airbloom

airbloom

airbloom

airbloom

At airbloom we are developing algae powered bio-reactors to capture CO2 at the source. Through the use of algae powered bio-reactors, our aim is to provide a process that embraces circularity by redefining CO2 emissions as a valuable resource rather than just waste. By converting these emissions into algae biomass, which can then be used for a variety of purposes, we are addressing the pressing issue of CO2 emissions as a critical aspect of our strategy to combat climate change.

At airbloom we are developing algae powered bio-reactors to capture CO2 at the source. Through the use of algae powered bio-reactors, our aim is to provide a process that embraces circularity by redefining CO2 emissions as a valuable resource rather than just waste. By converting these emissions into algae biomass, which can then be used for a variety of purposes, we are addressing the pressing issue of CO2 emissions as a critical aspect of our strategy to combat climate change.

At airbloom we are developing algae powered bio-reactors to capture CO2 at the source. Through the use of algae powered bio-reactors, our aim is to provide a process that embraces circularity by redefining CO2 emissions as a valuable resource rather than just waste. By converting these emissions into algae biomass, which can then be used for a variety of purposes, we are addressing the pressing issue of CO2 emissions as a critical aspect of our strategy to combat climate change.

At airbloom we are developing algae powered bio-reactors to capture CO2 at the source. Through the use of algae powered bio-reactors, our aim is to provide a process that embraces circularity by redefining CO2 emissions as a valuable resource rather than just waste. By converting these emissions into algae biomass, which can then be used for a variety of purposes, we are addressing the pressing issue of CO2 emissions as a critical aspect of our strategy to combat climate change.

CO2 sequestration • micro-algae
CO2 sequestration • micro-algae
CO2 sequestration • micro-algae
CO2 sequestration • micro-algae
minimal intervention • circular
minimal intervention • circular

Vision

3 mobile screens for a job portanl app

Why algae?

Algae were the first organisms on Earth and are incredibly resilient creatures. They have thrived in the harshest of conditions for billions of years. Over time, algae created a breathable atmosphere without which no other life would ever have been possible. Today, with the escalating climate crisis, algae have the potential to counterbalance the excessive emissions that contribute to global warming. These organisms can also be processed into sustainable bioplastics, biofuels and other valuable compounds, reducing our reliance on fossil fuels. The cultivation of algae is central to our strategy because of its exceptional ability to absorb CO2. Algae have fast growth rates, enabling rapid CO2 capture and biomass production that is at least three times more effective at capturing CO2 than land plants.

3 mobile screens for a job portanl app

Why algae?

Algae were the first organisms on Earth and are incredibly resilient creatures. They have thrived in the harshest of conditions for billions of years. Over time, algae created a breathable atmosphere without which no other life would ever have been possible. Today, with the escalating climate crisis, algae have the potential to counterbalance the excessive emissions that contribute to global warming. These organisms can also be processed into sustainable bioplastics, biofuels and other valuable compounds, reducing our reliance on fossil fuels. The cultivation of algae is central to our strategy because of its exceptional ability to absorb CO2. Algae have fast growth rates, enabling rapid CO2 capture and biomass production that is at least three times more effective at capturing CO2 than land plants.

3 mobile screens for a job portanl app

Why algae?

Algae were the first organisms on Earth and are incredibly resilient creatures. They have thrived in the harshest of conditions for billions of years. Over time, algae created a breathable atmosphere without which no other life would ever have been possible. Today, with the escalating climate crisis, algae have the potential to counterbalance the excessive emissions that contribute to global warming. These organisms can also be processed into sustainable bioplastics, biofuels and other valuable compounds, reducing our reliance on fossil fuels. The cultivation of algae is central to our strategy because of its exceptional ability to absorb CO2. Algae have fast growth rates, enabling rapid CO2 capture and biomass production that is at least three times more effective at capturing CO2 than land plants.

3 mobile screens for a job portanl app

Why algae?

Algae were the first organisms on Earth and are incredibly resilient creatures. They have thrived in the harshest of conditions for billions of years. Over time, algae created a breathable atmosphere without which no other life would ever have been possible. Today, with the escalating climate crisis, algae have the potential to counterbalance the excessive emissions that contribute to global warming. These organisms can also be processed into sustainable bioplastics, biofuels and other valuable compounds, reducing our reliance on fossil fuels. The cultivation of algae is central to our strategy because of its exceptional ability to absorb CO2. Algae have fast growth rates, enabling rapid CO2 capture and biomass production that is at least three times more effective at capturing CO2 than land plants.

