ecearth3/sources/lpjg/modules/commonoutput.cpp

///////////////////////////////////////////////////////////////////////////////////////
/// \file outputmodule.cpp
/// \brief Implementation of the common output module
///
/// \author Joe Siltberg
/// $Date: 2014-05-13 14:55:59 +0200 (Tue, 13 May 2014) $
///
///////////////////////////////////////////////////////////////////////////////////////

#include "config.h"
#include "commonoutput.h"
#include "parameters.h"
#include "guess.h"

// Years between output time points in plot function output (Windows shell only)
const int PLOT_INTERVAL = 1;

// Years between updates of soil water and stand structure plot (Windows shell only)
const int PLOT_UPDATE_INTERVAL = 20;

// Years between updates of 3D vegetation view (Windows shell only)
const int VEG3D_UPDATE_INTERVAL = 5;

// Name of temporary file for output of 3D vegetation structure (Windows shell only)
const char VEG3DFILENAME[] = "xxxtemp0.bin";

// ecev3 - add lpjguess_to_string to avoid problems with std library to_string not being available on NSC platforms
#include <string.h>
#include <sstream>

using namespace std;
std::string lpjguess_int_to_string(int d) {
	std::ostringstream os;
	os << d;
	return os.str();
}

namespace GuessOutput {

REGISTER_OUTPUT_MODULE("common", CommonOutput)

CommonOutput::CommonOutput() {
	// Annual output variables
	declare_parameter("file_cmass", &file_cmass, 300, "C biomass output file");
	declare_parameter("file_anpp", &file_anpp, 300, "Annual NPP output file");
	declare_parameter("file_agpp", &file_agpp, 300, "Annual GPP output file");
	declare_parameter("file_fpc", &file_fpc, 300, "FPC output file");
	declare_parameter("file_aaet", &file_aaet, 300, "Annual AET output file");
	declare_parameter("file_lai", &file_lai, 300, "LAI output file");
	declare_parameter("file_cflux", &file_cflux, 300, "C fluxes output file");
	declare_parameter("file_doc", &file_doc, 300, "DOC output file");
	declare_parameter("file_dens", &file_dens, 300, "Tree density output file");
	declare_parameter("file_cpool", &file_cpool, 300, "Soil C output file");
	declare_parameter("file_clitter", &file_clitter, 300, "Litter C output file");
	declare_parameter("file_runoff", &file_runoff, 300, "Runoff output file");
	declare_parameter("file_firert", &file_firert, 300, "Fire retrun time output file");

	declare_parameter("file_nmass", &file_nmass, 300, "N biomass output file");
	declare_parameter("file_cton_leaf", &file_cton_leaf, 300, "Mean leaf C:N output file");
	declare_parameter("file_nsources", &file_nsources, 300, "Annual nitrogen sources output file");
	declare_parameter("file_npool", &file_npool, 300, "Soil nitrogen output file");
	declare_parameter("file_nlitter", &file_nlitter, 300, "Litter nitrogen output file");
	declare_parameter("file_nuptake", &file_nuptake, 300, "Annual nitrogen uptake output file");
	declare_parameter("file_vmaxnlim", &file_vmaxnlim, 300, "Annual nitrogen limitation on vm output file");
	declare_parameter("file_nflux", &file_nflux, 300, "Annual nitrogen fluxes output file");
	declare_parameter("file_ngases", &file_ngases, 300, "Annual nitrogen gases output file");

	declare_parameter("file_wflux", &file_wflux, 300, "Annual water fluxes output file");
	declare_parameter("file_wpool", &file_wpool, 300, "Soil water output file");

	declare_parameter("file_speciesheights", &file_speciesheights, 300, "Mean species heights");

