PlantBio s initiatives in

Similar documents
Biofuels Production vs. Food Security

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

Sugar Industry Restructuring by Implementing Biorefinery Technology

MORE THAN 45 YEARS DEDICATED WORK

Plant biotechnology and the future of ethanol

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

Energy & Food Security:

The case of switchgrass C. Neal Stewart, Jr.

20. September 2012 Trieste, CEI Meeting

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

On the Road to a New Sweet Sorghum Industry in the USA

Environmental Life Cycle Assessments of Biofuels

What is Biomass? Biomass plants animal waste photosynthesis sunlight energy chemical energy Animals store

Planting sweet sorghum under hot and dry climatic condition for bioethanol production

Biomass and Biofuels. Biomass

BACKGROUND. Fermentable sugars (16%) Fibre for cellulosic bio-fuel or electricity (15%) Large existing production areas, surplus sugar

Florida Water Availability and Water Needs In 2020, Chuck Aller Florida Department of Agriculture and Consumer Services February 28, 2008

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

Advisor. Government of India Ministry of Environment and Forests New Delhi

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

Bio-based Feedstocks for Fuels and Chemicals

Biotechnology: New Tools for Sustainable Biofuels Production

Prospects for the New Bioeconomy

Proceedings of the 2007 CPM Short Course and MCPR Trade Show

Chromatin, Inc. Integrated Feedstocks for Cleantech. WTBC: Developing a Technology Business: Bioscience July 29, 2011

Click to edit Master title style

Sugar/Energy Canes as Biofuels Feedstocks

The Next Generation of Biofuels

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

ENERGETIC AND WATER COST RELATED TO THE CULTIVATION OF ENERGY CROPS: GENERAL PERSPECTIVES AND A CASE STUDY IN TUSCANY REGION (CENTRAL ITALY)

Curtis L. Weller. Department of

The role of 2 nd generation biofuels in tackling climate change with a positive social and economic dimension

USE OF BIOMASS IN THE LIGHT OF CO2 EMISSION AND SUSTAINABLE DEVELOPMENT

On the Road to a New Large-Scale Sweet Sorghum Industry in the USA

Thailand Bioenergy Technology Status Report 2013

Thomas Grotkjær Biomass Conversion, Business Development

THE FUTURE THIS SECTION BROUGHT TO YOU IN ASSOCIATION WITH

Sustainability requirements for the Bio-Based Economy

Challenges in the future bio-based economy

DBT-IOC Integrated Technology for 2G Ethanol

Tailor-made feed stocks Possibilities and challenges

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

EMBRAPA AGROENERGY Focusing on solutions: Biomass for sustainable generation of bioenergy, biomaterials and renewable chemicals.

Industries and Agro-Resources

NOVOZYMES & RENEWABLE CHEMICALS

Cargill Partnership Opportunities for Commercial Fermentations

Advanced biofuels. 1. What are advanced biofuels?

Biofuels A policy driven logistics and business challenge

IBUS Integrated Biomass Utilisation Systems

BioEnergy International, LLC. a Biorefinery Company

Bio-economy Strategy. By: Mr Thabang Bambo Deputy Director: Biotechnology DST Industry-Meets-Science workshop 27 November 2014, Durban

Chapter XVII: Sweet sorghum ethanol value chain: Issues and the way forward

New Approaches for Lignin Processing and Use: An Australian Perspective

Building a Cleaner Energy Bridge to the Future

Product and chain development for Oil Palm

UNIT 5. Biomass energy

Biofuels: Costs and Potential for Mitigating Greenhouse Gases

World Congress on Industrial Biotechnology May, 2014

ENABLING THE BIO-ECONOMY

SEEING THE WORLD DIFFERENTLY

Describe the molecules involved in photosynthesis and used as biofuels.

