Energy-from-Waste. State of the art of best available techniques to abate dust, acid gases, heavy metals, NOx and POPs present in flue gas

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Energy-from-Waste State of the art of best available techniques to abate dust, acid gases, heavy metals, NOx and POPs present in flue gas Christophe CORD HOMME CNIM Group Business & Products Development Director And Flavio MATOS Agenda 1) CNIM/ Lab Presentation 2) Energy-from-Waste (EfW) Plants in Europe 3) Waste Composition and Pollutants 4) Energy-from-Waste Scheme 5) Emission Limit Values (ELVs) to air according to IED 2010/75/EU 6) Pollutants Abatement Performances 7) Pollutants Emissions from EfW Plants 8) Air Pollution Control Technologies 9) Pollutants Abatement Cost/ Benefit Analysis 2 1

CNIM 2013 key figures 2013 revenue: 782 M including 67% from exports Revenue by sectors Order book: 1,109 million 2,800 employees (out of which 1,300 engineers) Listed on the stock exchange since 1986 Figures at December 31, 2013 3 CNIM Environment activities Multi-channel approach to master the processing cycles of municipal and industrial waste management main fields of activities are: Turnkey waste valorisation plants with a unique offer of Design and Build as EPC for Waste-to-Energy, Biomass-to-Energy, Waste Sorting and Composting Flue gas cleaning, Bottom ash & residues treatment Plant Operation & Maintenance and revamping 5 2

CNIM Environment references CNIM is one of the top European specialists of Waste-to-Energy recovery 281 CNIM MSW Waste-to-Energy lines built allowing the treatment of about 25 million tons of waste per year 19 MSW Waste-to-Energy lines operated by CNIM 412 LAB Flue Gas Treatment installations built cleaning the combustion gases of around 34 million tons of waste per year 6 CNIM latest and ongoing WtE & BtE projects Waste-to-Energy Plants Location t/h Commissioning year Marseille (FR) 2 x 20 2010 Brno (CZ) 2 x 14 2011 Baku (AZ) 2 x 33 2012 St Omer (FR) 1 x 12,5 2012 Thumaide L6 (BE) 1 x 13 2012 Lincolnshire (UK) 1 x 19 2013 Tallin (EE) 1 x 31 2013 Torino (IT) 3 x 22,5 2013 Oxfordshire (UK) 2 x 19 2014 Staffordshire (UK) 2 x 20 2014 Cardiff (UK) 2 x 23 2015 Suffolk (UK) 2 x 16 2015 Shropshire (UK) 1 x 12 2015 Yorkshire - Leeds (UK) 1 x 20,5 2016 Wilton - Middlesbrough (UK) 2 x 29,2 2016 Location Biomass Plants in t/h t/h Commissioning year Kogeban (FR) 1 x 29,6 2014 Ridham Dock (UK) 1 x 22 2015 Estrées-Mons (FR) 1 x 23 2016 7 7 3

Flue Gas Treatment A CNIM Group company LAB turnover 2013: 76 M Turn key supplier in flue gas cleaning A wide range of processes and more than 50 patents 60 years of experience more than 412 supplied installations 200 FGC specialists 4 main offices Flue Gas Treatment An integrated FLUE GAS TREATMENT company with 3 activities POWER WASTE INDUSTRY 4

LAB latest and ongoing projects FGT WtE Harlingen (NL) Flue gas-treatment (LAB) Commissioni Location Nm 3 /h ng year Meath (IE) 1 x 128.000 2010 Winterthur (CH) 1 x 88.000 1 x 105.000 2011 2012 Düsseldorf (DE) 1 x 220.000 2012 Vaasa (FI) 1 x 172.000 2013 Dombasle (FR) 2 x 126.000 2014 Kara (DK) 1 x 157.000 2014 Paroseni (RO) 1 x 660.000 2014 Plymouth (UK) 1 x 207.000 2014 Vantaa (FI) 1 x 118.000 2014 Odense (DK) 1 x 159.000 2014 Trebovice (CZ) 1 x 375.000 2015 Longyearbyen (NO) 1 x 45.000 2015 Horsholm (DK) 1 x 63.000 2015 Copenhagen (DK) 2 x 213.000 2016 FGT WtE Nordforbraending (DK) FGT WtE Roskilde (DK) desox Power Plant Paroseni (Ro) FGT WtE Amager Copenhagen(DK) 10 Energy-from-Waste (EfW) Plants in Europe 447 EfW plants in EU (2011) 77 million tons of waste turned into energy In blue: Nr of Waste-to-Energy Plants operating in the country (not including hazardous waste incineration plants) In orange: Amount of Waste thermally treated in Waste-to-Energy plants, in million of tons/year Data supplied by CEWEP members unless specified otherwise * From Eurostat info@cewep.eu www.cewep.eu 11 5

Waste Composition and Pollutants Typical MSW Composition in Europe Pollutants from MSW Combustion NOx (NO, NO2) 12 Energy-from-Waste Scheme 13 6