	// Monthly output variables
	declare_parameter("file_mnpp", &file_mnpp, 300, "Monthly NPP output file");
	declare_parameter("file_mlai", &file_mlai, 300, "Monthly LAI output file");
	declare_parameter("file_mgpp", &file_mgpp, 300, "Monthly GPP-LeafResp output file");
	declare_parameter("file_mra", &file_mra, 300, "Monthly autotrophic respiration output file");
	declare_parameter("file_maet", &file_maet, 300, "Monthly AET output file");
	declare_parameter("file_mpet", &file_mpet, 300, "Monthly PET output file");
	declare_parameter("file_mevap", &file_mevap, 300, "Monthly Evap output file");
	declare_parameter("file_mrunoff", &file_mrunoff, 300, "Monthly runoff output file");
	declare_parameter("file_mintercep", &file_mintercep, 300, "Monthly intercep output file");
	declare_parameter("file_mrh", &file_mrh, 300, "Monthly heterotrophic respiration output file");
	declare_parameter("file_mnee", &file_mnee, 300, "Monthly NEE output file");
	declare_parameter("file_mwcont_upper", &file_mwcont_upper, 300, "Monthly wcont_upper output file");
	declare_parameter("file_mwcont_lower", &file_mwcont_lower, 300, "Monthly wcont_lower output file");
	// bvoc
	declare_parameter("file_aiso", &file_aiso, 300, "annual isoprene flux output file");
	declare_parameter("file_miso", &file_miso, 300, "monthly isoprene flux output file");
	declare_parameter("file_amon", &file_amon, 300, "annual monoterpene flux output file");
	declare_parameter("file_mmon", &file_mmon, 300, "monthly monoterpene flux output file");
	declare_parameter("file_amon_mt1", &file_amon_mt1, 300, "annual endocyclic monoterpene flux output file");	
	declare_parameter("file_amon_mt2", &file_amon_mt2, 300, "annual other monoterpene flux output file");
	declare_parameter("file_mmon_mt1", &file_mmon_mt1, 300, "monthly endocyclic monoterpene flux output file");	
	declare_parameter("file_mmon_mt2", &file_mmon_mt2, 300, "monthly other monoterpene flux output file");
}


CommonOutput::~CommonOutput() {
}

/// Define all output tables and their formats
void CommonOutput::init() {

	define_output_tables();
}

/** This function specifies all columns in all output tables, their names,
 *  column widths and precision.
 *
 *  For each table a TableDescriptor object is created which is then sent to
 *  the output channel to create the table.
 */
void CommonOutput::define_output_tables() {

	//Extra number of decimals when output for benchmarks
#ifdef RUN_BENCHMARKS	
	const int bm_extra_prec = 2;
#else
	const int bm_extra_prec =0;
#endif
	
	// create a vector with the pft names
	std::vector<std::string> pfts;

	// create a vector with the crop pft names
	std::vector<std::string> crop_pfts;

	pftlist.firstobj();
	while (pftlist.isobj) {
		 Pft& pft=pftlist.getobj();

		 pfts.push_back((char*)pft.name);

		 if(pft.landcover==CROPLAND)
			 crop_pfts.push_back((char*)pft.name);

		 pftlist.nextobj();
	}

	// create a vector with the landcover column titles
	std::vector<std::string> landcovers;

	if (run_landcover) {
		 const char* landcover_string[]={"Urban_sum", "Crop_sum", "Pasture_sum",
			 "Forest_sum", "Natural_sum", "Peatland_sum", "Barren_sum"};
		 for (int i=0; i<NLANDCOVERTYPES; i++) {
			  if(run[i]) {
					landcovers.push_back(landcover_string[i]);
			  }
		 }
	}

	// create a vector with the landcover column titles
	std::vector<std::string> soil_layers;

	// ecev3 - don't use STD library version of to_string
	for (int i = 0; i < NSOILLAYER; i++) {
		soil_layers.push_back("lyr" + lpjguess_int_to_string(i+1));
	}

