Waste-to-Energy (WtE) is rapidly evolving from conventional power generation into an integrated, carbon-neutral ecosystem that maximizes value recovery from waste.

Among emerging solutions, thermo-catalytic conversion stands out as the most promising technology, capable of transforming unsegregated municipal solid waste (MSW), plastics, rubber, and industrial residues often with up to 50% moisture into clean hydrocarbons (gas and oil), bio-carbon, and water.

Process Overview & Output Streams

Operating at moderate temperatures of about 450-600°C, thermo-catalytic conversion requires no pre-treatment, segregation, or drying, enabling same-day waste-to-resource conversion that prevents biological decomposition.

With a negative carbon footprint of -2.5 to -4.5 kg CO2 per kg of waste processed, this approach not only offsets disposal and fossil fuel costs but also contributes to decarbonization.

Process Flow

Inputs

Municipal Solid Waste
Waste Plastics
Rubber Tyres
Industrial Waste
E-Waste
Organic Waste
Agro Plastics
Oil Shale
Thermo-Catalytic Conversion
450-600°C
Liquid Hydrocarbon Fuel
Mixed Hydrocarbon Gas
Carbon
Water
REVENUE STREAMS

Recovered oil and water streams are market-ready.

Oil
  • Sell Diesel
Water
  • Process / Make-up water
  • Flushing / Horticulture
  • Potable water (after treatment)

High Potential Downstream Derivatives

Carbon
Graphite (Anode Manufacturing for Li-ion battery)
Hydrocarbons
Syngas
EOU • 100% Export
Methanol
  • Formaldehyde
  • Polyacetal
  • UF/PF/MF Resins
  • Hexamine / Isopropene
  • MDI / Polyol / MTBE
  • Acetic Acid → Vinyl Acetate
  • Chloromethanes
  • MMA → PPMA
Methyl Formate
  • Methyl Formamide
  • HCN
Methylamines / DME
  • Ethanolamines
  • DMF
  • Carbamates
Fisher-Tropsch
  • Liquid Fuels
  • Waxes
Hydrogen (+N₂)
  • Ammonia
  • Ammonium Nitrate
  • Urea
  • Nitric Acid / Hexamine
via Gas Engine
Power
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