HomeEcology & Conservation BiologyBlue Carbon Methane Suppression

Blue Carbon Methane Suppression

Interactive 3D sediment-column simulator: watch sulfate-reducing bacteria outcompete methanogens for organic carbon as tidal salinity rises, and see live CH4/CO2 flux and CO2-equivalent readouts explain why saline tidal wetlands lock away 'blue carbon' with far less methane than freshwater marshes.

Ecology & Conservation Biology3DAdvanced60 FPS📱 Mobile-adapted
tidal-wetland-carbon-blue-carbon-storage ↗ Open standalone

Tidal wetlands are prized "blue carbon" ecosystems because they bury organic carbon fast — but burial alone doesn't guarantee a climate benefit. What actually makes saline marshes and mangroves so effective is a microbial competition happening in the mud beneath them: sulfate-reducing bacteria, fed by sulfate carried in from the tide, out-compete methane-producing archaea for the same buried carbon. This simulator renders that competition as a live 3D sediment column — raise the salinity slider and watch sulfate reduction (orange) crowd out methanogenesis (purple), watch the CH₄ bubble stream thin out at the surface, and read the resulting CO₂-equivalent flux update in real time, grounded in the same competitive-inhibition kinetics measured in real marsh porewater studies.

⚙ Under the hood

Interactive 3D sediment-column simulator showing how sulfate-reducing bacteria outcompete methanogens for organic carbon as tidal salinity rises, with live CH4/CO2 flux readouts explaining why saline tidal wetlands store blue carbon with far less methane than freshwater marshes.

blue carbonwetland ecologybiogeochemistrymethanesulfate reductiontidal marsh

3D · Three.js / WebGL renderer · 60 FPS target · runs fully client-side, no install

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