The future extent of the Anthropocene epoch: A synthesis

We synthesize research from complementary scientific fields to address the likely future extent and duration of the proposed Anthropocene epoch. Intensification of human-forced climate change began from about 1970 onwards with steepening increases in greenhouse gases, ocean acidification, global tem...

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Veröffentlicht in:Global and planetary change 2024-11, Vol.242, p.104568, Article 104568
Hauptverfasser: Summerhayes, C.P., Zalasiewicz, J., Head, M.J., Syvitski, J., Barnosky, A.D., Cearreta, A., Fiałkiewicz-Kozieł, B., Grinevald, J., Leinfelder, R., McCarthy, F.M.G., McNeill, J.R., Saito, Y., Wagreich, M., Waters, C.N., Williams, M., Zinke, J.
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container_title Global and planetary change
container_volume 242
creator Summerhayes, C.P.
Zalasiewicz, J.
Head, M.J.
Syvitski, J.
Barnosky, A.D.
Cearreta, A.
Fiałkiewicz-Kozieł, B.
Grinevald, J.
Leinfelder, R.
McCarthy, F.M.G.
McNeill, J.R.
Saito, Y.
Wagreich, M.
Waters, C.N.
Williams, M.
Zinke, J.
description We synthesize research from complementary scientific fields to address the likely future extent and duration of the proposed Anthropocene epoch. Intensification of human-forced climate change began from about 1970 onwards with steepening increases in greenhouse gases, ocean acidification, global temperature and sea level, along with ice loss. The resulting distinction between relatively stable Holocene climatic conditions and those of the proposed Anthropocene epoch is substantial, with many aspects irreversible. The still-rising trajectory of greenhouse gas emissions is leading to yet greater and more permanent divergence of the Anthropocene from the Holocene Earth System. We focus here on the effects of the ensuing climate transformation and its impact on the likely duration of this novel state of the Earth System. Given the magnitude and rapid rise of atmospheric carbon dioxide (CO2), its long lifetime in the atmosphere, and the present disequilibrium in Earth's energy budget (expressed as the Earth's Energy Imbalance, or EEI), both temperatures and sea level must continue to rise – even with carbon emissions lowered to net zero (where anthropogenic CO2 emissions = anthropogenic CO2 removals) – until the energy budget balance is eventually restored. Even if net zero were achieved immediately, elevated global temperatures would persist for at least several tens of millennia, with expected levels of warmth by the end of this century not seen since the early Late Pliocene. Interglacial conditions are likely to persist for at least 50,000 years under already-accumulated CO2 emissions and Earth's low eccentricity orbit. Continued increases in greenhouse gas emissions are likely to extend that persistence to around 500,000 years, suppressing the pronounced expression of Milankovitch cyclicity typical of the later Pleistocene Epoch. This major perturbation alone is sufficient to justify the Anthropocene as terminating the Holocene Epoch. The wider and mostly irreversible effects of climate change, not least in amplifying reconfiguration of the biosphere, emphasize the scale of this departure from Holocene conditions, justifying the establishment of a new epoch. Given such perspectives, the Anthropocene epoch represents what will become a lasting and substantial change in the Earth System. It is the Holocene Epoch at only 11,700 years duration that will appear as the ‘blip’ in the Geological Time Scale, a brief interval when complex, settled human societies co-
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Intensification of human-forced climate change began from about 1970 onwards with steepening increases in greenhouse gases, ocean acidification, global temperature and sea level, along with ice loss. The resulting distinction between relatively stable Holocene climatic conditions and those of the proposed Anthropocene epoch is substantial, with many aspects irreversible. The still-rising trajectory of greenhouse gas emissions is leading to yet greater and more permanent divergence of the Anthropocene from the Holocene Earth System. We focus here on the effects of the ensuing climate transformation and its impact on the likely duration of this novel state of the Earth System. Given the magnitude and rapid rise of atmospheric carbon dioxide (CO2), its long lifetime in the atmosphere, and the present disequilibrium in Earth's energy budget (expressed as the Earth's Energy Imbalance, or EEI), both temperatures and sea level must continue to rise – even with carbon emissions lowered to net zero (where anthropogenic CO2 emissions = anthropogenic CO2 removals) – until the energy budget balance is eventually restored. Even if net zero were achieved immediately, elevated global temperatures would persist for at least several tens of