Daily Emission Limit Values (ELVs) to air according to IED 2010/75/EU Industrial Emission Directive of 24/11/2010 for different industrial activities using solid fuels SUBSTANCES/ ACTIVITIES Waste incineration & Co-incineration Combustion Plants (coal, lignite and other solid residues) Combustion plants (biomass) ELVs in mg/nm 3 (dioxins & furans in ng/nm3) New & Existing > 3 at 11% O 2 dry t/h at 6% O 2 dry (converted to 11% O2 dry) at 6% O 2 dry Thermal Input (MW th) New & Existing < 50 - Existing (started operation until 7/01/2014) Dust TOC CO HCl HF SO 2 NOx ~ 7 10 10 50 10 1 50 200 (expressed in NO2) Dioxins and furans 14 Cd + Tl Hg Heavy Metals (Sb + As + Pb + Cr +Co + Cu + M n + Ni + V) 0.1 0.05 0.05 0.5 50-100 30 (20) - - - - 400 (267) 300 (200) [450 (300) - - - - pulverized lignite] 100-300 25 (17) - - - - 250 (167) 200 (133) - - - - > 300 20 (13) - - - - 200 (133) 200 (133) - - - - 300 (200) [400 (267) - - - - pulverized lignite] 100-300 20 (13) - - - - 200 (133) 200 (133) - - - - New 50-100 20 (13) - - - - 400 (267) Existing (started operation until 7/01/2014) New - - - - - - > 300 10 (7) - - - - 150 (100) [200 (133) lfluidized bed] 150 (100) [200 (133) pulverized lignite] - - - - - - - - 50-100 30 (20) - - - - 200 (133) 300 (200) - - - - 100-300 20 (13) - - - - 200 (133) 250 (167) - - - - > 300 20 (13) - - - - 200 (133) 200 (133) - - - - 50-100 20 (13) - - - - 200 (133) 250 (167) - - - - 100-300 20 (13) - - - - 200 (133) 200 (133) - - - - > 300 20 (13) - - - - 150 (100) 150 (100) - - - - Incineration: 20 components and lower ELVs (most stringent EU environmental Legislation) Combustion Plants > 50 MWth. Higher ELVs and for 3 pollutants only Combustion Plants < 50 MWth: no emissions limits 14 Abatement Performance of Pollutants in EfW Measured values << ELVs (Emission Limit Values) Typical Measured Values at Stack over ELVs EU Directive 2000/76/EC Typical Measured Values at Stack over FGT Inlet (0,04%) 0, Dust 10 mg/nm3 15 7

Pollutants Emissions from EfW Plants Share of EfW in Total Emissions Data from 50 WtE plants in selected countries (Czech Republic, France, Germany, Italy, Netherlands and Sweden) Source: Helmut Rechberger & Gerald Schöller, TU Vienna Institute for Water Quality, Resources and Waste Management 16 Pollutants Emissions from EfW Plants In Germany only 0,7% of total dioxins/furans released in the atmosphere in 2000 were from EfW plants Source: Federal Minister for the Environment, Nature Conservation and Nuclear Safety. http://www.bmu.de/fileadmin/bmu-import/files/english/pdf/application/pdf/muellverbrennung_dioxin_en.pdf 17 8

Pollutants Emissions from EfW Plants Dioxins Emissions Reduction in France Source: CITEPA, Colloque AMORCE - Transition Énergétique, 28/05/2013 19 Flue Gas Cleaning Systems A complete portfolio of proprietary processes All types can be offered, depending on local conditions With Electrostatic precipitators and/or Baghouse filters Wet, Semi dry, Dry processes SCR or SNCR de-nox Activated carbon de-diox and/or SCR de-diox Mature and very performing processes Wet system Semi-dry system Dry system 20 9

Abatement Technologies Dedusting Bag house filter Electrostatic precipitator 21 Abatement Technologies Acid Gases Dry Semidry Wet SecoLAB SemisecoLAB GraniLAB,CycloLAB DedioxLAB VapoLAB 22 10

Abatement Technologies denox DeNOx Technologies SNCR (non catalytic) TerminoxLAB CataLAB (catalytic) 950 1050 C 200 280 C 180 250 C 23 Abatement Technologies : dediox Dioxines or Adsorption Activated carbon Catalytic Oxydation State of the art of best available techniques to abate dust, acid CDTOM gases, heavy Lons-Le-Saunier metals, NOx and POPs present in Révision 1 24 Fichier : Page 1/1 CDTOM Lons-Le-Saunier 11

Abatement Technologies Flue Gas Cleaning, 1 st STAGE: SNCR de-nox (Selective Non Catalytic Reduction) In the combustion chamber at high temperature (800 850 C) 25 Abatement Technologies State-of-the-art high performance Dry System 28 12

Abatement Technologies State-of-the-art high performance Dry System 29 Abatement Technologies Wet System 30 13

Abatement Technologies : Aerosol in Wet System 31 Abatement Technologies SCR de-nox (Selective Catalytic Reduction) 32 14

Cost / Benefit analysis Typical ½ hourly average values over one year 17000 values (mg/nm 3 ) Dry FGC process HCl ½-hr averages over 1 year http://www.eswet.eu/tl_files/eswet/articles/2014.04.13_wi-bref-eswet.pdf Graph by L. Kosior, SITA 45 40 35 30 25 20 15 10 Cost / Benefit analysis (assuming plant capacity is 10 t/hr) (mg/nm 3 ) 50 5 0 Lowering the ELV of HCl from 60 to 10 mg/nm 3 would : - Reduce the HCl emitted flow by 11 kg/year Increase the lime consumption* by 240,000 kg/y Increase the FGC residues by 240,000 kg/y * Assuming 15 kg Ca(OH) 2 per t w and 20% additional consumption Dry FGC process HCl moyennes 1/2 h (mg/nm3) HCl ½-hr average over 1 year Data arranged by value HCl outliers mass flow (between 10 and 50 mg/nm 3 ): 11 kg/y = 0.9% of the total 11 kg (Benefit) 2 x 240 t (COST) HCl yearly mass flow: 1137 kg/y (yearly average: 2.7 mg/nm 3 ) 0 h 1000 h 2000 h 3000 h 4000 h 5000 h 6000 h 7000 h 8000 h 9000 h 15