	// Create the month columns
	ColumnDescriptors month_columns;
	ColumnDescriptors month_columns_wide;
	ColumnDescriptors soil_layer_columns;
	xtring months[] = {"Jan","Feb","Mar","Apr","May","Jun","Jul","Aug","Sep","Oct","Nov","Dec"};
	for (int i = 0; i < 12; i++) {
		month_columns      += ColumnDescriptor(months[i], 8,  3);
		month_columns_wide += ColumnDescriptor(months[i], 10, 3);
	}

	// Create the columns for each output file

	// CMASS
	ColumnDescriptors cmass_columns;
	cmass_columns += ColumnDescriptors(pfts,               8, 3);
	cmass_columns += ColumnDescriptor("Total",             8, 3);
	cmass_columns += ColumnDescriptors(landcovers,        13, 3);

	// ANPP
	ColumnDescriptors anpp_columns = cmass_columns;

	// AGPP
	ColumnDescriptors agpp_columns = cmass_columns;

	// FPC
	ColumnDescriptors fpc_columns = cmass_columns;
	// ecev3 - add dominant type and fractions to FPC file 
	fpc_columns += ColumnDescriptor("TYPEH",             8, 0);
	fpc_columns += ColumnDescriptor("FRACH",             8, 4);
	fpc_columns += ColumnDescriptor("TYPEL",             8, 0);
	fpc_columns += ColumnDescriptor("FRACL",             8, 4);
	fpc_columns += ColumnDescriptor("AGDD5",             8, 0);
	fpc_columns += ColumnDescriptor("AWCONT",            8, 3);
	fpc_columns += ColumnDescriptor("URBANFPC",          12, 4);
	fpc_columns += ColumnDescriptor("CROPFPC",           12, 4);
	fpc_columns += ColumnDescriptor("PASTUREFPC",        12, 4);
	fpc_columns += ColumnDescriptor("FORESTFPC",         12, 4);
	fpc_columns += ColumnDescriptor("GRASSFPC",          12, 4);
	fpc_columns += ColumnDescriptor("TREEFPC",           12, 4);
	fpc_columns += ColumnDescriptor("PEATFPC",           12, 4);
	fpc_columns += ColumnDescriptor("BARRENFPC",         12, 4);

	// AET
	ColumnDescriptors aaet_columns;
	aaet_columns += ColumnDescriptors(pfts,                8, 2);
	aaet_columns += ColumnDescriptor("Total",              8, 2);
	aaet_columns += ColumnDescriptors(landcovers,         13, 2);

	// DENS
	ColumnDescriptors dens_columns;
	dens_columns += ColumnDescriptors(pfts,                8, 4);
	dens_columns += ColumnDescriptor("Total",              8, 4);
	dens_columns += ColumnDescriptors(landcovers,         13, 4);

	// LAI
	ColumnDescriptors lai_columns = dens_columns;

	// CFLUX
	ColumnDescriptors cflux_columns;
	cflux_columns += ColumnDescriptor("Veg",               8, 3);
	cflux_columns += ColumnDescriptor("Repr",              8, 3);
	cflux_columns += ColumnDescriptor("Soil",              8, 3);
	cflux_columns += ColumnDescriptor("Fire",              8, 3);
	cflux_columns += ColumnDescriptor("Est",               8, 3);
	if (run_landcover) {
		 cflux_columns += ColumnDescriptor("Seed",         8, 3);
		 cflux_columns += ColumnDescriptor("Harvest",      9, 3);
		 cflux_columns += ColumnDescriptor("LU_ch",        9, 3);
		 cflux_columns += ColumnDescriptor("Slow_h",       9, 3);
	}
	cflux_columns += ColumnDescriptor("NEE",              10 + bm_extra_prec, 5 + bm_extra_prec);

	ColumnDescriptors doc_columns;
	doc_columns += ColumnDescriptor("Total",              10, 3);
	doc_columns += ColumnDescriptors(landcovers,          13, 3);

