- E-mailnadine.goris@uib.no
- Visitor AddressGeofysisk Institutt, Allegaten 70BergenRoom314
- Postal AddressPostboks 78035020 Bergen
Chemical oceanography
Carbon cycle modelling
- (2022). Stratification constrains future heat and carbon uptake in the Southern Ocean between 30°S and 55°S. Nature Communications.
- (2022). Possibility for strong northern hemisphere high-latitude cooling under negative emissions. Nature Communications.
- (2022). Observation-based Sea surface temperature trends in Atlantic large marine ecosystems. Progress in Oceanography.
- (2022). Acidification of the Nordic Seas. Biogeosciences. 979-1012.
- (2022). A scalable, black-box hybrid genetic algorithm for continuous multimodal optimization in moderate dimensions . Nordic Machine Intelligence (NMI). 16-27.
- (2020). Ocean biogeochemistry in the Norwegian Earth System Model version 2 (NorESM2). Geoscientific Model Development. 2393-2431.
- (2018). Mechanisms and early detections of multidecadal oxygen changes in the interior subpolar North Atlantic. Geophysical Research Letters. 4218-4229.
- (2018). Constraining Projection-Based Estimates of the Future North Atlantic Carbon Uptake. Journal of Climate. 3959-3978.
- (2017). Amplification of global warming through pH dependence of DMS production simulated with a fully coupled Earth system model. Biogeosciences. 3633-3648.
- (2016). Evaluation of NorESM-OC (versions 1 and 1.2), the ocean carbon-cycle stand-alone configuration of the Norwegian Earth System Model (NorESM1). Geoscientific Model Development. 2589-2622.
- (2015). Singular vector-based targeted observations of chemical constituents: description and first application of the EURAD-IM-SVA v1.0. Geoscientific Model Development. 3929-3945.
- (2015). Responses of carbon uptake and oceanic pCO2 to climate change in the North Atlantic: A model study with the Bergen Earth System Model. Global Biogeochemical Cycles. 1567-1583.
- (2013). Singular vector decomposition for sensitivity analyses of tropospheric chemical scenarios. Atmospheric Chemistry and Physics (ACP). 5063-5087.
- (2022). Trender i havforsuring og antropogent karbon i de nordiske hav, Nordsjøen og Skagerrak. .
- (2019). Modelling of extreme currents along the planned bridge in Bjørnafjorden. Part II: the importance of mixing schemes . .
- (2018). Modelling of extreme currents along the planned bridge in Bjørnafjorden. .
- (2017). Report of the Workshop on Potential Impacts of Climate Change on Atlantic Salmon Stock Dynamics (WKCCISAL). .
- (2022). Emit now, mitigate later? - A biogeochemical perspective.
- (2022). Contemporary stratification constrains future anthropogenic carbon and excess heat uptake in the northern limb of the Southern Ocean.
- (2021). Low and overshoot emission scenarios – from a high to a low carbon society (LOES).
- (2014). Quantifying the climate-driven processes leading to a reduced CO2 uptake in the North Atlantic: A model study with the Bergen Climate Model.
- (2014). Mechanism and detectability of basin scale interannual surface pCO2 in North Atlantic and North Pacific.
- (2020). Understanding Climate Change: Where can Machine Learning help?
- (2022). Possibility for strong northern hemisphere high-latitude cooling under zero and negative emissions.
- (2022). Gulf Stream and Deep Western Boundary Currents are key to constrain the future North Atlantic Carbon Uptake.
- (2022). Emit now, mitigate later? Simulating the Earth system response to zero and negative emissions.
- (2022). Detecting ecosystem-relevant crossings of thresholds.
- (2022). Constraining the large spread in ocean carbon sinks in ESMs.
- (2022). Anthropogenic ocean acidification below the surface: does organic matter cycling result in enhanced vulnerability?
- (2021). Efficient carbon drawdown allows for a high future carbon uptake in the North Atlantic.
- (2021). Application of a genetic algorithm to locally optimize emergent constraints of the future North Atlantic Carbon Uptake.
- (2021). Anthropogenic ocean acidification below the surface: does organic matter cycling result in enhanced vulnerability?