ABENGOA BIOENERGY NEW TECHNOLOGIES

Trash into Gas: Powering Sustainable Transportation by Plants

Biomass to Renewables Which Technology and Which Product

HAS IRRIGATION CAUSED THE MAIZE SURPLUS? DR PHILIP THEUNISSEN COMPUTUS BESTUURSBURO

Liquid Biofuels for Transport

BREEDING SUGARCANE VARIETIES FOR BIOMASS AND ENERGY. Roy Parfitt SA Sugar Industry Agronomists Association 2006 AGM

Looking at the Economics of the Next Generation of Biofuels

Biomass valorisation in the sugarcane processing industry

Biotechnology and Renewable Chemicals: The Future is Now

Strategies for building the nextgeneration

Green Polyethylene. Antonio Morschbacker Manager Green Polymers Fulbright Commission August 2009

Biomass Energy Slide Index Slide 2: Biomass Energy: What is Biomass? Slide 3: Biomass Energy: Resources Primary biomass Secondary biomass

The New Generation of Biofuels:

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

WEF Experiences and Best Practices from ASEAN and East Asia Venkatachalam Anbumozhi

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

Potential for Sustainable Deployment of Biofuels Under EISA

Biofuels and Biorefineries

Energy Biosciences Institute Linking Biotechnology and Energy. March 25, 2010 Paul Willems, TVP Energy Biosciences EBI Associate Director

Economic Sustainability of Bioenergy Production/Use

Analysis of Life-Cycle Energy Use and GHG Emissions of the Biomass-to-Ethanol Pathway of the Coskata Process under Chinese Conditions

DENSIFYING & HANDLING AFEX BIOMASS: A COOPERATIVE RESEARCH PROJECT

Sustainable Bioproducts Initiative (SUBI) First Year Progress Report. Vadim Kochergin

Biomass Electricity Options for Myanmar

BUILDING BIORESOURCE SUPPLY CHAINS

Fueling the Commercializationof Cellulosic Ethanol

Biofuels and Food Security A consultation by the HLPE to set the track of its study.

The promise of Energy Biosciences. Steven E. Koonin Chief Scientist, BP plc February 2007

Discover. Tropical Sugar Beet.

Biology and Energy Self- Sufficiency

Driving Towards Sustainable Mobility. An Automotive Perspective on Biofuels

Industrial development: Biofuels for transportation

Renewable Energy Systems

Grand Challenges. C r o p S c i e n c e S o c i e t y o f A m e r i c a. Plant Sciences for a Better World

South African National Energy Research Institute Accelerating Renewable Energy Deployment

Meeting the Demands of Food, Feed, and Energy by Sweet Sorghum

One Year Later: Regional Strategy for Biobased Products in the Mississippi Delta. 2 nd Annual Mississippi Renewable Energy Conference

DuPont. Delivering Solutions. Delivering Growth. John Ranieri Vice President DuPont Applied BioSciences

Demonstration of an Integrated Biorefinery

Transcription:

PlantBio s initiatives in bio-fuels

Exploring energy crops in South Africa Antonio Llobell CEO, PlantBio Trust Johannesburg, January 2010

PlantBio Trust National Innovation Centre for Plant Biotechnology Established in 2004 by DST as a part of the National Biotech Strategy Vision To serve and lead South Africa towards developing a sustainable Plant Biotechnology sector that is competitive and world class in specific areas and address poverty alleviation PlantBio is migrating into the new Technology Innovation Agency (TIA)

Industrial Crops and Biofuels PlantBio s thematic area due to national and global relevance Integrating projects in energy crops with different technology approaches Ethanol/Biodiesel crops Plant breeding (molecular markers) Plant transformation and genomics Integrating all aspects required to develop the entire value chain leading to sustainable commercialization Crop improvement/agronomy Fermentation and chemical processes Management of by-products (value addition) Distribution and logistics

PlantBio strategy in biofuels Assessment and update of technology developments and biofuels initiatives globally Definition of priorities considering the South African and African context Crops vs climate and soil availability Technologies developed in SA (possibility to license technologies from abroad) Sustainability of biofuel production Non competition with food crops Use of marginal land Low input (dry land vs irrigation, low fertilizer and pest control costs) Energy balance Environmental impact Economic profitability

