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Decarbon

Decarbontek develops low-cost metal-organic framework (MOF) adsorbents and modular contactor technologies for efficient carbon dioxide capture and removal. Their systems utilize green chemistry and energy-efficient thermal swing adsorption to enhance CO2 adsorption performance while promoting sustainability through the use of bio-based materials and waste heat.

Woburn, CanadaFounded 20213500+ followers
Updated 4 months ago

Funding

Funding not disclosed

Funding rounds are not available yet.

Founders

Founder details are not available yet.

Product

Problem

Many existing carbon capture technologies are expensive and energy-intensive, hindering widespread adoption. Traditional methods often rely on harsh chemicals and high temperatures, increasing operational costs and environmental impact. This limits the scalability and economic viability of carbon capture as a solution for reducing greenhouse gas emissions.

Solution

Decarbontek develops low-cost metal-organic framework (MOF) adsorbents and modular contactor technologies for efficient carbon dioxide capture and removal. Their systems utilize green chemistry and energy-efficient thermal swing adsorption for adsorbent regeneration. The MOF adsorbents are synthesized in water from abundant and inexpensive bio-based materials, exhibiting high carbon dioxide adsorption capacities, humidity tolerance, and low regeneration temperatures. Decarbontek also pioneers manufacturing technologies for MOF-based fiber sorbents and structured contactors. By utilizing waste heat and green electricity, their technology is designed with long-term sustainability in mind.

Target Audience

Decarbontek's primary customers are industries with significant carbon emissions, such as power plants, manufacturing facilities, and other industrial operations, seeking cost-effective and sustainable carbon capture solutions.

Features

  • Scalable MOF manufacturing based on green chemistry using water and bio-based materials.
  • High carbon dioxide adsorption capacities with high humidity tolerance.
  • Low regeneration temperature requirements for energy efficiency.
  • Structured modular contactors for enhanced CO2 capture.
  • Rapid thermal swing adsorption process for expedient adsorbent regeneration.
  • Sustainable design utilizing waste heat and green electricity.
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