Hamm MW Pyrolysis Plant. Integrated Pyrolysis into Power Plant Plant capacity 100,000 t/a Pre-processed Waste Materials

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Integrated Pyrolysis into Power Plant Plant capacity 100,000 t/a Pre-processed Waste Materials

Schematic Flow sheet Integrated Pyrolysis for Power Plants Pyrolysis of high calorific solid recovered fuels Flue gas to boiler Pyrolysis gas to boiler 1. 2. 3. 4. 5. Removal bin Shredder Fine material bin Crane system Material sluice 6. 1. 2. 3. 4. Rotary pyrolysis kiln Burner system Solid residue discharge Fan Cyclone (dedusting) Inerts Metals Pyrolysis coke to boiler

Combination Pyrolysis Power Plant Combustion air to boiler Pyrolysis gas Solid recovered fuel Processing Fuel oil or natural gas Combustion air Pyrolysis Pyrolysis coke Coal Air preheating Boiler ash Mill Boiler unit Metals to FGT

Plant description Objectives: Production of fuel by the generation of pyrolysis gas (pygas) and pyrolysis char Replacement of fossil fuel High efficiency in power generation Recycling of ferrous and non-ferrous metals Utilisation of the existent infrastructure Low investment costs compared with stand alone plants

Process description The pyrolysis plant serves as processing unit for high calorific waste. The generated fuels, pyrolysis gas (pygas) and pyrolysis char, are incinerated in an existing boiler unit. These fuels replace approx. 10-25 % of the combustion heat performance. Pre-treatment The waste fractions are delivered as bulk material or in bales. The waste gets shredded and fed to the charging unit of the pyrolysis by belt conveyors. Waste pyrolysis in two rotary kilns The waste material passes through the feeding system into the rotary kiln. In the absence of air/oxygen the waste is heated and decomposed at a temperature of approx. 500 C. The products of the process are pygas, pyrolysis char, metals and other inerts (stone, glass). The pygas is extracted and charged directly to the firing of the boiler. The pyrolysis char is mixed with the brown coal and after passing the coal mills charged to the firing of the boiler. The rotary pyrolysis unit is heated by natural gas burners arranged along the heating muffle. Downstream the heating muffle the flue gas is used for the preheating of air in heat exchangers and finally led into the boiler of the power plant. The result is a high efficiency of energy conversion.

Residue treatment The ferrous and non-ferrous residues are separated and feed to containers by belt feeders for recycling. Emergency incineration unit In the event of an emergency boiler shut down the pygas is incinerated in a burning chamber with stack.

Process flow sheet of Kraftwerk Westfalen plant

Characteristics of the Pyrolysis Plant General plant data Plant capacity 100,000 13 t/a t/h No of rotary kilns 2 Capacity per rotary kiln 6.65 t/h Plant availability 85 % (Availability related to 8,760 yearly hours) Scheduled down time Required plant area - Pre-treatment - Pyrolysis, solid residue treatment, emergency incineration unit 2x8 90 x 70 60 x 30 days m m

Characteristics of the Pyrolysis Plant Waste materials Recycling residue RDF from Commercial DSD Digester plants waste Heating value LHV Hu [MJ/kg] 17 28 12 22 11 24 11 15 Moisture [wt.-%] 5 25 10 40 10 50 30 50 Ash content [wt.-%] 8 10 10 23 10 20 3 10 Bulk density [kg/m³] 60 200 80 250 60 250 100 200 Particle size [mm] max. 200 max. 200 max. 200 max. 200 C [wt.-%] 58 73 45 60 52 60 35 40 H [wt.-%] 8 9 6 9 6 9 5 7 S [wt.-%] 0.01 0.06 0.1 1.0 0.1 2.0 0.05 0.3 Cl [wt.-%] 0.1 3.0 0.1 1.5 0.3 3.0 0.5 3.0 Rejects

Characteristics of the Pyrolysis Plant Technical data for rotary pyrolysis kiln Rotary kiln diameter (effective) 2.8 m Rotary kiln length (heated) 20 m Filling degree approx. 15 % Average residence time in heated area approx. 90 min Process temperature approx. 500 C Kiln shell temperature approx. 750 C

Characteristics of the Pyrolysis Plant Products to material recycling Ferrous metals approx. 350 kg/h Non-ferrous metals approx. 250 kg/h Inerts (stones, glass, ceramics) approx. 170 kg/h

Characteristics of the Pyrolysis Plant Consumption of operating materials (100% - Load) Natural gas (Hu = 36,000 kj/nm3) 800 Nm³/h Electricity 700 kw Cooling water 1 m³/h Nitrogen 20 m³/h Compressed air 10 m³/h

Characteristics of the Pyrolysis Plant Mass balance Input Output Pyrolysis gas High calorific waste 8,940 kg/h Fuels to power generation 13,300 kg/h Pyrolysis coke 3,300 kg/h Pyrolysis Combustion air 16,220 kg/h Metals 1,060 kg/h Flue gas from rotary kiln heating 16,910 kg/h Natural gas 690 kg/h Metal recycling Usage of energy (heat carrier)

Characteristics of the Pyrolysis Plant Energy balance Input Output Pyrolysis gas High calorific waste 232.8 GJ/h = 86.3 % 240.7 GJ/h = 89.2 % Fuels to power generation Pyrolysis Pyrolysis coke 28.3 GJ/h =10.5 % Flue gas 5.1 GJ/h = 1.8 % Natural gas 29.2 GJ/h = 10.8 % Losses 3.7 GJ/h =1.4 % Usage of energy (heat carrier)

RWE-ConTherm-Plant View to burner system

Characteristics of the Pyrolysis Plant Design data for Block C Before the modification: Full load operation (100 %) Thermal load Coal 769 MW Rate 100 % Part load operation (40 %) Thermal load 308 MW Rate 100 % After the modification: Full load operation (100 %) Thermal load Part load operation (40 %) Rate Thermal load Rate 75 MW 9.8 % 75 MW 24.4 % Coal 694 MW 90.2 % 233 MW 75.6 % Total 769 MW 100 % 308 MW 100 % Solid recovered fuels

Emergency incineration unit Feeding system