	// CPOOL
	ColumnDescriptors cpool_columns;
	cpool_columns += ColumnDescriptor("VegC",              8, 3);

	if (!ifcentury) {
		cpool_columns += ColumnDescriptor("LittC",         8, 3);
		cpool_columns += ColumnDescriptor("SoilfC",        8, 3);
		cpool_columns += ColumnDescriptor("SoilsC",        8, 3);
	}
	else {
		cpool_columns += ColumnDescriptor("LitterC",       8, 3);
		cpool_columns += ColumnDescriptor("SoilC",         8, 3);
	}
	if (run_landcover && ifslowharvestpool) {
		 cpool_columns += ColumnDescriptor("HarvSlowC",   10, 3);
	}
	cpool_columns += ColumnDescriptor("Total",            10 + bm_extra_prec, 3 + bm_extra_prec);

	// CLITTER
	ColumnDescriptors clitter_columns = cmass_columns;

	// FIRERT
	ColumnDescriptors firert_columns;
	firert_columns += ColumnDescriptor("FireRT",           8, 1);

	// RUNOFF
	ColumnDescriptors runoff_columns;
	runoff_columns += ColumnDescriptor("Surf",             8, 1);
	runoff_columns += ColumnDescriptor("Drain",            8, 1);
	runoff_columns += ColumnDescriptor("Base",             8, 1);
	runoff_columns += ColumnDescriptor("Total",            8, 1);

	// SPECIESHEIGHTS
	ColumnDescriptors speciesheights_columns;
	speciesheights_columns += ColumnDescriptors(pfts,      8, 2);

	// AISO
	ColumnDescriptors aiso_columns;
	aiso_columns += ColumnDescriptors(pfts,               10, 3);
	aiso_columns += ColumnDescriptor("Total",             10, 3);
	aiso_columns += ColumnDescriptors(landcovers,         13, 3);

	// MONOTERPENES
	ColumnDescriptors amon_columns = aiso_columns;

	// CTON
	ColumnDescriptors cton_columns;
	cton_columns += ColumnDescriptors(pfts,                8, 1);
	cton_columns += ColumnDescriptor("Total",              8, 1);
	cton_columns += ColumnDescriptors(landcovers,         13, 1);

	// NSOURCES
	ColumnDescriptors nsources_columns;
	nsources_columns += ColumnDescriptor("dep",            8, 2);
	nsources_columns += ColumnDescriptor("fix",            8, 2);
	nsources_columns += ColumnDescriptor("fert",           8, 2);
	nsources_columns += ColumnDescriptor("input",          8, 2);
	nsources_columns += ColumnDescriptor("min",            8, 2);
	nsources_columns += ColumnDescriptor("imm",            8, 2);
	nsources_columns += ColumnDescriptor("netmin",         8, 2);
	nsources_columns += ColumnDescriptor("Total",          8, 2);

	// NPOOL
	ColumnDescriptors npool_columns;
	npool_columns += ColumnDescriptor("VegN",              9, 4);
	npool_columns += ColumnDescriptor("LitterN",           9, 4);
	npool_columns += ColumnDescriptor("SoilN",             9, 4);

	if (run_landcover && ifslowharvestpool) {
		npool_columns += ColumnDescriptor("HarvSlowN",    10, 4);
	}

	npool_columns += ColumnDescriptor("Total",            10 + bm_extra_prec, 4 + bm_extra_prec);

	// NMASS
	ColumnDescriptors nmass_columns;
	nmass_columns += ColumnDescriptors(pfts,               8, 2);
	nmass_columns += ColumnDescriptor("Total",             8, 2);
	nmass_columns += ColumnDescriptors(landcovers,        13, 2);

	// NUPTAKE
	ColumnDescriptors nuptake_columns = nmass_columns;

	// NLITTER
	ColumnDescriptors nlitter_columns = nmass_columns;

