• Nenhum resultado encontrado

Scaling laws for perturbations in the ocean–atmosphere system following large CO<sub>2</sub> emissions

N/A
N/A
Protected

Academic year: 2017

Share "Scaling laws for perturbations in the ocean–atmosphere system following large CO<sub>2</sub> emissions"

Copied!
17
0
0

Texto

Loading

Imagem

Figure 1. Schematic representations of the forcing and nature of system response. (a) Triangular atmospheric CO 2 perturbation characterized by duration, D, and total size of emission, E
Figure 3. System gain factors as a function of time for the case of E = 1000 PgC and D = 5 kyr
Figure 5. Extreme CaCO 3 contents in each ocean basin as a function of sediment depth for the case of E = 1000 PgC and D = 5 kyr.
Figure 6. Time rate of change in global total alkalinity (TA) for the case of E = 1000 PgC and D = 5 kyr
+7

Referências

Documentos relacionados

4, we finally compare the magnitude and pacing of past temperature changes reconstructed from deep ice cores to the changes simulated by coupled ocean-atmosphere-sea- ice models

advanced that changes in the volumes of di ff erent glacial deep-water masses, prior to their overturning or mixing rates (and prior to any major changes in the biological pump

Such differences between low-frequency variations of ocean carbon fluxes and other dynamical fields are even stronger in the Southern Ocean, where Boer (2004) shows that

The interactive ocean carbon cycle model is the NASA Ocean Biogeochemistry Model (NOBM, (Gregg and Casey, 2007; Romanou et al., 2013), which is interactively coupled to the ocean

Latitudinal shifts in the Southern Ocean westerly wind jet could drive changes in the glacial to interglacial ocean CO 2 inventory.. However, whilst CMIP5 model results

To investigate whether changing the gas transfer rate can improve regional model prediction, we compared the results from the model runs with the climatology of Taka- hashi et al.

dian interannual variability from atmospheric inversions and ocean biogeochemical models is substantial in the Southern Ocean; up to 25 % of the annual mean flux, with 25 % of

In this study we use the Pelagic Integration Scheme for Carbon and Ecosystem studies (PISCES) global ocean- biogeochemistry model (Aumont and Bopp, 2006) to exam- ine the response