millennia, with expected levels of warmth by the end of this century not seen since the early Late Pliocene. Interglacial conditions are likely to persist for at least 50,000 years under already-accumulated CO2 emissions and Earth's low eccentricity orbit. Continued increases in greenhouse gas emissions are likely to extend that persistence to around 500,000 years, suppressing the pronounced expression of Milankovitch cyclicity typical of the later Pleistocene Epoch. This major perturbation alone is sufficient to justify the Anthropocene as terminating the Holocene Epoch. The wider and mostly irreversible effects of climate change, not least in amplifying reconfiguration of the biosphere, emphasize the scale of this departure from Holocene conditions, justifying the establishment of a new epoch. Given such perspectives, the Anthropocene epoch represents what will become a lasting and substantial change in the Earth System. 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Intensification of human-forced climate change began from about 1970 onwards with steepening increases in greenhouse gases, ocean acidification, global temperature and sea level, along with ice loss. The resulting distinction between relatively stable Holocene climatic conditions and those of the proposed Anthropocene epoch is substantial, with many aspects irreversible. The still-rising trajectory of greenhouse gas emissions is leading to yet greater and more permanent divergence of the Anthropocene from the Holocene Earth System. We focus here on the effects of the ensuing climate transformation and its impact on the likely duration of this novel state of the Earth System. Given the magnitude and rapid rise of atmospheric carbon dioxide (CO2), its long lifetime in the atmosphere, and the present disequilibrium in Earth's energy budget (expressed as the Earth's Energy Imbalance, or EEI), both temperatures and sea level must continue to rise – even with carbon emissions lowered to net zero (where anthropogenic CO2 emissions = anthropogenic CO2 removals) – until the energy budget balance is eventually restored. Even if net zero were achieved immediately, elevated global temperatures would persist for at least several tens of millennia, with expected levels of warmth by the end of this century not seen since the early Late Pliocene. Interglacial conditions are likely to persist for at least 50,000 years under already-accumulated CO2 emissions and Earth's low eccentricity orbit. Continued increases in greenhouse gas emissions are likely to extend that persistence to around 500,000 years, suppressing the pronounced expression of Milankovitch cyclicity typical of the later Pleistocene Epoch. This major perturbation alone is sufficient to justify the Anthropocene as terminating the Holocene Epoch. The wider and mostly irreversible effects of climate change, not least in amplifying reconfiguration of the biosphere, emphasize the scale of this departure from Holocene conditions, justifying the establishment of a new epoch. Given such perspectives, the Anthropocene epoch represents what will become a lasting and substantial change in the Earth System. It is the Holocene Epoch at only 11,700 years duration that will appear as the ‘blip’ in the Geological Time Scale, a brief interval when complex, settled human societies co-existed with, but did not overwhelm, a stable Earth System. •Greenhouse gas emissions now comprise ∼530 ppm CO2 equivalent, above the CO2 abundance for the mid-Pliocene warm period.•Earth's Energy Imbalance (energy gained - lost) is now 1.36 W/m2, so there is substantial warming still to come.•The rate of rise of sea level has reach ∼5 mm/yr. A rise of ∼2 m seems likely by 2100 and may reach 10 m + over a few centuries.•Melting Greenland and Antarctica's ice reduces Earth's albedo, warming the polar seas, which will slow but not stop the AMOC.•Human activities are transforming the Earth System, justifying classification of the Anthropocene as a geological epoch.</description><subject>Anthropocene epoch</subject><subject>biosphere</subject><subject>carbon</subject><subject>carbon dioxide</subject><subject>climate</subject><subject>Climate change</subject><subject>Earth system</subject><subject>Earth's Energy Imbalance</subject><subject>energy</subject><subject>Global warming</subject><subject>Greenhouse Gas Emissions</subject><subject>greenhouse gases</subject><subject>greenhouses</subject><subject>Holocene epoch</subject><subject>humans</subject><subject>ice</subject><subject>ocean acidification</subject><subject>periodicity</subject><subject>Pleistocene epoch</subject><subject>Pliocene epoch</subject><subject>sea level</subject><subject>Sea-level rise</subject><subject>temperature</subject><issn>0921-8181</issn><fulltext>true</fulltext><rsrctype>article</rsrctype><creationdate>2024</creationdate><recordtype>article</recordtype><recordid>eNqFkD9PwzAUxD2ARCl8BjKypPhfEoctqoAiVWIps-U6z8RVGgfbQfTb4yqIlelJ9-5Ouh9CdwSvCCblw2H10buxV7pTK4opTyovSnGBFrimJBdEkCt0HcIBY1JhShdI7DrIzBQnDxl8Rxhi5kwWk9gMsfNudBqG9Eq3e8yaLJySDMGGG3RpVB_g9vcu0fvz0269ybdvL6_rZpsryquYm5YRpjEVAGov9q1QHAwRlWAl4VxRURUFpnUNhnNaMq6VoZzXusQKGC8MW6L7uXf07nOCEOXRBg19rwZwU5CMFEzQ85xkrWar9i4ED0aO3h6VP0mC5ZmPPMg_PvLMR858UrKZk5CWfFnwMmgLg4bWetBRts7-2_EDqK9zbw</recordid><startdate>20241101</startdate><enddate>20241101</enddate><creator>Summerhayes, C.P.