public static void GrowCohorts(ActiveSite site, DateTime Time, DateTime ToTime, bool issuccessionTimestep) { if (PlugIn.Cohorts[site] == null) { return; } while (Time.CompareTo(ToTime) < 0) { if (Time.Month == 1) { if (issuccessionTimestep && tstep > 1)//&& ClimateDependentData.Data[PlugIn.Date[site]] != null { PlugIn.Cohorts[site].CombineCohorts(site, tstep, Time.Year); } CanopyBiomass.SubCanopyPARmax[site] = float.MinValue; Hydrology.AnnualTranspiration[site] = 0; //CanopyBiomass.DefineAgeLayers(site); CanopyBiomass.DefineBiomassLayers(site); CanopyBiomass.CanopyLAI[site] = 0; PlugIn.Cohorts[site].IncrementCohortsAge(); } Hydrology.UpdateSiteHydrology(Time, site); CanopyBiomass.SimulateCanopy(Time, site); if (issuccessionTimestep) { EstablishmentProbability.Compute(Time, site); } ForestFloor.Decomposition(site); SiteOutput.UpdateSiteData(Time, site); CanopyBiomass.GrossPsn[site] = 0; CanopyBiomass.NetPsn[site] = 0; CanopyBiomass.AutotrophicRespiration[site] = 0; ForestFloor.HeterotrophicRespiration[site] = 0; Hydrology.Transpiration[site] = 0; Time = Time.AddMonths(1); } CanopyBiomass.RemoveDeadCohorts(site); PlugIn.Cohorts[site].UpdateMaturePresent(); SiteOutput.WriteSiteData(site); DisturbanceDefoliation.Defoliate(site); }
public SiteConditions(ActiveSite site, ICommunity initialCommunity) { cohorts = new SiteCohorts(); canopy = new Canopy(); if (PlugIn.HasSiteOutput[site] == true) { siteoutput = new SiteOutput(site); estoutput = new EstablishmentOutput(site); } this.site = site; foreach (ISpecies spc in PlugIn.modelCore.Species) { deadcohortages[spc] = new List <int>(); } uint key = ComputeKey(initialCommunity.MapCode, PlugIn.ModelCore.Ecoregion[site].MapCode); SiteConditions s = GetFromKey(key); if (s != null) { return; } // If we don't have a sorted list of age cohorts for the initial // community, make the list List <Landis.Library.AgeOnlyCohorts.ICohort> sortedAgeCohorts; if (!sortedCohorts.TryGetValue(initialCommunity.MapCode, out sortedAgeCohorts)) { sortedAgeCohorts = PlugIn.RankCohortAgesOldToYoung(initialCommunity.Cohorts); sortedCohorts[initialCommunity.MapCode] = sortedAgeCohorts; } hydrology = new Hydrology(PlugIn.modelCore.Ecoregion[site]); forestfloor = new ForestFloor(); cohorts = new SiteCohorts(); establishment = new EstablishmentProbability(site); if (sortedAgeCohorts.Count == 0) { return; } //PlugIn.ModelCore.UI.WriteLine("Making Biomass Cohorts "+ site); BiomassSpinUp(sortedAgeCohorts, site); initialSites[key] = this; return; }
public SiteConditions(ActiveSite site, ICommunity initialCommunity) { cohorts = new SiteCohorts(); canopy = new Canopy(); if (PlugIn.HasSiteOutput[site] == true) { siteoutput = new SiteOutput(site); estoutput = new EstablishmentOutput(site); } this.site = site; foreach (ISpecies spc in PlugIn.modelCore.Species) { deadcohortages[spc] = new List<int>(); } uint key = ComputeKey(initialCommunity.MapCode, PlugIn.ModelCore.Ecoregion[site].MapCode); SiteConditions s = GetFromKey(key); if (s != null) return; // If we don't have a sorted list of age cohorts for the initial // community, make the list List<Landis.Library.AgeOnlyCohorts.ICohort> sortedAgeCohorts; if (!sortedCohorts.TryGetValue(initialCommunity.MapCode, out sortedAgeCohorts)) { sortedAgeCohorts = PlugIn.RankCohortAgesOldToYoung(initialCommunity.Cohorts); sortedCohorts[initialCommunity.MapCode] = sortedAgeCohorts; } hydrology = new Hydrology(PlugIn.modelCore.Ecoregion[site]); forestfloor = new ForestFloor(); cohorts = new SiteCohorts(); establishment = new EstablishmentProbability(site); if (sortedAgeCohorts.Count == 0) return; //PlugIn.ModelCore.UI.WriteLine("Making Biomass Cohorts "+ site); BiomassSpinUp(sortedAgeCohorts, site); initialSites[key] = this; return; }
