PYROMEX AG Schoengrund Rotkreuz/ Switzerland Tel.: +41 (0) Fax: +41 (0) INFORMATION AND DATA

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PYROMEX AG Schoengrund 1 6343 Rotkreuz/ Switzerland Tel.: +41 (0) 41 7997 210 Fax: +41 (0) 41 7997 211 E-mail mail@pyromex.com ENERGY INFORMATION AND DATA

UNIQUE ADVANTAGES OF THE PYROMEX ULTRA-HIGH TEMPERATURE GASIFICATION SYSTEM Optimum recovery of energy contained in the waste or biomass Transportable and storable clean energy Total conversion of the organic waste content to syngas No harmful emissions No condensate Highly profitable recycling of all types of waste Small investment and simple operation Interesting possibilities of cultivating biomass as a profitable income for farmers Possibility of replacing the syngas with natural gas, if required for emergency situations Pyromex offers a complete line and upgrading system to treat waste without waste residues Rational Economical Environmentally compatible Highly profitable 1

POTENTIAL ELECTRICITY PRODUCTION A plant using organic waste has the following approximate production potential per ton of waste: kcal x 1.16 (Formula to convert kcal into kwh/kg: 1000 = kwh/kg) Calorific Content of Waste (see list) kwh / kg kwh / ton 3000 kcal / kg 3.5 3500 4000 kcal / kg 4.6 4600 5000 kcal / kg 5.8 5800 6000 kcal / kg 6.7 6700 7000 kcal / kg 8.1 8100 8000 kcal / kg 9.3 9300 9000 kcal / kg 10.4 10400 Example: Calorific value of waste : 4000 kcal / kg Production capacity : 24 t / day 4640 kwh / h x 24 h = 111 360 kw / day Available chemical energy: approx. 90% = approx. 4 000 kwh Excluding utilization of off-heat 35% efficiency (gas engine) = approx. 1 400 kwh Own consumption = approx. 330 kwh Remaining for sale = approx. 1 070 kwh Per day (24 hours) per ton = approx. 25 680 kwh Including utilization of off-heat 60% efficiency = approx. 2 400 kwh Own consumption = approx. 330 kwh Remaining for sale = approx. 2 070 kwh Per day (24 hours) per ton = approx. 49 680 kwh 2

CALORIFIC VALUES SECONDARY ENERGY MATERIAL OF VARIOUS WASTE TYPES APPROXIMATE kcal / kg APPROXIMATE MJ / kg APPROXIMATE kw / kg Bamboo 3'800 15.9 4.4 Braun coal 4'500 18.9 5.2 Cacao shrub 3'300 13.8 3.8 Cardboard 3'800 16.9 4.4 Cardboard corrugated 3'910 16.4 4.5 Citrus peels 4 500 18,9 5.2 China grass 4'030 16.9 4.6 Car tires 8'300 34.8 9.6 Coconut shell 3'800 15.9 4.4 Coffee bean shells 6'000 25.1 6.8 Compost 4'200 17.6 4.8 Cork 6'300 26.4 7.3 Corn 4'400 18.4 5.1 Cotton seeds 3'300 13.8 3.8 Hay 3'200 13.4 3.7 Household waste pre-sorted 4'500 18.9 5.2 Hospital waste 6'780 28.5 7.8 Leather 4'020 16.8 4.6 Manure (dried) 3'760 15.9 4.4 Neoprene 7'100 29.7 8.2 Nylon 7'570 31.7 8.8 Oil sludge 8'800 36.8 10.2 Paper 4'400 18.4 5.1 Paper sludge 3'910 16.4 4.5 Paper coated 6'390 26.8 7.4 Paper adhesive coated 4'200 17.6 4.8 Newspaper 3 910 16.4 4.5 Tar paper 6'390 26.8 7.4 Paraffin 10'340 43.3 12.1 Polyethan foam 9'770 40.9 11.3 Polyethylene 10'990 46.1 12.7 Polypropylene 11'030 46.2 12.8 Polystyrol EPS 9'800 41.1 11.3 Polystyrol carbon reinforced 10'840 45.4 12.6 Rice pods 2'900 12.1 3.3 Rubber 5'600 23.4 6.5 Sewage sludge (dried) 3'300 13.8 3.8 Sunflower residue 4'200 17.6 4.8 Straw 4'000 17.2 4.6 Tobacco powder 3'000 12.6 3.4 Tar and refinery residues 9'200 38.5 10.7 Tar acid 5'600 23.4 6.5 Textiles 4'000 16.7 4.6 Treated wood 4'500 18.9 5.2 Untreated wood 4'200 17.6 4.8 Plywood 4'500 18.9 5.2 3

