CarpeCarbon develops a Direct Air Capture (DAC) technology that efficiently removes CO2 from the atmosphere using renewable energy, enabling scalable and low-energy carbon removal. This approach addresses the urgent need for effective carbon sequestration to mitigate global warming without competing for energy resources.
Funding
$1.9M raised to dateRaised to date based on public sources. This may differ from the amount the company actually raised and is based only on what is publicly available on the internet.
Founders
Product
Problem
Despite efforts to reduce emissions, the atmosphere still contains a significant amount of CO2, necessitating active removal to mitigate the effects of climate change. Existing Direct Air Capture (DAC) technologies often suffer from high energy demands and reliance on critical minerals, hindering scalability and increasing costs.
Solution
CarpeCarbon is developing a Direct Air Capture (DAC) technology designed for efficient and scalable CO2 removal from the atmosphere. Their patent-pending technology aims to significantly reduce energy consumption compared to existing DAC methods, minimizing both costs and reliance on scarce resources. By creating a highly efficient and deployable system, CarpeCarbon seeks to enable widespread carbon removal, addressing the urgent need for carbon-negative technologies to combat climate change. The system is designed to be non-site specific, allowing for deployment in various locations.
Target Audience
CarpeCarbon targets organizations and governments committed to achieving carbon neutrality and investing in carbon removal technologies, as well as industries seeking to offset their carbon emissions.
Features
- Innovative, patent-pending DAC technology for CO2 extraction from ambient air.
- Designed for significantly lower energy requirements compared to conventional DAC systems.
- Scalable design to enable gigaton-scale carbon removal.
- Aims for independence from critical minerals and fragile supply chains.
- System design allows for deployment in diverse geographic locations.