//--------------------------------------------------------------------- /// <summary> /// Makes the set of biomass cohorts at a site based on the age cohorts /// at the site, using a specified method for computing a cohort's /// initial biomass. /// </summary> /// <param name="ageCohorts"> /// A sorted list of age cohorts, from oldest to youngest. /// </param> /// <param name="site"> /// Site where cohorts are located. /// </param> /// <param name="initialBiomassMethod"> /// The method for computing the initial biomass for a new cohort. /// </param> public static ISiteCohorts MakeBiomassCohorts(List <Landis.Library.AgeOnlyCohorts.ICohort> ageCohorts, ActiveSite site) { PlugIn.Cohorts[site] = new Library.BiomassCohortsPnET.SiteCohorts(); Hydrology.Initialize(site); Hydrology.AnnualTranspiration[site] = 0; CanopyBiomass.CanopyLAI[site] = 0; if (ageCohorts.Count == 0) { return(PlugIn.Cohorts[site]); } System.DateTime SpinUpDate = PlugIn.StartDate.AddYears(-(ageCohorts[0].Age) + ((successionTimestep == 1) ? -1 : 0)); while (SpinUpDate.CompareTo(PlugIn.StartDate) < 0) { CanopyBiomass.SubCanopyPAR[site] = Static.PAR0[SpinUpDate]; // Add those cohorts that were born at the current year foreach (Library.AgeOnlyCohorts.ICohort ageonlycohort in ageCohorts) { if (PlugIn.StartDate.Year - SpinUpDate.Year == ageonlycohort.Age) { Cohort cohort = new Cohort(ageonlycohort.Species, 1, ConstantParameters.InitialFol, 0, 0, 0, 0, SpinUpDate.Year, true); PlugIn.Cohorts[site].AddNewCohort(cohort); CohortOutput.WriteHeader(site, cohort); SiteOutput.WriteHeader(site); } } PlugIn.GrowCohorts(site, SpinUpDate, SpinUpDate.AddYears(1), false); SpinUpDate = SpinUpDate.AddYears(1); } return(PlugIn.Cohorts[site]); }
public void Grow(DateTime date, ActiveSite site, Hydrology hydrology, ForestFloor forestfloor, SiteCohorts Cohorts, SiteOutput siteoutput) { SetCanopyLayers(Cohorts, MaxAge, MaxBiom); CalculateRadiationProfile(site, date); CalculatePhotosynthesis(date, site, hydrology, forestfloor, siteoutput); }
public void CalculatePhotosynthesis(DateTime date, ActiveSite site, Hydrology hydrology, ForestFloor forestfloor, SiteOutput siteoutput) { autotrophicrespiration = 0; grosspsn = 0; netpsn = 0; totalnsc = 0; totalroot = 0; totalfoliage=0; totalbiomass = 0; maxbiom = 0; maxage = 0; for (int canopylayer = canopy.Length - 1; canopylayer >= 0; canopylayer--) { for (int ix = 0; ix < IMAX; ix++) { if (canopy[canopylayer] == null) continue; for (int coh = canopy[canopylayer].Count - 1; coh >= 0; coh--) { CohortBiomass CB = canopy[canopylayer][coh]; if (ix == 0) { forestfloor.WoodyDebris.AddMass(CB.WoodSenescence(), KWdLit[CB.Cohort.Species]); forestfloor.Litter.AddMass(CB.FoliageSenescence(date, PlugIn.modelCore.Ecoregion[site], CB.Cohort.Species), ForestFloor.KNwdLitter[PlugIn.modelCore.Ecoregion[site], CB.Cohort.Species]); } float transpiration_lyr = 0; bool cohortisalive = CB.ComputePhotosynthesis(date, PlugIn.modelCore.Ecoregion[site], ix, (int)IMAX, hydrology, ref transpiration_lyr); if (CB.Cohort.Age > MaxAge) maxage = CB.Cohort.Age; if (MaxBiom < CB.Cohort.Biomass) maxbiom = CB.Cohort.Biomass; autotrophicrespiration += CB.Autotrophicrespiration; netpsn += CB.NetPsn; grosspsn += CB.GrossPsn; if (cohortisalive == false) { deadcohorts.Add(CB.Cohort); forestfloor.WoodyDebris.AddMass(CB.Cohort.Biomass, KWdLit[CB.Cohort.Species]); forestfloor.Litter.AddMass(CB.Cohort.Fol, ForestFloor.KNwdLitter[PlugIn.modelCore.Ecoregion[site], CB.Cohort.Species]); } transpiration += transpiration_lyr; if (transpiration_lyr > hydrology.Water) { IncrementIMAX(site, date); return; } else hydrology.SubtractTranspiration(date, transpiration_lyr); if (ix == 0) { totalbiomass += CB.Cohort.Biomass; totalfoliage += CB.Cohort.Fol; totalnsc += CB.Cohort.NSC; totalroot += CB.Cohort.Root; CB.MaintenanceRespiration(PlugIn.modelCore.Ecoregion[site], date); if (siteoutput != null) { //System.Console.WriteLine("WriteCohortData\t" + site.ToString() + "\t" + date.ToString()); CohortOutput.WriteCohortData(date, site, canopy[canopylayer][coh], hydrology.Water); } } } } }//IMAX }
