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Short Description |
Uses titanium oxide aerosol (TOA) or carbonate dust emitted from high-flying aircraft |
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Participants/ Roles |
Franz Oeste, Clive Elsworth |
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Short Description |
Buoyant flakes made largely from waste materials ultra-slowly release nutrients in continently-remote surface waters to turn the dark blue seas turquoise with phytoplankton and increasing its albedo and that of marine cloud that cools the planet enough to offset current warming |
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Participants/ Roles |
Sev Clarke, Bru Pearce, CCR, CSIR-NIO |
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Methods |
| Method: Buoyant Flakes | | Short Description | Buoyant flakes made largely from waste materials ultra-slowly release nutrients in continently-remote surface waters to turn the dark blue seas turquoise with phytoplankton and increasing its albedo and that of marine cloud that cools the planet enough to offset current warming | | Key Functions | Increases the biomass and biodiversity of marine life; sequesters atmospheric carbon dioxide (CO2) securely as carbonaceous seabed ooze & rock, refractory dissolved organic carbon (DOC), and benign, dissolved, alkaline bicarbonate; increases oceanic albedo (reflectiveness) that cools the surface waters; increases atmospheric DMS aerosols that nucleate or brighten cooling marine clouds. | | Innovation Dependencies | None known | | Graphics: | | | (Click on image to enlarge it.) |  | | Technologies | Carbon Dioxide Removal (CDR) Methane removal Ocean Fertilization Surface Brightening |
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Short Description |
Uses floating wind turbines, satellite pumping stations and intrermittent pumping regimes to thicken, and often ground, sea ice so that it becomes stable ice arrays, punctuated by polynyas and sea lanes. The method efficiently transfers surface water heat in the cold seasons to the troposphere where it can radiate into space, whilst also sequestering CO2 and oxygen in the depths and generating fresh snow and ice that increases albedo. |
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Sev Clarke and CCR. Franz Oeste and Renaud de Richter are developing the Iron Salt Aerosol (ISA) technology, see https://www.youtube.com/watch?v=Ri0T3KZ0pYM. |
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Discussion |
Wind turbine power unused in the warm season is used to pump dammed river water to where it can be used for industry and irrigation. |
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Methods |
| Method: Ice Shields/ISA | | Short Description | Uses floating wind turbines, satellite pumping stations and intrermittent pumping regimes to thicken, and often ground, sea ice so that it becomes stable ice arrays, punctuated by polynyas and sea lanes. The method efficiently transfers surface water heat in the cold seasons to the troposphere where it can radiate into space, whilst also sequestering CO2 and oxygen in the depths and generating fresh snow and ice that increases albedo. | | Key Functions | Restoring cryogenic habitat, whilst allowing ship and marine life to access the regions; sequestering CO2 safely and for centuries; cooling the planet; reducing glacial loss; cooling the arctic and some sub-arctic regions; restoring benign hemispheric weather by increasing the polar vortices and the Atlantic Meridional Overturning Current (AMOC); preventing coastal erosion; helping to oxygenate the deep ocean; providing renewable energy; and allowing ebullient methane and CO2 to be harvested before they reach the atmosphere. | | Innovation Dependencies | Polar weatherisation of floating wind turbines and pumping stations; AIS capability to so vary the intermittent pumping regimes that linked and often-grounded ice shield arrays can be grown out from the shoreline; development of ebullient ocean gas harvesting, processing and transportation methods. | | Graphics: | | | (Click on image to enlarge it.) |  | | Technologies | Carbon Dioxide Removal (CDR) Convection Ice Thickening Precipitation Control Surface Brightening |
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Short Description |
Seawater spraying to generate marine cloud brightening using Salter-designed Flettner vessels and spray from micron-sized holes in silicon wafers |
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Participants/ Roles |
Stephen Salter |
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Discussion |
Uses custom-produced, autonomous vessels (drones). |
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Methods |
