Marine Carbon Capture
Ocean electrolyzer architecture for 5+ year survival
How do you build ocean infrastructure that survives 5+ years of salt, storms, and biofouling? This analysis identifies breakthrough approaches for marine electrolysis.
Input an engineering problem.
Sparlo innovates from first principles to solve it.
Marine electrolyzers corrode and foul within months. Need architecture that survives 5+ years in seawater at <$80/ton CO₂.
"How do we make replacement so cheap that survival doesn't matter?"
via Desalination
The desalination industry solved seawater fouling decades ago with electrodialysis reversal—polarity switching every 15-30 minutes that dissolves scale and kills biofilms before they mature.
CaCO₃ solubility increases ~100x from pH 10 to pH 4. When polarity reverses, acidic conditions dissolve accumulated scale.
Electrolyzer industry inherited chlor-alkali assumptions. EDR is standard in desalination but the communities don't overlap.
Desalination industry (electrodialysis reversal)
The physics is identical—scale dissolution at low pH, biofilm disruption from ionic oscillation.
3-month seawater exposure test with polarity reversal protocol optimization
20-page reports on industry problems
Ocean electrolyzer architecture for 5+ year survival
How do you build ocean infrastructure that survives 5+ years of salt, storms, and biofouling? This analysis identifies breakthrough approaches for marine electrolysis.
10x faster CO₂ mineralization
Process intensification pathways to accelerate mineral carbonation for permanent CO₂ storage. Analysis of reactive grinding, electrochemical enhancement, and bioleaching approaches.