The Biofuels value chain Upstream Production of feedstock Starch Fermentable sugars biomass (ligno-cellulose) Downstream Industrial processing of feedstock Biological (fermentation) Chemical Integration of both upstream and downstream aspects is essential

Feedstock Upstream processes Industrial/energy crops First generation Starch crops (maize, sorghum, triticale, cassava) Fermentable sugar crops (sugar cane, sugar beet, sweet stem sorghum) Oil crops (sunflower, soya, rape seed) Second generation (marginal land, low inputs & non food crops) Biomass crops (require ligno-cellulose to biofuel conversion) Forestry trees High biomass sorghum, millet Triticale, bamboo, miscanthus Other sources of biomass Waste Algal biomass

Downstream processes Available: Starch to fermentable sugars Fermentable sugars to ethanol Development: Biomass (ligno-cellulose) to fermentable sugars Fermentable sugars to hydrocarbons (gasoline or diesel) through fermentation using metabolically engineered microorganisms Biomass to hydrocarbons (gasoline/diesel) through chemical processes with favorable energy balance ( low temperature pyrolysis processes)

New technologies: Opportunities for innovation in SA Development of second generation energy crops Transformation of biomass (ligno-cellulose) including byproducts (bagasses) into fermentable sugars Bio-transformation of fermentable sugars into hydrocarbons Chemical transformation of biomass into hydrocarbons using processes requiring low energy input Conversion of fermentable sugars/biomass into industrial products Biopolymers Other chemical industry products Food products

Biomass Ligno-cellulose Opportunities for innovation in SA Collaborative model: Target innovation in emerging areas (biomass to hydrocarbons) Fermentable carbohydrates Gasoline Diesel Polymers Chemicals Food additives Value addition of different by-products (Biorefinery) Integration of R&D with industrial and business development Attracting overseas technologies to be developed/demonstrated in SA Coordination of activities at different levels (R&D, funding) to optimize resources

Sweet stem sorghum as feedstock for ethanol production Late stage provides commercial/social value at short term Early stage creates higher value at long term Bioprospecting New enzymes / microbes Bioprocessing Platform Pretreatment of ligno-cellulose biomass (cane, sorghum, triticale) IP development/management Plant breeding: novel varieties Sorghum, Triticale Tech transfer Evaluation of novel varieties Industrial farming and manufacturing of bio-ethanol

Energy crop trials Sorghum Triticale Sugarbeet Sugarcane

Sweet sorghum varieties vs Grain sorghum varieties in KZN Feedstock Biomass Yield (T/ha) Ethanol Yield (l/ha) Grain sorghum MSJ2 Grain sorghum MSJ 14 SS sorghum MSJ13 SS sorghum SS27 6.0 2,685 4.4 1,969 82 2,482 72 3,470

Effect of different climate and soil on ethanol yield from sweet stem sorghum Variety Eastern Cape Eastern Cape KwaZulu-Natal KwaZulu-Natal Stalk Brix (%) Ethanol (l/ha) Stalk Brix (%) Ethanol (l/ha) MSJ13 16.6 8,621 8 2,482 MSJ5 12.0 6,802 10.2 2,387 MSJ22 16.8 10,093 3.9 1,229 SS27 14.3 5,561 12 3,470

Ethanol yield from various feedstock Feedstock Biomass yield (T/ha) Ethanol yield (l/ha) Sugarcane 60 4,200 Sugarbeet 85 5,950 SS sorghum (MSJ22) 84 10,093

Ethanol yield from grain (sorghum and triticale) Feedstock Grain Yield (T/ha) Ethanol Yield (l/ha) Grain sorghum MSJ2 Grain sorghum MSJ 14 Grain Triticale ABL-6 Grain Triticale ABL-11 6.0 2,685 4.4 1,969 7.4 3,312 7.7 3,313

2 / 3 more years of trials Way forward Inclusion of energy cane and millet (sweet stem, high biomass) in at least three sites Extension of sugar beet trials to at least one more site New trials with bamboo and Miscanthus Development of crop improvement programs (breeding and GM) Exploration of novel downstream processes Co-investment in industrial production facilities