High-value products from Anaerobic Digestion-Norwegian experience

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5th IBBA Workshop on high-value products from biogas systems nutrient extraction and biorefinery approaches Poznań, Poland, August 23rd - 24th, 2017 High-value products from Anaerobic Digestion-Norwegian experience Renata Tomczak-Wandzel, PhD (retw@aquateam.no) Maria Magdalena Estevez, PhD Beata Szatkowska, PhD 1

Ongoing Projects: Utilization of Waste from Marine Food Production to Regional Renewable Energy (RenEnerMar, 2016-2019) Wastewater and Organic Waste Treatment Facilities Net Green Energy, Nutrients and Bio-products Producers (RESERVE1, 2017-2019) 2

Both projects will aim to increase use of organic resources for the production of valuable products: clean energy in form of biogas plant available nutrients intermediate products of anaerobic digestion fertilizer byproducts Specific goals: Increase clean energy production through co-digestion processes at biogas existing plants; Produce VFAs and up-concentrate them, as platform chemicals for conversion into different bio-products; Produce valuable digestate fractions with enriched nutrient content (N:P:K) 3

Funding sources Network Scandinavian R&D funding scheme Norwegian regional R&D funding scheme Private investor DK, NO, SE Public sector (Municipal biogas plants) Bergen's water/sewage company Rogaland's inter-municipal water/sewage company R&D Institute (Project management) Bergen Fundamental R&D Stavanger Applied R&D End users application 4

Utilization of Waste from Marine Food Production to Regional Renewable Energy (RenEnerMar, 2016-2019) Main goal Optimize utilization of organic resources from fish waste available in Western Norway to create public sector values by increasing production of renewable energy at municipal biogas plants. Secondary objectives Determine the optimal sampling ratios for fish waste, sewage sludge and food waste; Determine the potential for increasing methane production using fish waste; Improve quality and nutrient content in the residual product (P and N); Build up local R&D expertise and establish cooperation between public users and suppliers of fish waste. 5

IVAR Stavanger Grødaland Biogas plant (GNA) One of Norway's largest biogas plant for the reception of sludge and food waste (approx. 23 000 tones TS/year). 140 000 t/year - sludge 60 000 t/year organic waste The main raw materials are food waste and sewage sludge. (73 and 24 % dry solids, in 2035). GNA and Sentralrenseanlegg Nord Jæren (SNJ) will be able to cover large parts of the fuel requirement for the region's bus fleet (2035, approximately 80 GWh - 200 buses). Digestate is used for soil mixtures (200 kg dewatered biorest for 1 ton of soil) or for fertilizer production (pellets) Goal: Optimization of phosphorus availability in the fertilizer product (including alternative N-sources in the form of nitrate and potassium (marine waste). 6

Bergen Kommune Rådalen Biogas plant Access to "raw material": Sludge from wastewater treatment plant (10 000 tonnes) Septic sludge (100 tonnes) Food waste (938 tonnes) Oil and grease (200 tonnes) Fish waste Glycol (from Flesland) Designed for anaerobic treatment of food waste and sewage sludge as well as organic waste from the industry in the region. Energy value of approximately 25 GWh/year (ca. 80 buses) Use of digestate not decided yet first option direct land use Goal increase biogas production 7

Project plan WP1 WP2 Evaluation of spare capacity at biogas plants (Bergen; IVAR) and available waste potential for co-digestion Co-substrates characterizations WP3 Laboratory scale Methane potential trials WP8 Pilot scale WP4 Co-digestion trials Roadmap for codigestion WP10 WP5 Management Process operation strategy Laboratory scale WP6 Production of bio-products WP9 Dissemination of results WP7 Laboratory scale P-recovery/use of digestate in agriculture 8

Current Research (WP1,2,3 RFF Vestlandet Project) Substrates tested and used so far: WWTP sludge: Bergen's municipal WWT plant IVAR's regional WWT plants Fish sludge: Preline AS Lerøy Vest AS 9

Preline Fishfarming System AS The technology is designed for high water flow, low energy consumption and effective operations. Extended Smolt Farm is a pilot plant that has shown measurable effects on fish health, growth and quality. The fish are protected in the 50 meter long enclosed tube, which has an elliptical cross-section. In each end there are propellers that create a natural water flow. Water from 25 to 30 meters in large quantities takes 310to 5 minutes to pass through the system from end-to-end. HIGH-VALUE DIGESTION - PRODUCTS NORWEGIAN FROM EXPERIENCE ANAEROBIC