- (2020). Strength and reversibility of the ocean carbon sink under negative emissions.
- (2020). On the Potential of the Southern Ocean Biological Pump to Maintain the Ocean Carbon Sink under Negative Emissions .
- (2019). Applying genetic algorithms to constrain the spread in ESM projections.
- (2019). Application of genetic algorithm to locally optimize emergent constraints of the future North Atlantic carbon uptake.
- (2018). Observations-constrained projections reveal early and strong deoxygenation in the interior North Atlantic.
- (2018). Early detection of anthropogenic climate change signal in the interior subpolar North Atlantic oxygen.
- (2018). Early detection of anthropogenic climate change signal in the interior subpolar North Atlantic.
- (2018). Columbia Toppforsk project Kick-off meeting.
- (2017). Low and overshoot emission scenarios – from a high to a low carbon society (LOES).
- (2017). Introduction to climate modelling and the future of the Atlantic climate.
- (2017). Emerging climate change signals in the interior ocean oxygen content.
- (2017). Amplification of global warming through pH-dependence of DMS-production.
- (2016). The role of the Southern Ocean in Earth system modelling.
- (2016). NorESM2 - ocean updates for CMIP6.
- (2016). Mechanisms and detectability of oxygen depletion in the North Atlantic.
- (2016). From CMIP5 to CMIP6: New developments for the ocean biogeochemistry module of NorESM.
- (2016). EVA WP 2: Coupling of DMS emissions - first results.
- (2013). North Atlantic variability of oceanic CO2 uptake in response to simulated past, present and future climate change.
- (2015). Havforsuring truer næringskjeden. 2grader C. 14-15.
- (2022). Stratification constrains future anthropogenic carbon and excess heat uptake in the Southern Ocean.
- (2022). Earth system response to idealized temperature overshoot scenarios.
- (2022). Detection of abrupt shifts in the metabolic index in NorESM2.
- (2021). Constraining anthropogenic carbon and excess heat uptake in climate projections.
- (2020). Importance of the biological pump for reducing uncertainties in future carbon uptake projections.
- (2019). Using machine learning to assess how climate change alters ocean biogeochemical provinces – preliminary results.
- (2019). Can we use open ocean biomes as an integrated measure for future physio-biogeochemical change? .
- (2019). Asymmetry in air-sea CO2 fluxes during rapid warming and rapid cooling scenarios.
- (2019). Application of a Big Data approach to constrain projection-based estimates of the future North Atlantic Carbon Uptake.
- (2017). The subpolar gyre region as benchmark for the future anthropogenic carbon budget of the North Atlantic.
- (2016). Reducing Uncertainties in Anthropogenic Carbon Budget Projections for the Subpolar North Atlantic.
- (2016). Deep ocean carbon sequestration and estimates of the ocean carbon sink.
- (2015). Using modes of natural variability to identify uncertainties of CMIP5 predictions in the Subpolar North Atlantic.
- (2015). The effect of climate change on the biogeochemistry of the North Atlantic: A study with the Bergen Climate Model.
- (2015). The Carbon uptake sensitivity of the North Atlantic to climate change: A model study with the Bergen Climate Model.
- (2015). Sub-regional responses of carbon uptake and oceanic pCO2 to climate change in the North Atlantic: A model study with the Bergen Earth System Model.
- (2015). Sensitivity and regional change of future biological carbon pump to POC flux parameterization.
- (2015). Performance of CMIP5 models in the Subpolar North Atlantic: Using historical and control simulations to identify uncertainties in the prediction of key climate properties.
- (2014). Modelling and assessing climate change impacts on the CO2 uptake of the North Atlantic.
- (2013). Simulated and observed trends in key variables of the Arctic marine carbon cycle.
- (2013). North Atlantic variability of oceanic CO2 uptake in response to simulated past, present and future climate change.
- (2012). Trends in the North Atlantic CO2 uptake and their correlation to ocean circulation and stratification as simulated by the Bergen Climate Model.
- (2012). North Atlantic trends in ocean circulation and stratification and their correlation to the oceanic CO2 uptake as simulated by the Bergen Climate Model.
- (2020). The impacts of ocean acidification on marine trace gases and the implications for atmospheric chemistry and climate. Proceedings of the Royal Society. Mathematical, Physical and Engineering Sciences.