//--------------------------------------------------------------------- public override void Initialize() { cohorts = PlugIn.ModelCore.Landscape.NewSiteVar <ISiteCohorts>(); BiomassCohorts = new BiomassCohortsSiteVar(cohorts); baseCohorts = new Landis.Library.Biomass.BaseCohortsSiteVar(BiomassCohorts); // Counts added cohorts per site and per species newcohorts = PlugIn.ModelCore.Landscape.NewSiteVar <Landis.Library.Biomass.Species.AuxParm <int> >(); foreach (ActiveSite site in PlugIn.ModelCore.Landscape) { newcohorts[site] = new Landis.Library.Biomass.Species.AuxParm <int>(PlugIn.ModelCore.Species); } PlugIn.ModelCore.RegisterSiteVar(NewCohorts, "Succession.NewCohorts"); PlugIn.ModelCore.RegisterSiteVar(cohorts, "Succession.BiomassCohortsPnET"); PlugIn.ModelCore.RegisterSiteVar(BiomassCohorts, "Succession.BiomassCohorts"); PlugIn.ModelCore.RegisterSiteVar(baseCohorts, "Succession.AgeCohorts"); Edu.Wisc.Forest.Flel.Util.Directory.EnsureExists("output"); CohortOutput.Initialize(parameters); SiteOutput.Initialize(parameters); CohortBiomass.Initialize(parameters); EstablishmentProbability.Initialize(parameters); CanopyBiomass.Initialize(parameters); Static.Initialize(parameters); Hydrology.Initialize(parameters); Timestep = parameters.Timestep; tstep = parameters.Timestep; // Initialize Reproduction routines: // Reproduction.SufficientResources = SufficientLight; Reproduction.Establish = Establish; Reproduction.AddNewCohort = AddNewCohort; Reproduction.MaturePresent = MaturePresent; Reproduction.PlantingEstablish = PlantingEstablish; base.Initialize(modelCore, parameters.SeedAlgorithm); InitialBiomass.Initialize(parameters); Cohort.DeathEvent += CohortDied; // TODO ARJAN !! //Landis.Extension.Succession.Biomass.AgeOnlyDisturbances.Module.Initialize(parameters.AgeOnlyDisturbanceParms); ForestFloor.Initialize(parameters); SiteOutput.Initialize(parameters); StartDate = new System.DateTime(parameters.StartYear, 1, 15); year = StartDate.Year; month = StartDate.Month; InitializeSites(parameters.InitialCommunities, parameters.InitialCommunitiesMap, modelCore); }
public void CalculatePhotosynthesis(DateTime date, ActiveSite site, Hydrology hydrology, ForestFloor forestfloor, SiteOutput siteoutput) { autotrophicrespiration = 0; grosspsn = 0; netpsn = 0; totalnsc = 0; totalroot = 0; totalfoliage = 0; totalbiomass = 0; maxbiom = 0; maxage = 0; for (int canopylayer = canopy.Length - 1; canopylayer >= 0; canopylayer--) { for (int ix = 0; ix < IMAX; ix++) { if (canopy[canopylayer] == null) { continue; } for (int coh = canopy[canopylayer].Count - 1; coh >= 0; coh--) { CohortBiomass CB = canopy[canopylayer][coh]; if (ix == 0) { forestfloor.WoodyDebris.AddMass(CB.WoodSenescence(), KWdLit[CB.Cohort.Species]); forestfloor.Litter.AddMass(CB.FoliageSenescence(date, PlugIn.modelCore.Ecoregion[site], CB.Cohort.Species), ForestFloor.KNwdLitter[PlugIn.modelCore.Ecoregion[site], CB.Cohort.Species]); } float transpiration_lyr = 0; bool cohortisalive = CB.ComputePhotosynthesis(date, PlugIn.modelCore.Ecoregion[site], ix, (int)IMAX, hydrology, ref transpiration_lyr); if (CB.Cohort.Age > MaxAge) { maxage = CB.Cohort.Age; } if (MaxBiom < CB.Cohort.Biomass) { maxbiom = CB.Cohort.Biomass; } autotrophicrespiration += CB.Autotrophicrespiration; netpsn += CB.NetPsn; grosspsn += CB.GrossPsn; if (cohortisalive == false) { deadcohorts.Add(CB.Cohort); forestfloor.WoodyDebris.AddMass(CB.Cohort.Biomass, KWdLit[CB.Cohort.Species]); forestfloor.Litter.AddMass(CB.Cohort.Fol, ForestFloor.KNwdLitter[PlugIn.modelCore.Ecoregion[site], CB.Cohort.Species]); } transpiration += transpiration_lyr; if (transpiration_lyr > hydrology.Water) { IncrementIMAX(site, date); return; } else { hydrology.SubtractTranspiration(date, transpiration_lyr); } if (ix == 0) { totalbiomass += CB.Cohort.Biomass; totalfoliage += CB.Cohort.Fol; totalnsc += CB.Cohort.NSC; totalroot += CB.Cohort.Root; CB.MaintenanceRespiration(PlugIn.modelCore.Ecoregion[site], date); if (siteoutput != null) { //System.Console.WriteLine("WriteCohortData\t" + site.ToString() + "\t" + date.ToString()); CohortOutput.WriteCohortData(date, site, canopy[canopylayer][coh], hydrology.Water); } } } } }//IMAX }