20 TWh biodrivmedel genom jäsning - bioteknik. 2011-10-26 KSLA Seminarium Jan Lindstedt SEKAB E-Technology

Similar documents
The sunliquid process - cellulosic ethanol from agricultural residues. Dr. Markus Rarbach Group Biotechnology Biofuels & Derivatives

for 2nd Generation Biofuel Technology (Proven Equipment = Easy ScaleS

Biorefinery concepts in the paper industry

Borregaard's orchestrating biorefinery concepts

BALI demo plant for co-production of bioethanol and green chemicals

G u d b r a n d R ø d s r u d Te c h n o l o g y D i r e c t o r B u s i n e s s D e v e l o p m e n t B o r r e g a a r d A S

Using Straw and MSW for Biorefineries in Denmark Technical Developments and Demonstration Activities

Study Guide. Biofuel vs Petroleum-based fuel Exam questions will relate the lectures to each other

Business strategy: dal progetto Pro.E.Sa agli investimenti per la realizzazione degli impianti

ABENGOA. Second-Generation Biofuels: Ready for Take-off. Analyst and Investor Day. Javier Salgado Leirado Executive VP

HYPE. High Efficiency Consolidated Bioprocess Technology for Lignocellulose Ethanol

Process Technology. Advanced bioethanol production and renewable energy generation from ligno-cellulosic materials, biomass waste and residues

The LignoRef project; - A national research initiative to enhance biorefinery process developments in Norway -

New Energy Solutions from Biosciences: Research Activities at the Energy Biosciences Institute

Forward. Contents. Bioenergy Development Plan

Sustainable production of biogas and bioethanol from waste

FAO Symposium on. The role of agricultural biotechnologies for production of bio-energy in developing countries"

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

INDUSTRIAL BIOTECHNOLOGY. Production hosts for real-life feedstock utilization

Welcome to the World s most advanced biorefinery! Majvi Brandbu Business Development Manager

Introduction to our Business in Valmet. Marita Niemelä VP, Strategy Pulp & Energy 20 August 2014

Production of 2nd generation bioethanol from lucerne with optimized hydrothermal pretreatment

How To Model Biomass

Basics of Kraft Pulping & Recovery Process. Art J. Ragauskas Institute of Paper Science and Technology Georgia Institute of Technology

From Biomass. NREL Leads the Way. to Biofuels

Control of fermentation of lignocellulosic hydrolysates

Creating value from wood The Borregaard biorefinery

FREMTIDENS BIORAFFINADERI

Second generation bioethanol: challenges and perspectives. Dr. Andre Koltermann, Group Vice President, Central R&D, Süd-Chemie AG

Ethanol from lignocellulose overview. Neue Krafstoffe Berlin, 6. Mai 2008

WASTE TO ENERGY TECHNOLOGY.

Biofuel Feedstocks and Production

Gasification of Biomass for Syngas generation at ETC

Sweden. Biofuels Annual. Clearance Office: All - FAS. Date: 6/24/2009 GAIN Report Number: SW9008

MODERN TECHNOLOGIES FOR ENERGY AND MATERIAL RECOVERY FROM WASTE. Tomáš Rohal, Business Development CEEI 10-Oct-2013

The Feedstock Supply Chain and Centers of Energy Excellence Update

Efficient forest biomass supply chain for biorefineries A project for cross border cooperation

Renewable energy in transport

Mobilizing agricultural crop residues for energy and higher value bio-products

Techno-economic and ecological evaluation of a wood biorefinery

PROESA TECHNOLOGY. Break-through Technology for Producing Advanced Bio-Fuels and Renewable Chemicals from Cellulosic Biomass.

Assignment 8: Comparison of gasification, pyrolysis and combustion

How To Improve Energy Efficiency In The Paper Industry

Grön plast -- polyeten från biomassa

Top Global Challenges. GT Chem 2312 Students ENERGY WATER FOOD CHEM 2312 ENVIRONMENT TERRORISM & WAR

Efficient conversion of starch and cellulose from co-products of food industry and agriculture to ethanol

PEGRES project. Paper, bioenergy and Green chemicals from nonwood RESidues by a novel biorefinery. Juha Tanskanen

CHOREN. Development of integrated biomass supply chains in South East Asia. Tsukuba, 28 rd of October 2009

Chemtex Group. Global Engineering and Project Solutions

Valmet biotechnologies and pyrolysis status update. Joakim Autio Product manager, Pyrolysis systems Valmet

Municipal Solid Waste Used as Bioethanol Sources and its Related Environmental Impacts

