At Continuous Pilot Scale DIGESTATE (FERTILIZER)

Slides:



Advertisements
Similar presentations
By: Schmeltz Vanessa ; Di Pascoli Thomas
Advertisements

Biobased products: Challenges and opportunities
AlgaePARC biorefinery
Biorefining – Introduction, Opportunities and Challenges
From Waste to Algae Viability of carbon dioxide and wastewater utilization for algae biofuel production.
Biorefinery, the bridge between agriculture and chemistry Marieke Bruins,
QUESTIONS/PROBLE MS  How do we produce a form of energy that can cut on air pollution?  What form of energy can replace the need for petro diesel after.
Recovery of Residual Oil Wim Mulder, Paulien Harmsen, Patrick Carre Sustoil, Foggia 24 April 2009.
Production of algal biomass in coastal lagoons Søren Laurentius Nielsen Department of Environmental, Social and Spatial Change Roskilde University, Denmark.
A European project supported through the Seven Framework Programme for Research and Technological Development BIOFAT – BIOfuel From Algae Technologies.
Growing Chlorella for Algae-Oil Biofuels and Aquaculture Feeds Aquaculture Sustainability Conference Yantai, China Kevin Fitzsimmons and George Lin.
Production of algae coupled to anaerobic digestion in a closed vessel system for bio- fuel production In cooperation with.
EXPLOITING THE POTENTIAL OF BIOFUELS Don Cranfield, Plumpton College 19 July 2007.
Sunflower Integrated Bioenergy Center SIBC. Kansas Bioscience Authority NISTAC (National Institute for Strategic Technology Acquisition and Commercialization)
Fish Meals from Fish Byproducts
Hydrolysis and dehydration synthesis Standard 4 key idea 3 performance indicator 1.2 major understanding 1.2h.
Microalgae as a biofuel feedstock: risks and challenges Presentation By: Liandong Zhu Trends and future of sustainable development.
University of Natural Resources and Life Sciences, Vienna Department of Economics and Social Sciences Hoeltinger, Schmidt, Schoenhart, Schmid Optimal Supply.
Ahmed Atta A Introduction  Algae are a diverse group of primarily aquatic, single celled, plant like organisms. Most algae have characteristics.
BREW Generic Approach by Martin Patel (Un. Utrecht) Tim Nisbet (Shell) Peter Nossin (DSM) BREW plenary meeting - September 9, 2003.
Making Biorefineries Competitive: PRO.E.SA TM The only sugar platform available today Guido Ghisolfi June 8, 2012.
Anaerobic Digestion of Biodiesel and Biodiesel Waste Products James Duncan.
REVIEW BIOLOGY 1 MYP VOCABULARY #3. PHOTOSYNTHESIS Is the overall process by which sunlight (solar energy) chemically converts water and carbon dioxide.
High Rate Thermophilic Anaerobic Membrane Bioreactor for Wastewater Treatment by Kaushalya C. Wijekoon Master Student (st107821) EEM/SERD Wastewater Ξ.
Rational and Significance Shannon Ethier and Kevin Woisard Biological Systems Engineering Department, Virginia Tech Acknowledgements: Z. Wen, D. Vaughan,
An Integrated Bioenergy System at UW-Platteville Chris Baxter UW-Platteville School of Agriculture UW-Extension Nutrient Management.
How do we convert this into a resource?. Is this really the best the we can do with R200million?
Extraction of Peptides and Amino Acids Wim Mulder Sustoil, Foggia 24 April 2009.
Evaluating inputs for organic farming – a new system Case study: Hydrolysed proteins Chris Koopmans 13 October 2005.
‹#› of [total number of slides] This project has received funding from the European Union’s Horizon 2020 research and innovation programme.
ECOLOGY Chapter 3 - The Biosphere. What is Ecology? It is the scientific study of interaction among organisms and between organisms and their environment.
Biomass/Bioenergy-related Research Kansas State University.
BIOSYNTH: A software for the automatic generation of superstructures for biorefineries National Technical University of Athens 1 RENESENG MTR meeting.
Carbon Dioxide Flue Gas Heat & Power Generation Biomass Producti on Nutrie nt Remov al Biogas Producti on Ryan Hunt, Senthil Chinnasamy, and KC Das Biorefining.
Basic Biochemistry VERY BASIC. Matter Anything that has mass and takes up space. Anything that is not matter is energy.
Objective Why micro-algal biodiesel? Process Flow SheetExtraction Biodiesel Economics References Algae Production This section is where the oil is separated.
Biomaterial Industry of The Future USDA S1007 Nov 6-7, Washington DC X. Susan Sun Kansas State University Manhattan, KS
Biobased business opportunities Bioenergy Networks and Biomass Potentials - Valorising European Organic Residues 24 September 2015, Brussels Paul Gosselink,
Fossil Fuels Most of our energy needs are met by burning fossil fuels such as coal, petroleum and natural gas. Coal is used to generate electricity and.
Master Thesis May 2010 New Pretreatment Methods for Lignocellulosic Residue for Second Generation Bioethanol Production Student: Yadhu Nath Guragain ID:
S-1007 Multi-State Research Committee
Opportunities for Integration of Forest By-products with Conventional Industry Siddharth Jain, Maryam Akbari, Amit Kumar * Department of Mechanical Engineering,
120 April 2016SPIRE Projects´ Conference 2016 Turning waste from steel industry into valuable low cost feedstock for energy intensive industry SPIRE Projects´
Algae : A new valuable resource for emerging challenges of world agriculture Dr H. DEMAIS Scientific Manager OLMIX S.A Washington – March 22 nd 2013.
How to organize the Governance in the Bio-Economy Role of Bio-based industries JU 13 April 2016 Philippe Mengal Executive Director.
ARIMNet2 Young Researchers Seminar Cristina TOMÁS
Driving question: How do cows grow? 1.What does a cow need in order to grow? 2.How does a cow use these things in order to grow?
Colin Robertson 04 September 2013 Biofuels Series: Anaerobic Digestion
Cellulosic Ethanol Snoop Loops Addison, Kane, Samantha.
Chapter 4: Biofuels from Algae and Seaweeds
Colin Robertson 27 February 2013 Enerman Technology Showcase
Javier Brañas A fertiliser company in the most relevant of the bioeconomy initiatives in Europe.
“Update and expand the scope of Biosystems Engineering programs of studies placing emphasis in the areas of bio-fuels, bio-materials and quality of products”
2nd International Conference on Algal Biorefinery, DTU, Lyngby, Denmark 27th – 29th August 2014 Microalgae as a protein rich livestock feed ingredient.
23/07/2018 Key issues WP 2 Sustoil, Foggia 24 April 2009.
Creating a business case for value added algae bio-refining
Status of CO2 Capture Using Algae
Valorisation of rapeseed meal for microbial astaxanthin production
Biodiesel From Microalgae
Lesson 2: What Makes Up Our Food?
A one-pot procedure for the efficient fractionation and
Picture of the plant Name of the plant (City, Country)
Food June 2018, Plovdiv Philippe Mengal
Green Chemistry and the ocean-based biorefinery
Hinrich Uellendahl Section for Sustainable Biotechnology
Optimized treatment, recycling and use of degassed biomass as fertilizer Tyge Kjær Roskilde University
BRC Science Highlight Lignocellulosic biomass conversion residue transformed into medium-chain fatty acid bioproducts Objective Investigate the potential.
Tek. Bioenergi (TKK-2129) Instructor: Rama Oktavian
Aim: Organic Compounds # 2 - Proteins
New solutions to treat dairy wastewater
Presentation transcript:

