedstock-specific enzymes Highlights Ultra high-throughput screening Optimization of enzymes and microorganisms Evaluation of up to 100,000 samples per day Large spectrum of assay formats possible Optimized feedstock-specific enzymes already developed for various feedstock, including Corn stover Sugarcane bagasse Wheat straw

19 sunliquid offers solutions to the key challenges in the production of cellulosic ethanol Details on next page Challenges High process yields Low operating costs Low investment costs Sustainable process Process solutions Feedstock-specific reaction conditions Enzymes specific to feedstock composition All sugars (C5/C6) to ethanol Integrated enzyme production Energy-independent Proven (bio)chemical process technology Scalable to production scale No food vs. fuel controversy Ethanol is nearly carbon-neutral Process is energy self sufficient

20 sunliquid technology enables to convert all types of sugars to cellulosic ethanol Utilization of all components from lignocellulosic biomass Biogas Ash Proteins Fat Undigest. sugars Cellulose Ethanol Energy Lignin Hemicellulose Proprietary fermentation microorganism developed by Clariant Simultaneous conversion of all sugars to ethanol One-pot-reaction, patented process Energy independence by using Lignin as integrated on-site an energy source

21 sunliquid offers solutions to the key challenges in the production of cellulosic ethanol Details on next page Challenges High process yields Low operating costs Low investment costs Sustainable process Process solutions Feedstock-specific reaction conditions Enzymes specific to feedstock composition All sugars (C5/C6) to ethanol Integrated enzyme production Energy-independent Proven (bio)chemical process technology Scalable to production scale No food vs. fuel controversy Ethanol is nearly carbon-neutral Process is energy self sufficient

22 The integrated enzyme production significantly lowers the enzyme costs per gallon of Ethanol Advantages of integrated enzyme production Low substrate cost Enzymes are produced on lignocellulosic substrate No additional utilities Enzyme production is process and plant integrated Enzyme cost comparison USD/gallon Ethanol 4.50 4.00 3.50 3.00 No formulation and logistics 2.50 Enzymes are produced directly where needed 2.00 Feedstock and process-specific enzymes No one-size-fits-all solution Independent from enzyme suppliers No additional margins due to pricing strategy 1.50 1.00 0.50 0.00 Enzyme benchmark 2007 Enzyme benchmark 2009 Enzyme benchmark 2012 sunliquid status today

23 With an integrated enzyme production, sunliquid is independent from enzyme suppliers sunliquid : Process-integrated enzyme production Cellulase Production Minerals, etc. Feedstock Pretreatment Hydrolysis Fermentation Product Isolation Ethanol Alternative: External off-site, on-site or hub-solution: C- source Minerals, etc. Cellulase Production Utilities Purification, Stabilization, Storage Transportation, Logistics Handling, Storage Feedstock Pretreatment Hydrolysis Fermentation Product Isolation Ethanol

24 sunliquid offers solutions to the key challenges in the production of cellulosic ethanol Details on next page Challenges High process yields Low operating costs Low investment costs Sustainable process Process solutions Feedstock-specific reaction conditions Enzymes specific to feedstock composition All sugars (C5/C6) to ethanol Integrated enzyme production Energy-independent Proven (bio)chemical process technology Scalable to production scale No food vs. fuel controversy Ethanol is nearly carbon-neutral Process is energy self sufficient

Relative energy consumption 25 sunliquid reduces the energy consumption in the downstream processing 120% 100% 80% 60% 40% 20% Highlights Proprietary ethanol separation process with very low energy consumption Based on Clariant-technology Patented process and material Well-integrated in the sunliquid -process 0% Standard DSP technology Proprietary tech. Proprietary tech. optimized

26 sunliquid offers solutions to the key challenges in the production of cellulosic ethanol Details on next page Challenges High process yields Low operating costs Low investment costs Sustainable process Process solutions Feedstock-specific reaction conditions Enzymes specific to feedstock composition All sugars (C5/C6) to ethanol Integrated enzyme production Energy-independent Proven (bio)chemical process technology Scalable to production scale No food vs. fuel controversy Ethanol is nearly carbon-neutral Process is energy self sufficient

27 sunliquid offers a high-performance process package Key features of the sunliquid process Production costs get competitive to 1G biofuels Process works flexible for different renewable feedstocks High process yield of 250-320 liter EtOH per ton of biomass Energy neutral for EtOH production No additional fossil energy needed Nearly carbon neutral GHG reductions of about 95% compared to fossil fuels No food vs. fuel controversy, no land use change concerns

28 Pilot plant operational since 2009

29 The demonstration plant for cellulosic ethanol in Straubing is on-stream Key facts Dimensions: 60m x 30m x 15m Feedstock: Output: ~ 4,500 t/a wheat straw 1,000 t/a (335,000 gal/year) Location: Straubing-Sand, competence center for renewable feedstock Inaugurated: July 20 th, 2012

30 Images from inside the demonstration plant Lignocellulosic biomass Pre-treatment Hydrolysis Fermentation

31 sunliquid for the production of cellulosic ethanol from agricultural residues Site Plot Plan as proposed for commercial scale plant during engineering study

32 Clariant s licensing model for commercialization of the sunliquid process sunliquid license agreement Integrated process technology package including all steps along the ethanol production chain sunliquid supply agreement Starter cultures for process integrated enzyme production (delivery for each new propagation to maintain best performance) Starter cultures for the proprietary fermentation organism which converts C 5 and C 6 to ethanol (delivery for each new propagation to maintain best performance) Proprietary ethanol separation (material delivered by Clariant to maintain high product purification)

33 Timeline for industrial commercialization by 2013 Current phase Platform technology able to provide cellulosic sugars, ethanol, and C2 chemicals Pilot plant has been operational for over 4 years since 2009 Demonstration plant is on-stream and operating Technology validation at demonstration plant level Identification of potential commercialization partners Technology package ready for industrial-scale by 2013

34 For further information please contact Dr. Ing. Paolo Corvo Business Development Manager Biofuels Europe Biotech & Renewable Center Phone: +49 173 7357 015 E-mail: paolo.corvo@clariant.com Clariant Produkte (DE) GmbH Staffelseestraße 6 81477 Munich Germany