Our cutting-edge recycling platform transforms waste streams into premium synthetic fuels, chemical feedstocks, and industrial materials through integrated pyrolysis and gasification processes. This sustainable solution delivers three primary product streams with diverse commercial applications:
Next-Generation Refining Capability
Our proprietary upgrading technology converts pyrolysis oil into a full spectrum of valuable hydrocarbon fractions:
This comprehensive waste-to-chemicals platform provides complete circularity while creating new manufacturing opportunities across industries.
Our solution directly addresses today's most pressing challenges:
With scalable production and ASTM-certified outputs, we serve growing demand in:
✔ Petrochemical manufacturing
✔ Plastics & polymer production
✔ Transportation fuel markets
✔ Specialty chemical applications
Synthesis gas (syngas) is a versatile energy carrier and chemical feedstock with broad industrial applications. In power generation, it fuels gas turbines and engines, while integrated gasification combined cycle (IGCC) plants leverage it for high-efficiency electricity co-production. The chemical industry depends on syngas as a foundational building block for methanol, ammonia, and hydrogen production, as well as for synthesizing liquid fuels via the Fischer-Tropsch process.
In steel and metal production, syngas acts as a reducing agent in direct iron reduction and partially replaces coke in blast furnaces. Petroleum refineries use it for hydrogen generation in hydroprocessing units and for upgrading heavy oil fractions through gasification. The waste management sector converts municipal solid waste and biomass into syngas, enabling cleaner energy generation.
Additionally, agriculture benefits from syngas-derived urea and nitrogen-based fertilizers, while the transportation sector utilizes it to produce synthetic natural gas (SNG) and gas-to-liquid (GTL) fuels. Specialty industries, such as glass and ceramics, rely on syngas for high-temperature process heating.
A key environmental advantage of syngas lies in its ability to transform waste, coal, or biomass into cleaner energy while facilitating carbon recycling. This makes it particularly valuable for regions aiming to reduce fossil fuel dependence or adopt circular economy principles.
Pyrolysis oil is a renewable and versatile fuel with applications across multiple industries. In heavy industries, it serves as a substitute for furnace oil in cement kilns, steel plants, and power stations. The maritime sector adopts it as a sustainable bunker fuel alternative, while chemical manufacturers refine it into biofuels, plastics, and specialty chemicals.
Road construction incorporates pyrolysis oil as an asphalt binder, and agriculture utilizes it for greenhouse heating and crop drying. The automotive industry explores its use in modified diesel engines, and waste management facilities employ it for energy recovery from plastic and tire waste. Even the pharmaceutical sector extracts valuable compounds from biomass-derived pyrolysis oil.
Its dual role as a renewable fuel and waste management solution makes pyrolysis oil an attractive option for industries transitioning away from fossil fuels.
Carbon black is a critical industrial material with diverse applications. The rubber industry accounts for ~70% of global consumption, using it to reinforce tires and enhance durability. In plastics, it functions as a pigment and UV stabilizer for automotive parts, pipes, and films.
The printing industry relies on its deep coloration for inks in packaging, newspapers, and toners, while paints and coatings utilize it for weather resistance, conductivity, and color consistency. Construction applications include sealants, adhesives, and concrete products.
Emerging uses include lithium-ion batteries, where it serves as a conductive additive, and consumer goods like cosmetics, food packaging, and electronics, where it provides coloration and antistatic properties. Its unique combination of reinforcement, conductivity, and pigmentation ensures its indispensability across manufacturing sectors.
Heptane: 98-100°C
Heptane (C₇H₁₄) is a valuable linear alpha olefin used across multiple industries:
Its reactivity and branching structure make it particularly useful in petrochemical refining and high-performance material production.
Hexane: 69-70°C
Hexane (C₆H₁₄) is a versatile solvent and industrial chemical used across multiple sectors:
Due to its high volatility and toxicity, proper ventilation and safety protocols are critical in all applications.
Pentane: 36-38°C
Pentane (C₅H₁₂) is a versatile hydrocarbon solvent with key industrial applications:
Its low boiling point (36°C) makes it ideal for foam expansion and low-temp applications, while its non-polar nature suits it for precision cleaning. Safety measures are critical due to high flammability.
Benzene: 80-81°C
Benzene (C₆H₆) is a fundamental petrochemical with critical industrial uses, though restricted due to toxicity concerns.
Key applications include:
Note: Most modern applications use benzene-derived intermediates rather than pure benzene, with stringent workplace exposure limits (e.g., <1 ppm OSHA PEL). Alternatives like toluene or xylenes are preferred where possible.
Toluene: 110-111°C
Toluene (C₇H₈) is a versatile solvent and chemical feedstock used across multiple industries:
With strong solvency and lower toxicity than benzene, toluene remains widely used, though proper ventilation and PPE are mandatory due to flammability and CNS effects.
Xylene: 138-140°C
Xylene (C₈H₁₀) is a widely used aromatic hydrocarbon with key industrial applications:
The three isomers (ortho-, meta-, para-xylene) each have specialized uses, with para-xylene being particularly valuable for polyester production. While less toxic than benzene, xylene requires proper ventilation and PPE due to flammability and inhalation risks. Modern applications increasingly emphasize closed-loop systems to minimize workplace exposure.
Kerosene: 150-250°C
Kerosene serves as a versatile hydrocarbon across multiple industries:
With its high flash point (38–72°C) and clean combustion, kerosene remains essential where electricity or gas infrastructure is limited. Strict sulphur-content regulations (e.g., <15ppm ULSD) now govern most industrial applications.
Ethylbenzene: 136-137°C
Ethylbenzene (C₈H₁₀) is primarily used as a critical feedstock in the production of styrene (for polystyrene plastics, synthetic rubber, and resins). Other key applications include:
Due to its flammability and toxicity, handling requires proper ventilation and PPE. Most ethylbenzene is consumed captively in styrene manufacturing.
Styrene: 145-146°C
Styrene (C₈H₈) is a foundational chemical with diverse industrial uses:
Note: Requires strict exposure controls (OSHA PEL: 50 ppm) due to volatility and potential health risks. Increasingly replaced by bio-based alternatives in consumer applications.
Diesel fuel: 250-350°C
Diesel fuel powers a wide range of industries due to its high energy density and efficiency:
Available in ultra-low sulphur (ULSD), biodiesel blends, and off-road grades to meet emission regulations.
Cumene: 177-178°C
Cumene (isopropyl benzene, C₉H₁₂) is a key petrochemical with critical industrial applications:
Note: Almost exclusively (>95%) consumed captively in phenol/acetone plants. Requires explosion-proof handling due to flammability.
Phenols: 180-220°C
Phenols (C₆H₅OH) serve as vital industrial compounds with diverse applications:
Note: Requires strict handling (corrosive/toxic) with growing substitution by bio-based phenolics in consumer applications.
Naphthalene 218-220°C
Naphthalene (C₁₀H₈) is a versatile aromatic hydrocarbon with key industrial uses:
Note: Use declining due to toxicity concerns (EPA-regulated), with replacements like para-dichlorobenzene in consumer applications.
Base oils: above 350°C
Base oils serve as essential components across multiple industries:
Available in mineral (paraffinic/naphthenic), synthetic (PAO, esters), and bio-based variants to meet performance and environmental standards.
Bitumen: above 400°C
Bitumen is a crucial material across multiple industries:
Available in penetration grades (10/20 to 250/300), viscosity grades, and polymer-modified forms for specialized performance requirements.