The heat plant Future biorefinery. Panndagarna 2015 Västerås, April

Lowering Cost of Bio-Ethanol Production Using Electrolytic Process. Authors: Ricardo F. Caro Electrosep, Inc Robert Hurter HurterConsult Incorporated

Metsä Fibre s Bioproduct mill

How To Gasify Wood And Agriculture Biomass

Local production of bioethanol to meet the growing demands of a regional transport system

Uusiutuvien teknologioiden kehittäminen yhteistyössä partnereiden kanssa

Biorefinery competence building in Norway

A Hybrid Catalytic Route to Fuels from Biomass Syngas Alice Havill Senior Process Engineer Project Principle Investigator

Tutkimuksen merkitys menestyvässä liiketoiminnassa- Innovaatiosta tuotteeksi

Stand-alone and Biorefinery ways to produce bioenergy from solid biodiesel wastes in Colombia

Papapostolou 1, E. Kondili 1, J.K. Kaldellis 2

The Macroalgae Biorefinery (MAB3) with Focus on Cultivation, Bioethanol Production, Fish Feed and Sustainability Assessment

State of the art of solid biomass technologies in Germany

How to build a comprehensive knowledge platform in Norway Opportunities through cooperation Potential for a "Norwegian BIC"

Bioethanol the third way

Scientific Research in Renewable Energy in Brazil

Biofuels and Renewable Energy

COMMERCIAL EXPOSURE OPPORTUNITIES

Gasification activities at ETC and Solander Science park

From forest to gas in the transmission system. Ulf Molén,

Michigan Tech s Wood to Wheels Initiative. David D. Reed, Ph.D. Vice President for Research

The world s most advanced biorefinery! Gisle L Johansen Senior Vice President R&D and NBD

The IMES Master Programme

BBI JU Calls 2015 Strategic priorities, content and timing. Agata PIENIADZ BBI JU Project Manager Info Day, 26 June 2015

The BioEconomy: an Opportunity for Europe!

Bioethanol Technology and Future Opportunities

Supply Chain Comparison. COEE Project 1

Task 37 Energy from Biogas Biogas from Energy Crop Digestion

12:10 Lysotherm : 5 jaar ervaring met innovatieve slibhydrolyse. Bert Geraats (Eliquo)

Glycell TM Technology for cost effective sugar intermediates. 12 th Annual World Congress on Industrial Biotechnology July 2015

Sustainable products from economic processing of biomass in highly integrated biorefineries

The global need for sustainable food, fuel and fibre production

Biofuels in Sweden: national verification system for sustainability

Dan Madden, PE, CEO Tim Lowe, PhD, VP Sales Hybrid Energy Technologies

Smart Energy Systems Energy Efficient Buildings and the Design of future Sustainable Energy Systems

Bio renewable Resources Platform. Ton Runneboom, Chairman

Lignin Structure and Applications. Göran Gellerstedt

Mauricio Boscolo. Areas of interest: Bioenergy Food chemistry (Alcoholic beverages composition) Sucrose derivatives

A REVIEW ON SECOND GENERATION BIOFUEL: A COMPARISON OF ITS CARBON FOOTPRINTS ABSTRACT

Research on gasification and biorefineries at the University of Jyväskylä

Lesson 6. BioMara gratefully acknowledges the following funders: Content Section - How Algae can be used to produce Biofuel.

THE PRACTICAL, PROVEN PATH TO GREEN ENERGY. RTP rapid thermal processing from Envergent Technologies

White liquor composition and calculations

Innovative technology solutions for sustainable development Abengoa in the USA

BUILDING THE BUSINESS CASE FOR LARGE-SCALE UTILIZATION OF FOREST RESIDUES AS FEEDSTOCKS FOR PRODUCTION OF ENERGY COMMODITIES:

ABENGOA BIOENERGY The global biotech ethanol company

Biomass Renewable Energy from Plants and Animals

Integrating a Renewable Energy Degree into an Existing Mechanical Engineering Program

Biorefineries and Biomass: Options for the Chemical Industry

Transcription:

20 TWh biodrivmedel genom jäsning - bioteknik. 2011-10-26 KSLA Seminarium Jan Lindstedt SEKAB E-Technology

The SEKAB Group www.sekab.com SEKAB E-Technology SEKAB BioFuel Industries SEKAB BioFuels and Chemicals R&D and commercialization of cellulosic ethanol ~30 employees Bioethanol based Green chemicals Biofuels ED95 & E85 ~80 employees Swedish company owned by regional energy companies and private investors Thermal efficiency Ethanol up to 43% Diesel up to 44%