CALORIFIC VALUES OF BIOMASS SECONDARY ENERGY MATERIAL APPROXIMATE kcal / kg APPROXIMATE MJ / kg APPROXIMATE kw / kg Acacia wood 6 600 27.65 7.4 Bamboo 3 800 15.9 4.4 Cacao shrub 3 300 13.8 3.8 Coconut shells 3'800 15.9 4.4 Coffee bean pods 6 000 25.1 6.8 China grass 4'030 16.9 4.6 Compost 4'200 17.6 4.8 Cork 6'300 26.4 7.3 Corn 4'400 18.4 5.1 Cotton seeds 3'300 13.8 3.8 Eucalyptus wood 7 200 30.1 8.2 Hay 3'200 13.4 3.7 Manure (dried) 3'760 15.9 4.4 Olive oil press residues 7 400 31.0 8.4 Pine cones 7 900 33.1 9 Reeds 4 030 16.9 4.6 Rice pods 2'900 12.1 3.3 Sewage sludge (dried) 3'300 13.8 3.8 Straw 4'000 17.2 4.6 Sunflower residue 4'200 17.6 4.8 Tobacco powder 3'000 12.6 3.4 Untreated wood 4'200 17.6 4.8 4

CALORIFIC VALUE OF PYROMEX SYNGAS RELATIVE TO 3 100 kcal FEED MATERIAL Description Vol. (Nm 3 ) kwh/nm 3 H gas (kw) Hydrogen H2 738.5744 2.998 2214.246 Carbon monoxide CO 429.3988 3.509 1506.76 Carbon dioxide CO2 100.576 0 0 Methane CH4 0.1344 9.949 1.337146 Thermal value total 3722.344 Enthalpy in the converter Hdot= 111.2327 kw Calorfic value Hu= 13 MJ/kg = 3.611111 kwh/kg Material throughput mdot= 1000 kg/h HdotR= 3611.111 kw APPROX. GAS COMPOSITION AT GASIFICATION TEMPERATURES OF OVER 1200 C Carbon monoxide (Co) 21% to 32% Hydrogen (H 2 ) 19% to 24% Methane (CH 4 ) 1% to 2% Carbon dioxide (Co 2 ) 12% to 14% Nitrogen (N 2 ) 5% to 10% 5

CONVERSION FACTOR MULTIPLY BY RESULT British thermal unit Btu 2530 Kilogram calories kcal British thermal unit Btu 1054 Joules kj Joules kj 9.486 x 10-4 British thermal unit Btu Joules kj 2.39 x 10-4 Kilogram calories kcal Kilogram calories kcal 4183 Joules kj Kilogram calories kcal 3.968 British thermal unit Btu DESCRIPTION EQUALS RESULT 1000 Watt W = 1 Kilowatt kw 1 Kilowatt KW = 1.36 Pferde Staerken PS 1 Pferde Staerke PS = 0.736 Kilowatt kw 1 Joule J = 1 Watt second Ws 1 Watt second Ws = 0.239 calories cal 1 Watt hours Wh = 3,600 Joules J 1 Kilowatt hour kwh = 1000 Watt hour Wh 1000 Watt hours Wh = 3,600,000 Joules J 1,000,000 Kilowatt hours KWh = 3.6 Tera Joules TJ 6

EFFICIENCY COMPARISON BETWEEN PYROMEX GASIFICATION AND INCINERATION Infeed Material: Calorific Value: Wood Chips approx. 4 200 kcal/kg (= 17.6 MJ/kg or 8000 BTU/lb) Description Pyromex Ultra-High Temperature Gasification Standard Incineration Gas volume 830 Nm 3 /t 6 000 Nm 3 /t Thermal loss 10% 20% Efficiency 40% 24% Total energy available 1754 kwh/t 935 kwh/t Own use 330 kwh/t 24 kwh/t Net electricity 1424 kwh/t 911 kwh/t Off-heat 2630 kwh/t 2962 kwh/t Air consumption 1000 Nm 3 /t 5000Nm 3 /t Net electricity 1424 kwh/t 911 kwh/t Net off-heat 2630 kwh/t 2962 kwh/t 7

ENERGY UTILIZATION Gas Heat Pyromex offers the following energy recovery possibilities: Utilization of the syngas with an afterburner, subsequent steam turbine and electricity generator respectively Utilization of the syngas with a gas motor, combined with an electricity generator Utilization of the off-heat with the Pyromex-Henze cell for electricity production Utilization of the off-heat with a conventional heat-exchanger for heating or cooling Utilization of the syngas for industrial applications to substitute oil and gas Liquefying the syngas to synthetic petroleum Conversion of the syngas to hydrogen and subsequent production of electricity with a fuel cell 8

Gas Utilization Steam turbine Gas motor Sterling motor Off-Heat Utilization Steam turbine Sterling motor Pyromex-Henze cell Industrial Utilization syngas Utilization of the gas to substitute oil and natural gas Liquefying the syngas to synthetic petroleum Utilization of the syngas and off-heat for waste pretreatment (drying, sterilization etc.) Operation of the Pyromex sea water desalination Production of hydrogen Recovery of industrial valuables from the produced 9

PYROMEX THE ULTIMATE SOLUTION 1. Energy source: Waste or biomass 6 2. Pyromex UHT gasification unit: Syngas production 4 5 3. Pyromex steam converter: Hydrogen production 4. Standard heat exchanger: Energy utilization 3 2 1 5. Pyromex-Henze cell: Energy utilization 6. Standard fuel cell: Energy utilization Electric energy recovery above 70%! 10

SUMMARY The patented ultra-high temperature gasification system developed by Pyromex represents a revolutionary solution for the conversion of waste or biomass to energy. Because optimum use is made of the energy contained in the organic part, the process is commercially highly attractive and more important still, produces no harmful emissions or residues. 11