21 to 30 of 37 Results
Aug 9, 2021 - GUD IGSM
Dutkiewicz, Stephanie; Jahn, Oliver, 2021, "GUD IGSM numerical code and inputs", https://doi.org/10.7910/DVN/UA8VNU, Harvard Dataverse, V1
The model code is available at https://gitlab.com/jahn/gud Here we include: MITgcm_gud_igsm.tar - a tarball of the MITgcm, including the ecosystem, biogeochemical, and optical codes (pkg/gud, pkg/radtrans) and the specific modifications for the 51 plankton setup and the a climate change simulation (see monod5_igsm). runtime_file.tar - a tarball wit... |
Aug 9, 2021
Model output and code from a simulation of global change to 2100 for a marine ecosystem model This version of the model was runs with the gud package (https://gitlab.com/jahn/gud). The model includes the same ecosystem model and parameters as Dutkiewicz et al (2021), but here is used within a coarser physical ocean configuration that simulates a fu... |
Dec 15, 2020 - GUD Redundancy Model
Dutkiewicz, Stephanie, 2020, "Redundancy Model Output", https://doi.org/10.7910/DVN/HLHQ8L, Harvard Dataverse, V1
Model output for Dutkiewicz et al (GCB, 2021) Each file has output for separate experiment. The naming convention is as described in Dutkiewicz et al (2021), and as listed at the end of this description. Each file contains annual mean depth integrated Primary Production (gC/m2/year) Export Flux through 100m (gC/m2/year), Herbivorous Grazing rate (g... |
Dec 15, 2020 - GUD Redundancy Model
Dutkiewicz, Stephanie; Jahn, Oliver, 2020, "Redundancy Model Code", https://doi.org/10.7910/DVN/ZG92I6, Harvard Dataverse, V1
MITgcm code (available trhough http://mitgcm.org), with GUD ecosystem code (https://gitlab.com/jahn/gud). Exact version, modifications, and input datafiles are in the tarball available here. Model parameters are listed in the two nml files. |
Dec 15, 2020
This version of the model was runs with the gud package (https://gitlab.com/jahn/gud). The model is based on Dutkiewicz et al (2020) and resolves the cycling of carbon, phosphorus, nitrogen silica, iron, and oxygen through inorganic, living, dissolved and particulate organic phases (including CDOM). The biogeochemical and biological tracers are tra... |
Oct 24, 2019 - GUD CS510/18km resolution interannual simulation
Jahn, Oliver; Hill, Christopher, N.; Dutkiewicz, Stephanie; Follows, Michael, J., 2019, "3-daily surface (0-10m) phytoplankton biomass for Year 2000", https://doi.org/10.7910/DVN/1HGIV8, Harvard Dataverse, V1
Year 2000 3-daily averaged phytoplankton biomass (mmol C/m3) for the 35 types in the top 10m of the model. Model output has been interpolated from the natural grid onto 1/5th degree resolution. File numbers are such that 70200 is 1-3 Jan 2000, 70272 is 4-6 Jan 2000, etc Due to size constraints only one year is presented in dataverse. Additional mod... |
Oct 24, 2019
This version of the model was runs with the gud package (git://gud.mit.edu/gud1). The model is based on Dutkiewicz et al (2015) and resolves the cycling of carbon, phosphorus, nitrogen silica, iron, and oxygen through inorganic, living, dissolved and particulate organic phases (including CDOM). The biogeochemical and biological tracers are transpor... |
Aug 9, 2019 - GUD Diversity Model
Dutkiewicz, Stephanie, 2019, "Supplemental Text, Table and Figures", https://doi.org/10.7910/DVN/KXABE6, Harvard Dataverse, V2
Supplemental Material for publication: Model description text, Table, and Figures |
Aug 7, 2019 - GUD Diversity Model
Dutkiewicz, Stephanie, 2019, "Diversity Model Output", https://doi.org/10.7910/DVN/JUQCFG, Harvard Dataverse, V1
Model output for Dutkiewicz et al (BGD): nurtient_supply_rates.nc: Nutrient supplies are annual mean for the top 50m and are in units of mmol/m2/s biomass.nc Phytoplankton biomass is annual mean for top 10m and is units of mmolC/m3 Phytoplankton types arranged as follows: 1- 10: pico-phytoplankton, ESD 0.6um 11- 20: pico-phytoplankton, ESD 0.9um 21... |
Aug 7, 2019
This version of the model was runs with the gud package (git://gud.mit.edu/gud1). The model is based on Dutkiewicz et al (2015) and resolves the cycling of carbon, phosphorus, nitrogen silica, iron, and oxygen through inorganic, living, dissolved and particulate organic phases (including CDOM). The biogeochemical and biological tracers are transpor... |