</creator><creator>Zalasiewicz, J.</creator><creator>Head, M.J.</creator><creator>Syvitski, J.</creator><creator>Barnosky, A.D.</creator><creator>Cearreta, A.</creator><creator>Fiałkiewicz-Kozieł, B.</creator><creator>Grinevald, J.</creator><creator>Leinfelder, R.</creator><creator>McCarthy, F.M.G.</creator><creator>McNeill, J.R.</creator><creator>Saito, Y.</creator><creator>Wagreich, M.</creator><creator>Waters, C.N.</creator><creator>Williams, M.</creator><creator>Zinke, J.</creator><general>Elsevier B.V</general><scope>6I.</scope><scope>AAFTH</scope><scope>AAYXX</scope><scope>CITATION</scope><scope>7S9</scope><scope>L.6</scope></search><sort><creationdate>20241101</creationdate><title>The future extent of the Anthropocene epoch: A synthesis</title><author>Summerhayes, C.P. ; 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Intensification of human-forced climate change began from about 1970 onwards with steepening increases in greenhouse gases, ocean acidification, global temperature and sea level, along with ice loss. The resulting distinction between relatively stable Holocene climatic conditions and those of the proposed Anthropocene epoch is substantial, with many aspects irreversible. The still-rising trajectory of greenhouse gas emissions is leading to yet greater and more permanent divergence of the Anthropocene from the Holocene Earth System. We focus here on the effects of the ensuing climate transformation and its impact on the likely duration of this novel state of the Earth System. Given the magnitude and rapid rise of atmospheric carbon dioxide (CO2), its long lifetime in the atmosphere, and the present disequilibrium in Earth's energy budget (expressed as the Earth's Energy Imbalance, or EEI), both temperatures and sea level must continue to rise – even with carbon emissions lowered to net zero (where anthropogenic CO2 emissions = anthropogenic CO2 removals) – until the energy budget balance is eventually restored. Even if net zero were achieved immediately, elevated global temperatures would persist for at least several tens of millennia, with expected levels of warmth by the end of this century not seen since the early Late Pliocene. Interglacial conditions are likely to persist for at least 50,000 years under already-accumulated CO2 emissions and Earth's low eccentricity orbit. Continued increases in greenhouse gas emissions are likely to extend that persistence to around 500,000 years, suppressing the pronounced expression of Milankovitch cyclicity typical of the later Pleistocene Epoch. This major perturbation alone is sufficient to justify the Anthropocene as terminating the Holocene Epoch. The wider and mostly irreversible effects of climate change, not least in amplifying reconfiguration of the biosphere, emphasize the scale of this departure from Holocene conditions, justifying the establishment of a new epoch. Given such perspectives, the Anthropocene epoch represents what will become a lasting and substantial change in the Earth System. It is the Holocene Epoch at only 11,700 years duration that will appear as the ‘blip’ in the Geological Time Scale, a brief interval when complex, settled human societies co-existed with, but did not overwhelm, a stable Earth System. •Greenhouse gas emissions now comprise ∼530 ppm CO2 equivalent, above the CO2 abundance for the mid-Pliocene warm period.•Earth's Energy Imbalance (energy gained - lost) is now 1.36 W/m2, so there is substantial warming still to come.•The rate of rise of sea level has reach ∼5 mm/yr. A rise of ∼2 m seems likely by 2100 and may reach 10 m + over a few centuries.•Melting Greenland and Antarctica's ice reduces Earth's albedo, warming the polar seas, which will slow but not stop the AMOC.•Human activities are transforming the Earth System, justifying classification of the Anthropocene as a geological epoch.</abstract><pub>Elsevier B.V</pub><doi>10.1016/j.gloplacha.2024.104568</doi><oa>free_for_read</oa></addata></record>
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subjects Anthropocene epoch
biosphere
carbon
carbon dioxide
climate
Climate change
Earth system
Earth's Energy Imbalance
energy
Global warming
Greenhouse Gas Emissions
greenhouse gases
greenhouses
Holocene epoch
humans
ice
ocean acidification
periodicity
Pleistocene epoch
Pliocene epoch
sea level
Sea-level rise
temperature
title The future extent of the Anthropocene epoch: A synthesis
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