Ethanol - DF CO2 - Linde Cellulose - DF Research - MoRe - Umeå Univ. Energy - Ovik Energi Planned Torrefication - BioEnDev Engineering - Eurocon Ethanol - fuels -Chemicals - SEKAB Cellulose Derivatives - Akzo Nobel Lignosulfonate - DF Planned Black Liquor Gasification - DF/ Chemrec CHP -Ovik Energi Biogas - DF The Domsjö Wood Based Biorefinery One of Top 3 in Europe

Ethanol production pathways Source: Raphael Slade, Imperial College, London

SEKAB focus 40 % cellulose 26 % hemicellulose 25 % lignin Scaling up and economy - productivity in continuous operation - raw material flexibility - plant design/ investment costs - scaling up of bioprocesses - process integration Acid / Enzymes Yeast CO 2 CO CO 2 2 CO 2 CO 2 Hemicellulose and Cellulose Monosugars C6 + C5 CH 3 -CH 2 -OH CH 3 -CH 2 -OH CH 3 -CH 2 -OH CH 3 -CH 2 -OH CH 3 -CH 2 -OH Ethanol + CO 2

E-Tech Biofuels Process Base Configuration

E-Tech business strategies Technology development and verification in demo plant on contract basis and in collaborations with universities, institutes and companies Revenues from: Consulting services such as feasibility studies Process engineering and preengineering design packages Technology licenses

Sulphite liquor ethanol plant Demo plant cellulosic ethanol

Demo Plant Fully integrated from cellulose feedstock to distilled ethanol Operated 24h/ 7d Dilute acid + enzymatic hydrolysis Two continuous flow-through thermochemical reactors Five 10 m 3 bio-reactors Yeast cultivation GMM certified Flexible Process configurations Feedstocks Other biorefinery applications (sugar platform) Capacity, 2 tons of dry wood chips / 24 h

Demo Plant 1. Raw material intake 2. Feeding vessel 3. Steaming and impregnation 4. Pretreatment 5. Neutralisation and inhibitor control 6. Enzymatic hydrolysis and fermentation 7. Yeast propagation 8. Distillation 9. Product tank 10. Filter press 11. Solid material to incineration 12. Liquid to incineration/ biogas production 13. Evaporation Equipment www.sekab.com

Achievements Experience > 31 000 hours of accumulated operation High availability, good control Continuous uninterrupted operation for 3 weeks Yields from spruce wood (glucose from cellulose % of theoretical) ~ 50 % for 2-stage dilute acid > 70 % for enzymes. > 4 % ethanol concentration. GMM C5 - yeast succesfully tested Increasing number of feedstocks

What is unique for the E-Tech Process Combination of: Patent protected process solutions/ methods/ integrations 12 Patents/ applications Process know-how Extensive experiences from operation of continuous demo plant A strong CelluloseTechnology Platform with an extensive research and industrial network. Collaborations with; Universities and Institutes national and international Biotech companies active in development of enzymes and pentose fermentation Engineering companies and equipment suppliers with extensive experience from cellulose and ethanol processing

Cellulose feedstocks - Pine - Birch - Poplar - Tops and Wood chips Spruce branches Pulp fibers Sugarcane bagasse Wheat straw Corn cobs Corn stover Strong focus on wood cellulose in Swedish ethanol research programmes Increasing focus on agro materials

Integration options Biorefinery Cellulose-annexe Energy Raw material Energy Integration/exchange Biomass Energy Raw material Integration options 1 st generation ethanol plant Chemical plant Heat & power Pulp & paper Products

Energy Balance for Cellulose to Biofuels Plant Ethanol Total energy efficiency ~ 80-85 % Ethanol plant Wood 1) Solid fuel Biogas Fuels/ Heat/ Power Energy losses 2 ~15-20 % 1) Spruce 2) Energy need for ethanol plant included

20 TWh Cellulose Ethanol TWh/y Ethanol Plant, (150 ml, 5,9 kwh/l) 0,9 Ethanol (23 plants) 20 Biogas 8 Lignin 25 Total 53 Feedstock (30% energy, ethanol yield) 67

20 TWh Cellulose Ethanol and biogas TWh/y TWh/y Ethanol Plant, (150 ml, 5,9 kwh/l) 0,9 Ethanol (23/16 plants) 20 14 Biogas 8 6 Lignin 25 18 Total 53 37 Feedstock (30% energy, ethanol yield) 67 47

CEG production cost development

THANK YOU! www.baff.info www.sekab.com www.biofuelregion.se jan.lindstedt@sekab.com