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Florian Scholz on Muck Rack

Florian Scholz

As seen in: Color Research & Application, Nature, PNAS, SportBild, Heise Online, Creative Bloq, DEV Community, Future Medicine
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Articles

Natural ocean alkalinization through erosion of glacial till and weathering at the seafloor - Communications Earth & Environment

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By Florian Scholz, Christoph Vogt
| Nature Verified
Abstract The ocean absorbs about 25% of anthropogenic carbon dioxide emissions, with this uptake regulated by acid-neutralizing anions collectively termed alkalinity. Most seawater alkalinity originates from the weathering of aluminosilicate and carbonate minerals on land, whose dissolved products are transported to the ocean by rivers, a slow process that causes carbon dioxide removal to lag behind emissions.
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Sediment resuspension in muddy sediments enhances pyrite oxidation and carbon dioxide emissions in Kiel Bight - Communications Earth & Environment

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By Habeeb Thanveer Kalapurakkal, Andrew W. Dale, Mark Schmidt, Heidi Taubner, Florian Scholz, Timo Spiegel
| Nature Verified
Abstract Sediment resuspension of blue carbon ecosystems (e.g., seagrass beds) and muddy sediments exposes buried particulate organic carbon to oxygenated waters and remineralization, potentially enhancing carbon dioxide fluxes. However, the kinetics of carbon degradation under oxic and anoxic conditions are poorly constrained.
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Seafloor alkalinity enhancement as a carbon dioxide removal strategy in the Baltic Sea - Communications Earth & Environment

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By Andrew W. Dale, Sonja Geilert, Mirjam Perner, Florian Scholz, Isabel Diercks
| Nature Verified
Abstract Carbon dioxide removal from the atmosphere and storage over long times scales in terrestrial and marine reservoirs is urgently needed to limit global warming and for sustainable management of the global carbon cycle. Ocean alkalinity enhancement by the artificial addition of carbonate minerals to the seafloor has been proposed as a method to sequester atmospheric CO2 and store it in the ocean as dissolved bicarbonate.
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