	// VMAXNLIM
	ColumnDescriptors vmaxnlim_columns;
	vmaxnlim_columns += ColumnDescriptors(pfts,            8, 2);
	vmaxnlim_columns += ColumnDescriptor("Total",          8, 2);
	vmaxnlim_columns += ColumnDescriptors(landcovers,     13, 2);

	// NFLUX
	ColumnDescriptors nflux_columns;
	nflux_columns += ColumnDescriptor("dep",               8, 2);
	nflux_columns += ColumnDescriptor("fix",               8, 2);
	nflux_columns += ColumnDescriptor("fert",              8, 2);
	nflux_columns += ColumnDescriptor("flux",              8, 2);
	nflux_columns += ColumnDescriptor("leach",             8, 2);
	if (run_landcover) {
		nflux_columns += ColumnDescriptor("seed",		   8, 2);
		nflux_columns += ColumnDescriptor("harvest",       8, 2);
		nflux_columns += ColumnDescriptor("LU_ch",         8, 3);
		nflux_columns += ColumnDescriptor("Slow_h",        8, 3);
	}
	nflux_columns += ColumnDescriptor("NEE",               8 + bm_extra_prec, 2 + bm_extra_prec);

	// NGASES
	ColumnDescriptors ngases_columns;
	ngases_columns += ColumnDescriptor("NH3",              9, 3);
	ngases_columns += ColumnDescriptor("NOx",              9, 3);
	ngases_columns += ColumnDescriptor("N2O",              9, 3);
	ngases_columns += ColumnDescriptor("N2",               9, 3);
	ngases_columns += ColumnDescriptor("NSoil",            9, 3);
	ngases_columns += ColumnDescriptor("Total",            9, 3);

	// WFLUX
	ColumnDescriptors wflux_columns;
	wflux_columns += ColumnDescriptor("prec",             10, 2);
	wflux_columns += ColumnDescriptor("irri",             10, 2);
	wflux_columns += ColumnDescriptor("pet",              10, 2);
	wflux_columns += ColumnDescriptor("aet",              10, 2);
	wflux_columns += ColumnDescriptor("intercep",         10, 2);
	wflux_columns += ColumnDescriptor("evap",             10, 2);
	wflux_columns += ColumnDescriptor("surfrunoff",       14, 2);
	wflux_columns += ColumnDescriptor("drainrunoff",      14, 2);
	wflux_columns += ColumnDescriptor("baserunoff",       14, 2);
	wflux_columns += ColumnDescriptor("NEE",              10, 4);

	// WPOOL
	ColumnDescriptors wpool_columns;
	wpool_columns += ColumnDescriptor("snow",              8, 2);
	wpool_columns += ColumnDescriptors(soil_layers,        8, 2);

	// *** ANNUAL OUTPUT VARIABLES ***

	create_output_table(out_cmass,          file_cmass,          cmass_columns);
	create_output_table(out_anpp,           file_anpp,           anpp_columns);
	create_output_table(out_agpp,           file_agpp,           agpp_columns);
	create_output_table(out_fpc,            file_fpc,            fpc_columns);
	create_output_table(out_aaet,           file_aaet,           aaet_columns);
	create_output_table(out_dens,           file_dens,           dens_columns);
	create_output_table(out_lai,            file_lai,            lai_columns);
	create_output_table(out_cflux,          file_cflux,          cflux_columns);
	create_output_table(out_doc,	        file_doc,			 doc_columns);
	create_output_table(out_cpool,          file_cpool,          cpool_columns);
	create_output_table(out_clitter,        file_clitter,        clitter_columns);

	create_output_table(out_firert,         file_firert,         firert_columns);
	create_output_table(out_runoff,         file_runoff,         runoff_columns);
	create_output_table(out_speciesheights, file_speciesheights, speciesheights_columns);
	create_output_table(out_aiso,           file_aiso,           aiso_columns);
	create_output_table(out_amon,           file_amon,           amon_columns);
	create_output_table(out_amon_mt1,       file_amon_mt1,       amon_columns);
	create_output_table(out_amon_mt2,       file_amon_mt2,       amon_columns);