- (2015). The ocean carbon sink - Impacts, vulnerabilities and challenges. Earth System Dynamics. 327-358.
- (2018). UNEP foresight Brief 09: Revisiting ocean acidification, food security and our earth system.
- (2022). “Writing successful project proposal” workshop report.
- (2021). “From idea to project: Writing successful project proposals” workshop report.
More information in national current research information system (CRIStin)
Publications
N. Goris, and H. Elbern, Singular vector decomposition for sensitivity analyses of tropospheric chemical scenarios, Atmos. Chem. Phys., 13, 5063-5087, doi:10.5194/acp-13-5063-2013, 2013
N. Goris, Singular Vector Based Targeted Observations of Atmospheric Chemical Compounds, PhD thesis, Universität zu Köln, 2011
H. Elbern, A. Strunk, E. Friese, N. Goris, K. Kasradze, and L. Nieradzik, IMACCO: Inverse Modelling of the Atmospheric Chemical Composition, Edts.: G. Münster, D. Wolf, M. Kremer, Proceedings of the 5th John-von-Neumann Institute for Computing Symposium, pp. 297-304, Jülich, 24.-25.02.2010
A. Strunk, A. Ebel, H. Elbern, E. Friese, N. Goris, and L. Nieradzik, Fourdimensional Variational Assimilation of Atmospheric Chemical Data - Application to Regional Modelling of Air Quality, Proceedings of the 7th Large Scale Supercomputing Conference, Sozopol, 2009
H. Maurer, I. Altrogge, and N. Goris, Optimization methods for solving bang-bang control problems with state constraints and the verification of sufficient conditions, Proceedings of the 44th IEEE Conference on Decision and Control, and the European Control Conference 2005 Seville, pp. 923-928, Spain, 12.-15.12.2005
N. Goris, Hinreichende Optimalitätsbedingungen für optimale Steuerprozesse mit Zu-standsbeschränkungen und linear auftretender Steuerung: Beispiele aus der Medizin und Physik, Diploma thesis, Westfälische Wilhelms-Universität Münster, 2005
Presentations
N. Goris, C. Heinze, J. Tjiputra, J. Schwinger, Quantifying the climate-driven processes leading to a reduced CO2 uptake in the North Atlantic: A model study with the Bergen Climate Model, oral presentation at the IMBER Open Science Conference; 2014-06-23 - 2014-06-27
N. Goris and H. Elbern, Targeted observations of chemical constituents, oral presentation at the EGU General Assembly 2008, EGU2008-A-03164, Vienna
Poster
N. Goris, C. Heinze, J. Tjiputra, J. Schwinger, North Atlantic variability of oceanic CO2 uptake in response to simulated past, present and future climate change, 9th International Carbon Dioxide Conference; 2013-06-03 - 2013-06-07
N. Goris, C. Heinze, S. K. Lauvset, D. Petrenko, D. Pozdnyakov, J. Schwinger, Simulated and observed trends in key variables of the Arctic marine carbon cycle, EGU General Assembly 2013, 2013-04-07 - 2013-04-12
N. Goris, C. Heinze, J. Tjiputra, J. Schwinger, Trends in the North Atlantic CO2 uptake and their correlation to ocean circulation and stratification as simulated by the Bergen Climate Model, 3rd International Conference on Earth System Modelling, 2012-09-17 - 2012-09-21
N. Goris, C. Heinze, J. Tjiputra, J. Schwinger, North Atlantic trends in ocean circulation and stratification and their correlation to the oceanic CO2 uptake as simulated by the Bergen Climate Model, Bjerknes Centre 10-year Anniversary Conference; 2012-09-03 - 2012-09-06
N. Goris and H. Elbern, Targeted observations of chemical constituents, Geophysical Research Abstracts Vol. 12, EGU2010-12659, 2010
N. Goris and H. Elbern, Gezielte Beobachtungen von chemischen Komponenten, DACH2010-308, Bonn, 20.-24.09.2010
(MONitoring and Assessing Regional Climate change in High latitudes and the Arctic)
(Changes in carbon uptake and emissions by oceans in a changing climate)