AIR COMPANY

The carbon dioxide (CO₂) used in our process is captured from traditional fermentation and industrial alcohol plants prior to it being emitted into the atmosphere. The CO₂ arrives to us in tanks after it has been cooled, pressurized and liquified.

Simultaneously our electrolyzer splits water (H₂O) into hydrogen (H₂) and oxygen (O). While the oxygen is released into the atmosphere, the hydrogen is then fed into our Carbon Conversion Reactor system along with the captured CO₂.

Our Carbon Conversion Reactor is where the CO₂ and H₂ meet and are converted into impurity-free alcohols.

Inside our Carbon Conversion Reactor is a tubular, fixed-bed flow system. The CO₂ and H₂ rise to the top of each tube which are filled with our patented catalyst. This creates a chemical reaction that produces a reactor liquid. The reactor liquid is composed of ethanol (C₂H₅OH), methanol (CH₃OH) and water (H₂O).

Our proprietary distillation process separates the reactor liquid. Ethanol, methanol and water all have different boiling points, and therefore when heated to a specific temperature, they separate. First, the ethanol and methanol are separated from the water, and then the process repeats to separate the methanol from the ethanol.

Ethanol and water are slowly hand-mixed in large steel totes to prevent impurities. Finally, the scent is mixed in.

The world's first fragrance made from air. 

The carbon dioxide (CO₂) used in our process today is captured from traditional fermentation and industrial alcohol plants prior to it being emitted into the atmosphere. The CO₂ arrives to us in tanks after it has been cooled, pressurized and liquified.

Simultaneously, our electrolyzer splits water (H₂O) into hydrogen (H₂) and oxygen (O₂). While the oxygen is released into the atmosphere, the hydrogen is then fed into our Carbon Conversion Reactor system along with the captured CO₂.

Our Carbon Conversion Reactor is where the CO₂ and H₂ meet and are converted into impurity-freee alcohols.

Inside our Carbon Conversion Reactor is a continuous flow system. The CO₂ and H₂ flow through tubes, which are filled with our proprietary catalyst. This creates a chemical reaction that transforms the two gases into a liquid. This liquid is composed of ethanol (C₂H₅OH), methanol (CH₃OH) and water (H₂O).

Our proprietary distillation process separates the reactor liquid. Ethanol, methanol and water all have different boiling points, and therefore when heated to a specific temperature, they separate. First, the ethanol and methanol are separated from the water, and then the process repeats to completely separate the methanol from the ethanol.

Ethanol and water are combined in large steel totes and mixed by hand. This process produces heat, so it is done slowly to prevent impurities.

The result is a impurity-free, carbon-negative consumable product curated through a meticulous process from start to finish.

The carbon dioxide (CO₂) used in our process today is captured from traditional fermentation and industrial alcohol plants prior to it being emitted into the atmosphere. The CO₂ arrives to us in tanks after it has been cooled, pressurized and liquified.

Simultaneously, our electrolyzer splits water (H₂O) into hydrogen (H₂) and oxygen (O₂). While the oxygen is released into the atmosphere, the hydrogen is then fed into our Carbon Conversion Reactor system along with the captured CO₂.

Our Carbon Conversion Reactor is where the CO₂ and H₂ meet and are converted into impurity-free alcohols.

Inside our Carbon Conversion Reactor is a continuous flow system. The CO₂ and H₂ flow through tubes, which are filled with our proprietary catalyst. This creates a chemical reaction that transforms the two gases into a liquid. This liquid is composed of ethanol (C₂H₅OH), methanol (CH₃OH) and water (H₂O).

Our proprietary distillation process separates the reactor liquid. Ethanol, methanol and water all have different boiling points, and therefore when heated to a specific temperature, they separate. First, the ethanol and methanol are separated from the water, and then the process repeats to completely separate the methanol from the ethanol.

Ethanol and water are combined in large steel totes and mixed by hand. This process produces heat, so it is done slowly to prevent impurities. Finally, we mix in the purified water, glycerol and hydrogen peroxide.

The result is a fast-drying, impurity-free hand sanitizer that helps keep both the people and our planet healthy.

The carbon dioxide (CO₂) used in our process today is captured from traditional fermentation and industrial alcohol plants prior to it being emitted into the atmosphere. The CO₂ arrives to us in tanks after it has been cooled, pressurized and liquified.

Simultaneously, our electrolyzer splits water (H₂O) into hydrogen (H₂) and oxygen (O₂). While the oxygen is released into the atmosphere, the hydrogen is then fed into our Carbon Conversion Reactor system along with the captured CO₂.

Our Carbon Conversion Reactor is where the CO₂ and H₂ meet and are converted into impurity-free alcohols.

Inside our Carbon Conversion Reactor is a continuous flow system. The CO₂ and H₂ flow through tubes, which are filled with our proprietary catalyst. This creates a chemical reaction that transforms the two gases into a liquid. This liquid is composed of ethanol (C₂H₅OH), methanol (CH₃OH) and water (H₂O).

Alcohols are converted first into aldehydes, then into sugars after being passed over our proprietary catalyst.

Residual materials are removed and then once exposed to air, the sugar is created.

An impurity-free and carbon-negative sugar.

The carbon dioxide (CO₂) used in our process today is captured from traditional fermentation and industrial alcohol plants prior to it being emitted into the atmosphere. The CO₂ arrives to us in tanks after it has been cooled, pressurized and liquified.

Simultaneously, our electrolyzer splits water (H₂O) into hydrogen (H₂) and oxygen (O₂). While the oxygen is released into the atmosphere, the hydrogen is then fed into our Carbon Conversion Reactor system along with the captured CO₂.

Our Carbon Conversion Reactor is where the CO₂ and H₂ meet.

Our proprietary conversion system converts the CO₂ and H₂ into paraffins. Paraffins are long-chain hydrocarbons that have a high energy density, one example of a mixture of paraffins is kerosene. Once refined, this becomes sustainable aviation fuel (Jet-A).

A carbon-neutral jet fuel to be distributed and utilized across North America.