Abstract

Integrating conceptually similar models of the growth of marine and terrestrial primary producers yielded an estimated global net primary production (NPP) of 104.9 petagrams of carbon per year, with roughly equal contributions from land and oceans. Approaches based on satellite indices of absorbed solar radiation indicate marked heterogeneity in NPP for both land and oceans, reflecting the influence of physical and ecological processes. The spatial and temporal distributions of ocean NPP are consistent with primary limitation by light, nutrients, and temperature. On land, water limitation imposes additional constraints. On land and ocean, progressive changes in NPP can result in altered carbon storage, although contrasts in mechanisms of carbon storage and rates of organic matter turnover result in a range of relations between carbon storage and changes in NPP.

Keywords

Primary productionBiosphereEnvironmental scienceCarbon cycleCarbon fibersPrimary (astronomy)Carbon fluxBiomass (ecology)Carbon sinkSatelliteBlue carbonCarbon sequestrationAtmospheric sciencesOceanographyEcologyEcosystemClimate changeCarbon dioxideGeologyBiologyComputer science

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Publication Info

Year
1998
Type
article
Volume
281
Issue
5374
Pages
237-240
Citations
6092
Access
Closed

Social Impact

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Citation Metrics

6092
OpenAlex
270
Influential
5031
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Cite This

Christopher B. Field, Michael J. Behrenfeld, James T. Randerson et al. (1998). Primary Production of the Biosphere: Integrating Terrestrial and Oceanic Components. Science , 281 (5374) , 237-240. https://doi.org/10.1126/science.281.5374.237

Identifiers

DOI
10.1126/science.281.5374.237
PMID
9657713

Data Quality

Data completeness: 81%