| 2 | |
| 3 | |
| 4 | |
| 5 | |
| 6 | |
| 7 | Model description and basic evaluation : |
| 8 | |
| 9 | • Dufresne J.L. et al : The IPSL-CM5A Earth System Model: general description and climate change projections |
| 10 | • Hourdin F., J-Y Grandpeix, C. Rio, S. Bony, A. Jam, N. Rochetin, L. Fairhead, A. Idelkadi, I. Musat, J-L Dufresne, et al. LMDZ5 "New Physics" : principles and impact on the climate of the IPSL coupled model of a complete refundation of the boundary layer/convection/cloud parameterization. |
| 11 | • Rio C., J.-Y. Grandpeix, F. Hourdin, N. Rochetin, S. Bony + CNRM + GISS et al. On the control of deep convection by subcloud processes in the LMDZNP model through the Available Lifting Power |
| 12 | • Voldoire A. et al. The CNRM-CM5 global climate model: description and basic evaluation |
| 13 | • Salas y Mélia D. and M. Chevallier, The impact of the inclusion of new sea ice processes on the simulation of sea ice by CNRM-CM5 global coupled model". |
| 14 | • Hourdin F., M-A Foujols, F. Codron, V. Guemas, J-L Dufresne, I. Musat, A. Idelkadi, J. Gatthas, S. Denvil, F. Lott, L. Guez et al From LMDZ4 to LMDZ5 : impact of the atmospheric model grid resolution on the climatology and climate sensitivity in the IPSL coupled model |
| 15 | • Madec G., O. Marti, J. Mignot, D. Swingedouw et al. evolution of the oceanic module in the IPSL coupled model |
| 16 | • Szopa S. A. Cozic, M. Shulz, Y. Balkanski, D. Hauglustaine. al. Changes in tropospheric aerosol and reactive gases burdens and concentrations under IPCC-AR5 emission scenarios for 1850-2100 |
| 17 | |
| 18 | Model evaluation : |
| 19 | |
| 20 | • Cheruy F., J-C Dupont, A. Campoy, A. Ducharne, F. Hourdin, L. Fairhead et al. Day-to-day evaluation with respect Sirta measurements of the various physics of the LMDZ model with a streched grid and nudging |
| 21 | • Cheruy F., F. Lefebvre, F. Hourdin, Idelkadi, Catarino The toolkit of the evaluation approach of LMDZ over tropical oceans: from SCM idealized cases to 3D approaches. |
| 22 | • Konsta D., H. Chepfer, JL Dufresne, S. Bony, D. Tanré What do we learn about clouds in climate models... from A-train satellite observations ? |
| 23 | • S. Fermepin, S. Bony and L. Fairhead Evaluation of the LMDZ/IPSL climate model in a weather prediction mode; Comparisonwith single column model evaluations" |
| 24 | |
| 25 | Climate variability and dynamical studies : |
| 26 | |
| 27 | • Traore, F. Hourdin A multi configuration study of the decadal climate variability with LMDZ |
| 28 | • Duvel J. P. Weak and unorganized tropical intraseasonal perturbations in atmospheric general circulation models: A triggering problem? |
| 29 | • Kamala K., Y. Peings, P. Terray, H. Douville ENSO-Indian monsoon teleconnection in the CNRM and IPSL historical simulations |
| 30 | • Maury P., F. Lott, L. Guez, et J.-P. Duvel Tropical variability and stratospheric equatorial waves in the IPSLCM5 model |
| 31 | • Cattiaux J., B. Quesada, F. Codron, C. Déandreis, R. Vautard P? Yiou et al. North-Atlantic weather regimes and European temperatures in the IPSL model: sensitivity to atmospheric resolution. |
| 32 | • Codron F., A. Arakelian, V. Guémas. Impact of horizontal resolution on the eddy-driven jets: mean state and variability |
| 33 | • Escudier R., J. Mignot and D. Swingedouw Multidecadal variability and air-sea interactions in the subpolar North Atlantic |
| 34 | • Gastineau G., F. D'Andrea, C. Frankignoul Atmospheric response to the North Atlantic oceanic variability on seasonal to decadal time scale |
| 35 | • Persechino A., Mignot J., Swingedouw D., Labetoulle, S. and Guilyardi E., Decadal predictability in the thermohaline circulation and climate in the IPSLCM5 model. |
| 36 | • Parouty S., C. Genthon, G. Krinner, C. Brutel High southern latitudes and Antarctic atmospheric circulation / climate in the IPSL-CM5 model |
| 37 | |
| 38 | Analysis of the climate response to external forcings (anthropogenic, paleo, volcanic..) : |
| 39 | |
| 40 | • Geoffroy, O., A. Voldoire, D. Saint-Martin, D. Salas-Mélia Climate sensitivity and radiative feedbacks in the CNRM-CM5 climate model.. |
| 41 | • F. Brient, S. Bony, I Musat, J-L Dufresne Analysis of the physical mechanisms controlling tropical low-cloud feedbacks in the IPSL climate model through a hierarchy of model configurations |
| 42 | • Bony S. Analysis of the tropical precipitation response to climate change predicted by the IPSL climate model |
| 43 | • Kageyama M. et al Mid-Holocene and Last Glacial Maximum climate simulations with the IPSL model: new features with the IPSL_CM5 version. |
| 44 | • Khodri et al. Simulations of recent and historical volcanic eruptions using the IPSLCM5 ocean-atmosphere coupled model |
| 45 | • J Cattiaux, H Douville, F Chauvin, C Planté Present-day biases and future changes in European temperatures: a pilot study with CNRM and IPSL models. |
| 46 | |
| 47 | Earth-System interactions (chemistry, bio-geochemistry): |
| 48 | |
| 49 | • Bekky S. , M. Marchand, F. Lott, L. Guez, F. Lefebvre, et al Ozone forcing of climate models: Importance of ozone diurnal variations in the upper stratosphere and mesosphere |
| 50 | • Guenet B, Cadule P, Zaehle, Piao, Peylin, Maignan, Ciais, Friedlingstein Does the integration of dynamic N cycle in land surface model improve the long-term trend of LAI and the land surface CO2 exchange ith atmosphere? |
| 51 | • Seferian et al Simulating marine biogeochemitry in coupled climate models: evaluation and intercomparison of IPSL-CM and CNRM-CM |
| 52 | • Orr J.C. , R. Seferian, L. Bopp, et al. Differences between anthropogenic perturbations in heat, CO2, and CFC in the IPSL-CM and CNRM-CM earth system models |
| 53 | • |
| 54 | |
| 55 | Regional studies |
| 56 | • Tripathi O., R. Vautard, et al. Performance of LMDz global CMIP5 historical climate simulations versus downscaled regional simulations using WRF |
| 57 | • Ribes A., Mounier F. ad Planton S.: Détection attribution in the mediteranean basin. |
| 58 | |
| 59 | |
| 60 | |
| 61 | |
| 62 | |
| 63 | ---- |
| 64 | before May 15th 2011 |