At Continuous Pilot Scale DIGESTATE (FERTILIZER) A network of technological centers to develop A microalgal-based biorefinery 4. SEQUENTIAL VALORIZATION OF DEFATTED BIOMASS INTRODUCTION It is presented a pilot-scale biorefinery implementation where heterotrophic production of Chlorella protothecoides is combined with the use of agri-food waste as source of nutrients. A subsequent integral processing of algal biomass results in different algae-based products for energetic, chemical and agricultural sectors which brings the process closer to the goal of "zero waste". 4.1. Amino acids recovery by enzYmatic hydrolysis PROTEIN HYDROLYSATE PRODUCT DEFFATED BIOMASS RAW MATERIAL Viscozyme + Alcalase + Flavourzyme COMPOSITION Extruded Residue Solid/Liquid Separation - Glucose+Frutose= 230 g/L - Amino acid = 9.7 g/L FRUIT WASTE HYDROLYSATE 1. AGRI-FOOD WASTES PROCESSING BY TWIN-SCREW STRUDER Figure 1. Scheme of fruit waste hydrolysis by extrusion process. Raw material (plums) was supplied by a local French Fruit Processing Company. Solvent: water COMPOSITION Input - Total N= 3.2 g/L - Amino acids = 10 g/L - Glycerol = 28 g/L - Glucose =1.5 g/L PROTEIN-EXTRACTED RESIDUAL BIOMASS RAW MATERIAL 4.2. Anaerobic digestion BIOGAS At Continuous Pilot Scale 196 Nm3 CH4/T Organic Matter Figure 4. Cascade-valorization of de-fatted biomass: 20% was turned into a nutrient-rich solution and the remaining 80% was anaerobically digested for the production of biogas. Biogas digestate was tested as soil fertilizer in tomato seed–bed with comparable results to those of a commercial fertilizer. DIGESTATE (FERTILIZER) Figure 2. Biomass chemical composition. 2. HETEROTROPHIC PRODUCTION OF C.PROTOTHECOIDES BIOMASS Scale up: 5-L to 1000 L Fermenters 5. IMPLEMENTATION IN AN INTEGRATED BIOREFINERY APPROACH Fruit Waste 3. OIL EXTRACCTION: BIODIESEL AND 3 CO-PRODUCTS Figure 3. Scheme of the used oil extraction process showing the four resulted products: fatty acids suitable for biodiesel production and 3 recoverable co-products. BIODIESEL PROPERTIES (EN14214)    Source of bioactive molecules STEROLS, CAROTENOIDS Figure 5. The applied biomass exploitation scheme, allows reaching four closed loop-flows for nutrients and energy. The product yields per ton of dry-weigh produced biomass (at pilot scale) are indicated CONCLUSIONS and FUTURE PROSPECTS The implemented biorefinery scheme offers potential to increase the sustainability and economic feasibility of microalgae-based biodiesel industries. Techno-economical analysis and Life Cycle Analysis is being conducted. Alternative uses for de-fatted biomass (e.j. feed) and for glycerol fraction (e.j. building blocks production) will be evaluated. The project CYCLALG: A network of tecnologycal centres to developed a microalgae biorefinery. (EFA037/15) has been 65% cofinanced by the European Regional Development Fund (ERDF) through the Interreg V-A Spain-France-Andorra programme (POCTEFA 2014-2020).