| Method: Salter Spray Ship (SSS) | | Short Description | Seawater spraying to generate marine cloud brightening using Salter-designed Flettner vessels and spray from micron-sized holes in silicon wafers | | Key Functions | Ocean and atmospheric cooling | | Innovation Dependencies | Flettner propulsion. Sufficient energy generation to power generous spray rate production and vessel propulsion. | | Graphics: | | | Technologies | Marine Cloud Brightening (MCB) Precipitation Control |
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Short Description |
Seatomiser units use floating wind turbine power and modified, commercial misting, triphasic nozzles to pump sea water microdroplets into the air to evaporate, humidify, form reflective sea fog and sea salt aerosols (SSA), nucleate marine cloud, influence downwind precipitation, and to photocatalytically destroy airborne methane and smog using Oeste's ISA technology. |
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Participants/ Roles |
Sev Clarke, CCR researcher Jake Chapman |
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Discussion |
Evaporating large volumes of seawater turns solar heat that would otherwise heat the ocean into atmospheric warmth that convects upwards with turbulence and radiates into space at night-time |
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Methods |
| Method: Seatomisers/ISA | | Short Description | Seatomiser units use floating wind turbine power and modified, commercial misting, triphasic nozzles to pump sea water microdroplets into the air to evaporate, humidify, form reflective sea fog and sea salt aerosols (SSA), nucleate marine cloud, influence downwind precipitation, and to photocatalytically destroy airborne methane and smog using Oeste's ISA technology. | | Key Functions | Regional cooling through sea fog and marine cloud formation & brightening and SSA reflection; increasing thermal radiation off-planet; protecting coral reefs, seagrass meadows, kelp forests, mangroves and shellfish beds; fishery and aquaculture enhancement; mitigating the effects of extreme weather events such as wildfire, drought, flood, storm damage and hurricane; reducing heat stress; reducing atmospheric methane and smog; oxygenation and cooling of surface waters; beneficially influencing precipitation, including reclaiming coastal deserts, farmlands and drought-stricken areas, together with increasing water stores, snowpack and aquifers. When not required for spraying, the power could be delivered onshore. | | Innovation Dependencies | Successful modification of commercial spray nozzles to operate at much higher pressures and hence producing smaller droplet sizes. ISA sublimation that generates effective, photocatalytic nanoparticles. | | Graphics: | | | (Click on image to enlarge it.) |  | | Technologies | Carbon Dioxide Removal (CDR) Convection Marine Cloud Brightening (MCB) Methane removal Precipitation Control |
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Short Description |
Glider wings anchored in cool, nutriated currents cycle removeable carpets of seaweed daily up to sunlit but nutrient-poor waters in daytime and down to cool, nutrient-rich ones at night. Wings on the glider can be reset to take the unit in either direction. When increasing drag on the wing indicates harvestability, the unit rises to the surface where the thick, seaweed carpet is replaced with a thinner one. |
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Participants/ Roles |
John Macdonald, Sev Clarke |
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Methods |
| Method: Seaweed Glider | | Short Description | Glider wings anchored in cool, nutriated currents cycle removeable carpets of seaweed daily up to sunlit but nutrient-poor waters in daytime and down to cool, nutrient-rich ones at night. Wings on the glider can be reset to take the unit in either direction. When increasing drag on the wing indicates harvestability, the unit rises to the surface where the thick, seaweed carpet is replaced with a thinner one. | | Key Functions | | | Innovation Dependencies | | | Graphics: | | | (Click on image to enlarge it.) |  | | Technologies | |
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Short Description |
Uses sulfur dioxide gas emitted from high-flying aircraft or balloons. May be improved by spraying liquid sulfur onto jet engine afterburners. |
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Participants/ Roles |
Prof. David Keith of Chicago, Luke Iseman of Make Sunsets, Dr. Hugh Hunt of CCR and John Nissen. Plus Sev |
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Methods |
| Method: Stratospheric Aerosol Injection (SAI) of SO2 by aircraft | | Short Description | Uses sulfur dioxide gas emitted from high-flying aircraft or balloons. May be improved by spraying liquid sulfur onto jet engine afterburners. | | Key Functions | Global cooling | | Innovation Dependencies | Customised, high-flying aircraft. | | Graphics: | | | Technologies | Stratospheric Aerosol Injection (SAI) |
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