Linked from

The 39 pages that link to Biogeochemical cycle, each with the reason it gives.

• WetlandNarrower topic: Wetland processes alter the movement of carbon, nitrogen, phosphorus, and other elements.

• Benthic zoneNarrower topic: Benthic sediments store and transform elements in larger aquatic cycles.

• Hydrothermal ventNarrower topic: Vent fluids redistribute elements between ocean water and Earth’s crust.

• Nutrient cyclingNarrower topic: Nutrient cycling is the ecosystem-scale expression of these element pathways.

• EcologyRelated: It tracks matter that ecosystems continually reuse.

• EcosystemRelated: Cycles such as those of carbon and nitrogen link ecosystem life to its physical environment.

• Phosphorus cycleNarrower topic: The phosphorus cycle is a biogeochemical cycle with unusually strong geological control.

• Planetary boundariesRelated: Several boundaries concern disrupted global cycles of matter.

• Redox potentialRelated: Environmental redox conditions govern transformations in cycles such as those of nitrogen and sulfur.

• Freshwater ecologyNarrower topic: Freshwaters transform and transport carbon, nitrogen, and other elements across landscapes.

• Microbial ecologyNarrower topic: Microbial metabolisms drive many transformations in carbon, nitrogen, sulfur, and other element cycles.

• Soil microbiomeNarrower topic: Soil microbiomes mediate major transformations in carbon, nitrogen, phosphorus, and sulfur cycles.

• Earth system scienceRelated: Element cycles connect living systems with air, water, and rocks.

• RegolithRelated: Regolith participates in exchanges of nutrients and elements between rock, water, and life.

• Aquatic ecosystemNarrower topic: Nutrient cycles connect aquatic communities to their surrounding environments.

• Soil scienceNarrower topic: Soil processes connect terrestrial ecosystems to global element cycles.

• Environmental scienceBroader topic: Tracks how matter circulates among organisms, air, water, and rock.

• BacteriologyRelated: Bacteria drive major transformations in carbon, nitrogen, sulfur, and other elements.

• BiogeochemistryNarrower topic: Cycles organize the movement of matter that biogeochemistry measures and explains.

• Environmental chemistryNarrower topic: These cycles describe the natural movement that pollutants can enter or disrupt.

• BiosphereRelated: These cycles move essential matter through living and nonliving parts of the biosphere.

• Marine ecologyRelated: Carbon, nitrogen, and other element cycles link marine organisms to seawater and sediments.

• Microbial dark matterNarrower topic: Dark-matter genomes can identify previously unknown participants in elemental cycling.

• Nature (natural world)Related: It describes how essential matter circulates through living and nonliving systems.

• Environmental microbiologyNarrower topic: Microorganisms mediate many of the transformations that move elements through ecosystems.

• Gaia hypothesisRelated: Element cycles connect biological activity to atmospheric, oceanic, and geological conditions.

• Martinus BeijerinckRelated: His microbial studies helped explain how microorganisms drive transformations in natural cycles.

• MixotrophyNarrower topic: Mixotroph feeding and photosynthesis alter carbon and nutrient flows.

• Microbial metabolismNarrower topic: Microbial reactions connect cellular chemistry to ecosystem-scale element flows.

• Geochemical cycleBroader topic: This overlapping concept highlights the biological pathways within geochemical cycling.

• Vladimir VernadskyRelated: These cycles express how living matter redistributes elements across the biosphere.

• EcohydrologyRelated: Water transports nutrients and carbon, coupling ecohydrology to ecosystem chemistry.

• Environmental degradationNarrower topic: Human disruption of these cycles links pollution and resource use across ecosystems.

• Environmental studiesNarrower topic: These cycles link human activities to changes in nutrients, carbon, and other environmental components.

• Natural environmentBroader topic: These cycles connect living systems with nonliving environmental reservoirs.

• Human activitiesRelated: Human actions can redirect or accelerate cycles of carbon, nitrogen, and other elements.

• Microbiological phenomenaNarrower topic: Microbes drive key transformations in the carbon, nitrogen, and sulfur cycles.

• Multi-organism systemsBroader topic: Organisms jointly transform and transport matter through cycles spanning living and nonliving components.

• ProtistologyRelated: Protists influence carbon and nutrient cycling through photosynthesis, grazing, and decomposition.