Climate engineering and carbon sequestration strategies

Enhancing carbon capture efficiency via perovskite-based membranes with 50-year durability requirements

perovskite carbon capture membrane durability industrial applications CO2 sequestration

Via deep-ocean carbon sequestration with genetically engineered phytoplankton blooms

ocean carbon sequestration engineered phytoplankton climate mitigation marine biogeochemistry carbon sinks

Via phytoplankton cloud seeding to mitigate climate change with controversial but promising approaches

phytoplankton cloud seeding climate engineering carbon sequestration marine ecosystems

Deep-ocean carbon sequestration with in-situ water ice utilization for climate mitigation

carbon sequestration deep-ocean storage water ice utilization climate change geoengineering

Accelerating carbon capture material discovery via high-throughput catalyst screening

high-throughput screening carbon capture metal-organic frameworks combinatorial chemistry climate tech

Via perovskite-based carbon capture membranes for high-efficiency industrial emissions scrubbing

perovskite membranes carbon capture gas separation industrial decarbonization material science

Uniting paleoclimatology with AI prediction to reconstruct ancient atmospheric CO2 levels

paleoclimatology AI reconstruction CO2 levels deep learning climate history

Blockchain-based carbon credit verification with IoT-enabled direct air capture monitoring

carbon credits blockchain verification IoT monitoring direct air capture climate tech

Through biochar soil enhancement to sequester atmospheric methane in rice paddies

biochar methane sequestration rice paddies climate mitigation soil amendment

Optimizing perovskite-based carbon capture membranes through biomimetic nanostructure patterning

perovskite membranes biomimetics carbon capture nanostructuring gas separation

Aligning with 2035 SDG targets through microbial carbon sequestration

microbial carbon sequestration SDG targets soil engineering climate mitigation biotechnology

Synthesizing future-historical approaches to assess long-term nuclear waste storage risks

deep time forecasting radioactive waste cultural continuity materials science intergenerational ethics