This company accelerates natural methane removal processes in the ocean to reduce atmospheric methane concentrations. By enhancing the ocean's ability to break down methane, they aim to lower global temperatures.
Funding
Funding not disclosed
Founders
Product
Problem
Atmospheric methane, a potent greenhouse gas, contributes significantly to global warming, with levels exceeding what natural processes can manage. Excess methane from human activity traps heat, accelerating climate change and making the planet less habitable.
Solution
Blue Dot Change aims to accelerate natural methane removal processes in the atmosphere above the ocean, helping to reduce overall atmospheric methane concentrations. The approach involves dispersing a catalyst, iron chloride, from commercial ships into the air, enhancing the natural breakdown of methane via oxidation. This process mimics and amplifies the natural reactions involving chlorine, sunlight, and dust that already occur over the ocean, converting methane into water and carbon dioxide, which have less intense climate impacts. By integrating the catalyst into the flue gas of existing cargo ships, the company leverages existing infrastructure to create an ideal environment for methane breakdown.
Target Audience
The primary focus is on mitigating climate change, targeting entities concerned with reducing greenhouse gas concentrations, including environmental organizations, governments, and corporations committed to sustainability.
Features
- Dispersal of iron chloride catalyst into the atmosphere above oceans to accelerate methane oxidation.
- Utilization of existing commercial ships as a platform for catalyst dispersal, integrating with their smokestack emissions.
- Mimicking and enhancement of natural processes involving chlorine, sunlight, and dust for methane breakdown.
- Conversion of methane into water (H2O) and carbon dioxide (CO2) as end products of the oxidation process.
- Safety studies conducted and provided to regulators to ensure minimal environmental impact.
- Modeling of catalyst spread using EPA models of smokestack emissions for performance and safety.