Linked from
The 115 pages that link to Carbon cycle, each with the reason it gives.
Climate changeRelated: Human emissions alter the natural movement of carbon into and out of the atmosphere.
DeforestationRelated: Removing forests releases stored carbon and reduces future uptake from the atmosphere.
WildfireRelated: Wildfires release stored carbon and can alter how much vegetation later absorbs.
DecompositionRelated: Decomposition transfers carbon from dead organisms into soils and the atmosphere.
Climate modelRelated: Carbon-cycle models determine how much emitted carbon dioxide remains in the atmosphere.
PermianRelated: Carbon release and storage help explain Permian climate change and extinction pressures.
Chemical weatheringRelated: Silicate weathering consumes carbon dioxide over geological timescales, linking rock reactions to climate.
EarthRelated: Carbon exchange links life, oceans, and rocks to atmospheric carbon dioxide.
DetritivoreRelated: Detritivore processing affects how carbon in dead matter is stored or released.
Atmosphere of EarthRelated: Carbon exchange regulates atmospheric carbon dioxide over timescales from seasons to geologic ages.
Greenhouse gasRelated: It governs how emissions and natural sinks change atmospheric carbon dioxide concentrations.
Snowball EarthRelated: Its disruption and recovery provide the proposed route from global ice to greenhouse warming.
Soil food webRelated: Soil consumers influence whether organic carbon is stored, transformed, or released as carbon dioxide.
CarbonRelated: This cycle tracks carbon between reservoirs and helps explain its environmental effects.
Conservation of massRelated: Carbon inventories use conservation accounting to track transfers among reservoirs.
CerradoRelated: Cerrado vegetation and deep roots store carbon, while clearing and fire release it.
EvergreenRelated: Year-round foliage influences when forests take up and release carbon.
Forest degradationRelated: Degraded forests often store less carbon and may release stored carbon through damage or decay.
Bark beetleRelated: Dead trees and altered growth change how affected forests store and release carbon.
Carbon-12Related: Carbon-12 traces carbon transfer through reservoirs and biological processes.
Coastal upwellingRelated: Upwelled water can return dissolved carbon to the surface, affecting air–sea exchange.
Aerobic respirationRelated: Respiratory carbon dioxide returns oxidized organic carbon to the environment.
Carboniferous rainforest collapseRelated: Changing plant cover may have altered carbon storage and atmospheric carbon dioxide.
Edge effectsRelated: Edges can alter forest growth and decomposition, changing carbon storage and release.
DetritusRelated: Detritus stores organic carbon temporarily and releases it through decomposition.
Sulfur cycleRelated: Sulfur and carbon cycles interact through biological production, sediment burial, and atmospheric chemistry.
AragoniteRelated: Aragonite stores carbon in shells, reefs, and marine sediments.
Soil microbiologyRelated: Microbial decomposition determines how much soil carbon returns to the atmosphere or remains stored.
Carbonate mineralRelated: Carbonate formation stores carbon in long-lived sedimentary minerals.
DecomposerRelated: Decomposition returns organic carbon to soil and releases some as carbon dioxide.
Early JurassicRelated: Carbon-isotope changes help track major Early Jurassic environmental disruptions.
CoccolithophoreRelated: Coccolithophore photosynthesis and calcification move carbon through different ocean pools.
Large igneous provinceRelated: Province-related carbon emissions can rapidly perturb this cycle and drive climate change.
Social cost of carbonRelated: It determines how much of an emitted tonne remains in the atmosphere and for how long.
Tropical deforestationRelated: Forest removal releases stored carbon and weakens a major pathway for atmospheric carbon uptake.
Land coverRelated: Cover types differ in how much carbon they store and exchange with the atmosphere.
PlantRelated: Plant photosynthesis removes atmospheric carbon dioxide, while decay and fires return carbon.
Forest diebackRelated: Dead trees and reduced growth alter carbon storage and emissions from forests.
Siberian TrapsRelated: Volcanic and thermogenic carbon inputs disrupted this cycle during the extinction interval.
Anoxygenic photosynthesisRelated: Anoxygenic phototrophs can fix carbon and influence local carbon flows.
Arctic methane emissionsRelated: Arctic methane emissions transfer carbon from ecosystems and geological stores into the atmosphere.
ProterozoicRelated: Changes in carbon burial and weathering helped drive Proterozoic climate and oxygen levels.
Biomass burningRelated: Burning rapidly transfers carbon stored in vegetation into the atmosphere.
DeadwoodRelated: As wood decomposes, deadwood releases stored carbon and transfers it through the forest.
Tropical rainforest climateRelated: Rainforests store carbon in vegetation and soils while exchanging carbon dioxide with the atmosphere.
Earth scienceRelated: Carbon exchange connects climate, life, oceans, and long-term geology.
Mesopelagic fishRelated: Their vertical movements can transport carbon from surface waters into the ocean interior.
PaleoenvironmentRelated: Ancient carbon records reveal exchanges between environmental reservoirs over time.
NeoproterozoicRelated: Carbon-isotope shifts in Neoproterozoic rocks help track its changing ocean chemistry.
Tropical AmericasRelated: Tropical forests store and exchange large quantities of carbon.