Airbloom

Recognising that resources are scarce, we design recyclable and renewable systems that minimize waste and environmental impact to create a climate positive process. Unlike state-of-the-art CO2 capture and storage methods, which often rely on energy-intensive technologies, our bioreactors operate with minimal intervention and resource consumption. By harnessing the natural capabilities of algae and optimising cultivation conditions, we maximise the efficiency of CO2 capture while producing valuable feedstocks for downstream applications in the form of biomass and oxygen.

Airbloom

Recognising that resources are scarce, we design recyclable and renewable systems that minimize waste and environmental impact to create a climate positive process. Unlike state-of-the-art CO2 capture and storage methods, which often rely on energy-intensive technologies, our bioreactors operate with minimal intervention and resource consumption. By harnessing the natural capabilities of algae and optimising cultivation conditions, we maximise the efficiency of CO2 capture while producing valuable feedstocks for downstream applications in the form of biomass and oxygen.

Airbloom

Recognising that resources are scarce, we design recyclable and renewable systems that minimize waste and environmental impact to create a climate positive process. Unlike state-of-the-art CO2 capture and storage methods, which often rely on energy-intensive technologies, our bioreactors operate with minimal intervention and resource consumption. By harnessing the natural capabilities of algae and optimising cultivation conditions, we maximise the efficiency of CO2 capture while producing valuable feedstocks for downstream applications in the form of biomass and oxygen.

Airbloom

Recognising that resources are scarce, we design recyclable and renewable systems that minimize waste and environmental impact to create a climate positive process. Unlike state-of-the-art CO2 capture and storage methods, which often rely on energy-intensive technologies, our bioreactors operate with minimal intervention and resource consumption. By harnessing the natural capabilities of algae and optimising cultivation conditions, we maximise the efficiency of CO2 capture while producing valuable feedstocks for downstream applications in the form of biomass and oxygen.

Bioreactors

Our priority is to make algae cultivation visible, easy to use and resource efficient. Our bioreactors are designed for minimal material use and gentle cultivation processes. By exploiting physical properties and natural processes, we aim to optimise CO2 capture efficiency while minimising resource use. Our bioreactors are designed to be modular, allowing for easy replication and deployment across different sites and industries. This modular approach facilitates scalability by enabling rapid expansion without significant redesign or adaptation.

Bioreactors

Our priority is to make algae cultivation visible, easy to use and resource efficient. Our bioreactors are designed for minimal material use and gentle cultivation processes. By exploiting physical properties and natural processes, we aim to optimise CO2 capture efficiency while minimising resource use. Our bioreactors are designed to be modular, allowing for easy replication and deployment across different sites and industries. This modular approach facilitates scalability by enabling rapid expansion without significant redesign or adaptation.

Bioreactors

Our priority is to make algae cultivation visible, easy to use and resource efficient. Our bioreactors are designed for minimal material use and gentle cultivation processes. By exploiting physical properties and natural processes, we aim to optimise CO2 capture efficiency while minimising resource use. Our bioreactors are designed to be modular, allowing for easy replication and deployment across different sites and industries. This modular approach facilitates scalability by enabling rapid expansion without significant redesign or adaptation.

Bioreactors

Our priority is to make algae cultivation visible, easy to use and resource efficient. Our bioreactors are designed for minimal material use and gentle cultivation processes. By exploiting physical properties and natural processes, we aim to optimise CO2 capture efficiency while minimising resource use. Our bioreactors are designed to be modular, allowing for easy replication and deployment across different sites and industries. This modular approach facilitates scalability by enabling rapid expansion without significant redesign or adaptation.

A header for desserts website with title "Cup cakes" to order it

Biomass

By capturing CO2 at its source and using algae to convert it into biomass, we are fundamentally changing the paradigm of emissions management. This circular approach not only reduces CO2 emissions, but also converts them into a usable resource for downstream applications, with benefits across multiple sectors, including construction materials, biofuels and food production.

A header for desserts website with title "Cup cakes" to order it

Biomass

By capturing CO2 at its source and using algae to convert it into biomass, we are fundamentally changing the paradigm of emissions management. This circular approach not only reduces CO2 emissions, but also converts them into a usable resource for downstream applications, with benefits across multiple sectors, including construction materials, biofuels and food production.

A header for desserts website with title "Cup cakes" to order it

Biomass

By capturing CO2 at its source and using algae to convert it into biomass, we are fundamentally changing the paradigm of emissions management. This circular approach not only reduces CO2 emissions, but also converts them into a usable resource for downstream applications, with benefits across multiple sectors, including construction materials, biofuels and food production.

A header for desserts website with title "Cup cakes" to order it

Biomass

By capturing CO2 at its source and using algae to convert it into biomass, we are fundamentally changing the paradigm of emissions management. This circular approach not only reduces CO2 emissions, but also converts them into a usable resource for downstream applications, with benefits across multiple sectors, including construction materials, biofuels and food production.