Current Research Fish sludge Preline: Sludge consisting mainly of fish faeces and excess feed. Treatment: sludge is filtered in a drum filter which is rinsed with fresh water Sludge/rinsing water is pumped to a sedimentation tank The sludge is thickened and stored until it is time to empty the tank. Preline Lerøy Vest: Very fresh fish sludge coming from fish of approx. 150 g. Composed of excess feed mostly, and some fish faeces. Lerøy Vest Treatment: Filtered in a drum filter on the plant, and pumped into a sedimentation tank floating in the sea. 11

Current Research Characterisation Substrat as received* ph Conductivity TS g/kg VS g/kg ms/cm Sludge Bergen wwtp 7,1 8,5 60,3 45,7 Sludge IVAR wwtp 5,3 4,5 24,5 21,0 Fish sludge Preline Fishfarming System AS 5,6 9,5 132,6 121,6 Fish sludge Lerøy Vest 4,7 4,4 103,9 91,8 *Substrates were later diluted/concentrated accordingly so to achieve final TS% in the substrates mixtures to employ for AMPTS in the range of 2-3 % 12

Current Research Biomethane potential trials Batch biomethane potential (BMP) trials are performed using the AMPTS (II) Bioprocess Control System (Sweden). The BMP of raw material (food/fish sludge) and its mixtures with sludge (primary, secondary and primary/secondary) will be estimated and inhibition concentrations will be determined. 13

Metan [Nml] Current Research Results and ongoing research Results AMPTS (April 2017) testing: Inoculum 2500 2000 Inoculum Slam Bergen 10% fisk 25% fisk Kontroll (celullose) Inoculum + Bergen sludge 1500 1000 Inoc.+ Mix 10% Preline/90% Bergen sludge 500 Inoc.+ Mix 25% Preline/75% Bergen sludge 0 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 Days Addition of 25 % fish sludge (%volume) gave a 46 % increase in the methane production of Bergen sludge 25% fish: 472 Nml CH 4 /g VSadded 0% fish: 323 Nml CH 4 /g VSadded Max. Specific Methane Yield (Nml CH 4 /g VS added) 500 400 Final ph: 8.05 Final NH 4 -N conc.: 3,3 g/100 g TS 14 300 200 100 0 Bergen sludge 10% Preline sludge + 90% Bergen sludge 25% Preline sludge + 75% Bergen sludge

Metan [Nml] Current Research Results and ongoing research Results AMPTS (June 2017) testing: Inoculum 2500 2000 Inoculum Slam IVAR 5% fisk 10% fisk 25% fisk 30% fisk Inoculum + IVAR sludge Inoc. + Mix 5% Lerøy /95 % IVAR sludge Inoc. + Mix 10% Lerøy /90% IVAR sludge Inoc. + Mix 25 % Lerøy /75% IVAR sludge Inoc. + Mix 30 % Lerøy /70% IVAR sludge 1500 1000 500 0 0 2 4 6 8 10 12 14 16 18 20 22 24 26 28 30 32 34 36 Days IVAR WWTP sludge was a remarkably good sludge for biogas production! Addition of fish sludge did not change the methane yield from IVAR sludge 25% fish: 520 Nml CH 4 /g VSadded 0% fish: 514 Nml CH 4 /g VSadded 15 Max. Specific Methane Yield (Nml CH4/ g VS added) 600 500 400 300 200 100 0 IVAR sludge 10 % Lerøy sludge + 90% IVAR sludge 25 % Lerøy sludge + 75 % IVAR sludge 30 % Lerøy sludge + 70 % IVAR sludge

Planned Future Research Dolly (Belach Bioteknik, SE); semi-continuous stirring reactor system to test promising mixtures in long term trials. 16

Wastewater and Organic Waste Treatment Facilities Net Green Energy, Nutrients and Bio-products Producers (RESERVE1, 2017-2019) 17

Concept of COWIfonden project heat CO 2 removal Dewatering digestate vehicle fuel natural gas grid P fertilizer Main goals Production of VFA and its up-concentration for further conversion into different bio-products; Production of valuable digestate and P recovery. 18

Concept Kamm, B. et al. (2006) Biorefineries, Industrial Processes and Products, Wiley-VCH. 19

Deicers synthesis from non-fossil carbon source Oslo Lufthavn is applying formate based de-icing fluids on all Norwegian airports. Main goal of OSL - "0" GHG emission potassium acetate propylene glycol-based fluids ethylene glycol-based fluids sodium acetate sodium or potassium formate 20

Bioplastics from biomass, examples: Polyacrilate plastic beads PLA filaments for 3D printing 21

Thank you for your attention! 23 August 2017 High-value products from Anaerobic Digestion - Norwegian experience 22