Transform Waste Into Energy & Profit

Discover how waste valorisation turns everyday waste into valuable resources, creating new revenue streams, reducing disposal costs, and advancing your business's sustainability efforts.

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Transforming waste into high-value products

Biogas/Syngas case study

Biogas/Syngas

A renewable gas produced from the breakdown of organic materials, used as a fuel for heating, electricity generation, or vehicle fuel.

Bio-oil case study

Bio-oil

A synthetic oil produced through pyrolysis that can be refined into fuels or used as a feedstock for chemical production.

Biochar case study

Biochar

A carbon-rich by-product of pyrolysis, used to enhance soil quality, retain moisture, and sequester carbon.

Carbon Black case study

Carbon Black

A fine black powder from pyrolysis, used in manufacturing rubber products, inks, and coatings.

Biofertiliser case study

Biofertiliser

A nutrient-rich fertiliser derived from the digestate of anaerobic digestion, used to improve soil fertility and crop yields.

Leading technologies in waste valorisation

Pyrolysis and Anaerobic Digestion are two of the most commercially adopted and reliable waste valorisation processes, transforming waste into energy and high-value products that boost revenue and operational efficiency across industries like agriculture, food processing, and manufacturing.

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Pyrolysis

Pyrolysis is a thermal process that breaks down organic materials at high temperatures in the absence of oxygen, converting waste into valuable products like bio-oil, biochar, and syngas. This method captures energy from waste and creates versatile by-products with multiple industrial uses.

Feedstocks

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    Plastic Waste

    Low-grade plastics that are difficult to recycle.

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    Rubber

    Waste rubber, including used tyres.

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    Biomass

    Low-moisture organic materials such as wood chips and crop residues.

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    Organic Industrial Waste

    Carbon-based residues from industrial processes.

Products

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    Bio-oil

    A synthetic oil that can be refined into valuable chemicals and fuels.

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    Biochar

    Enhances soil quality and captures carbon for sustainable agriculture.

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    Syngas

    A flexible fuel source used in power generation and chemical production.

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    Carbon Black

    An valuable industrial material for rubber, inks, and coatings.

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Anaerobic Digestion

Anaerobic digestion is a biological process where microorganisms break down organic waste in the absence of oxygen, producing valuable by-products like biogas and biofertliser. This method turns waste into renewable energy and nutrient-rich fertliser, supporting sustainable waste management.

Feedstocks

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    Food Waste

    Organic food scraps from households, restaurants, and food processing facilities.

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    Agricultural Residues

    Crop residues, manure, and other organic farm waste.

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    Sewage Sludge

    Organic material from wastewater treatment plants, ideal for biogas production.

Products

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    Biogas

    A renewable energy source used for electricity, heating, or as vehicle fuel.

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    Biofertliser

    A nutrient-rich organic fertliser that enhances soil health and supports sustainable agriculture.

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    Digestate

    The solid by-product left after digestion, used in soil conditioning and as a compost additive.

The business case for waste valorisation

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    Generate New Revenue Streams

    Waste valorisation transforms waste into marketable products, creating profitable avenues from materials that would otherwise be discarded.


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    Reduce Waste Management Costs

    By converting waste into reusable resources, waste valorisation lowers disposal costs and optimises waste handling, saving your business money.


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    Circular Economy

    Businesses can harness energy and reuse valuable by-products from waste, reducing reliance on external resources and cpntributing to a more sustainable, circular economy.

How it works

  1. Initial Consultation

    We begin by understanding your business's waste streams, energy needs, and sustainability goals to determine the best valorisation approach for you.

  2. Site Assessment

    Our team conducts an on-site assessment to analyse available waste feedstocks, assess energy infrastructure, and determine project feasibility.

  3. Customised Feasibility Study

    We prepare a detailed feasibility study, including financial modeling, expected ROI, and recommended technologies tailored to your industry.

  4. Solution Design and Engineering

    Based on the feasibility study, we design a waste valorisation system optimised for efficiency, energy output, and integration with your existing processes.

  5. Proposal and Approval

    We present a comprehensive project proposal covering system design, timelines, costs, and projected outcomes, and proceed upon your approval.

  6. System Installation and Integration

    Our engineering team installs the valorisation system, ensuring seamless integration with your operations while minimising disruptions.

  7. Testing and Commissioning

    After installation, we rigorously test and commission the system to ensure it operates efficiently and meets all regulatory standards.

  8. Training and Handover

    We provide training for your team on system operation, maintenance, and safety protocols, ensuring smooth, long-term operation.

  9. Ongoing Support and Optimisation

    Our team offers continuous support, monitoring, and optimisation services to ensure maximum efficiency and profitability from your valorisation system.

Frequently asked questions

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