	create_output_table(out_nmass,          file_nmass,          nmass_columns);
	create_output_table(out_cton_leaf,      file_cton_leaf,      cton_columns);
	create_output_table(out_nsources,       file_nsources,       nsources_columns);
	create_output_table(out_npool,          file_npool,          npool_columns);
	create_output_table(out_nlitter,        file_nlitter,        nlitter_columns);
	create_output_table(out_nuptake,        file_nuptake,        nuptake_columns);
	create_output_table(out_vmaxnlim,       file_vmaxnlim,       vmaxnlim_columns);
	create_output_table(out_nflux,          file_nflux,          nflux_columns);
	create_output_table(out_ngases,         file_ngases,         ngases_columns);

	create_output_table(out_wflux,          file_wflux,          wflux_columns);
	create_output_table(out_wpool,          file_wpool,          wpool_columns);

	// *** MONTHLY OUTPUT VARIABLES ***

	create_output_table(out_mnpp,           file_mnpp,           month_columns);
	create_output_table(out_mlai,           file_mlai,           month_columns);
	create_output_table(out_mgpp,           file_mgpp,           month_columns);
	create_output_table(out_mra,            file_mra,            month_columns);
	create_output_table(out_maet,           file_maet,           month_columns);
	create_output_table(out_mpet,           file_mpet,           month_columns);
	create_output_table(out_mevap,          file_mevap,          month_columns);
	create_output_table(out_mrunoff,        file_mrunoff,        month_columns_wide);
	create_output_table(out_mintercep,      file_mintercep,      month_columns);
	create_output_table(out_mrh,            file_mrh,            month_columns);
	create_output_table(out_mnee,           file_mnee,           month_columns);
	create_output_table(out_mwcont_upper,   file_mwcont_upper,   month_columns);
	create_output_table(out_mwcont_lower,   file_mwcont_lower,   month_columns);
	create_output_table(out_miso,           file_miso,           month_columns_wide);
	create_output_table(out_mmon,           file_mmon,           month_columns_wide);
	create_output_table(out_mmon_mt1,       file_mmon_mt1,       month_columns_wide);
	create_output_table(out_mmon_mt2,       file_mmon_mt2,       month_columns_wide);
}

/// Function for producing data file used to communicate information on stand structure
/** for 3D vegetation plot in Windows shell
 */
void output_vegetation(Gridcell& gridcell, Pftlist& pftlist) {

	int ival, p, npft_tree, npft_grass, npft_total;
	double grasslai;
	const bool FALSCH = false;
	const double rgb[3] = { -1, -1, -1 };

	xtring file;
	char pftname[16];
	file = VEG3DFILENAME;
	FILE* out = fopen(file, "wb");
	if (out)
	{

		// Loop through Stands
		Gridcell::iterator gc_itr = gridcell.begin();
		while (gc_itr != gridcell.end())
		{
			Stand& stand = *gc_itr;

			npft_tree = npft_grass = 0;
			pftlist.firstobj();
			while (pftlist.isobj) {
				Pft& pft = pftlist.getobj();
				if (pft.lifeform == TREE) npft_tree++;
				else if (pft.lifeform == GRASS) npft_grass++;
				pftlist.nextobj();
			}
			npft_total = npft_tree + npft_grass;
			fwrite(&npft_total, sizeof(int), 1, out);
			fwrite(&npft_tree, sizeof(int), 1, out);
			pftlist.firstobj();
			while (pftlist.isobj) {
				Pft& pft = pftlist.getobj();
				if (pft.lifeform == TREE) {
					sprintf(pftname, "%s", (char*)(pft.name.left(15)));
					fwrite(pftname, sizeof(char), 16, out);
					fwrite(&FALSCH, sizeof(bool), 1, out);
					fwrite(&rgb, sizeof(double), 3, out);
					//fwrite(&pft.ifconifer, sizeof(bool), 1, out);
					//fwrite(pft.preferredrgb, sizeof(double), 3, out);
				}
				pftlist.nextobj();
			}
			pftlist.firstobj();
			while (pftlist.isobj) {
				Pft& pft = pftlist.getobj();
				if (pft.lifeform == GRASS) {
					sprintf(pftname, "%s", (char*)(pft.name.left(15)));
					fwrite(pftname, sizeof(char), 16, out);
					fwrite(&rgb, sizeof(double), 3, out);
					//fwrite(pft.preferredrgb, sizeof(double), 3, out);
				}
				pftlist.nextobj();
			}
			int npatch = stand.npatch();
			fwrite(&npatch, sizeof(int), 1, out);
			fwrite(&patcharea, sizeof(double), 1, out);
			for (p = 0; p<npatch; p++) {
				Patch& patch = stand[p];
				Vegetation& vegetation = patch.vegetation;
				grasslai = 0.0;
				vegetation.firstobj();
				while (vegetation.isobj) {
					Individual& indiv = vegetation.getobj();
					if (indiv.pft.lifeform == TREE && indiv.alive) {
						ival = indiv.pft.id;
						fwrite(&ival, sizeof(int), 1, out);
						ival = indiv.id;
						fwrite(&ival, sizeof(int), 1, out);
						fwrite(&indiv.densindiv, sizeof(double), 1, out);
						fwrite(&indiv.height, sizeof(double), 1, out);
						fwrite(&indiv.crownarea, sizeof(double), 1, out);
					}
					else if (indiv.pft.lifeform == GRASS) grasslai += indiv.lai;
					vegetation.nextobj();
				}
				ival = -9999;
				fwrite(&ival, sizeof(int), 1, out); // indicates no more cohorts in this patch
				if (grasslai<0) grasslai = 0.0;
				fwrite(&grasslai, sizeof(double), 1, out);
			}
			++gc_itr;
		} //while (gridcell.isobj) 

		fclose(out);

	} //if(out)

	plot3d(file);
}

/// Gets stand age structure to argument densindiv of dimensions [npft,nageclass]
/** First call with havedims=false to allocate memory and return nageclass,
  * then with havedims=true to get data into densindiv
  * Calling function is responsible for deallocating memory by:
  * delete[] densindiv;
*/
void get_stand_age_structure(Gridcell& gridcell,double* densindiv,int& nageclass,bool havedims) {

	int p, c;
	double active_fraction;

	if (!(vegmode == COHORT || vegmode == INDIVIDUAL)) {
		nageclass = 0;
		return;
	}

	if (havedims) {
		for (p = 0; p < npft; p++)
			for (c = 0; c < nageclass; c++)
				densindiv[p*nageclass + c] = 0.0;
	}
	else nageclass = 0;

	pftlist.firstobj();
	while (pftlist.isobj) {
		Pft& pft = pftlist.getobj();

		// Determine area fraction of stands where this pft is active:
		active_fraction = 0.0;
		Gridcell::iterator gc_itr = gridcell.begin();

		while (gc_itr != gridcell.end()) {
			Stand& stand = *gc_itr;

			if (stand.pft[pft.id].active) {
				active_fraction += stand.get_gridcell_fraction();
			}
			++gc_itr;
		}

		// Loop through Stands
		gc_itr = gridcell.begin();

		while (gc_itr != gridcell.end()) {
			Stand& stand = *gc_itr;

			Standpft& standpft = stand.pft[pft.id];
			if (standpft.active) {

				stand.firstobj();

				// Loop through Patches
				while (stand.isobj) {
					Patch& patch = stand.getobj();
					Patchpft& patchpft = patch.pft[pft.id];
					Vegetation& vegetation = patch.vegetation;

					// Loop through individuals/cohorts

					vegetation.firstobj();
					while (vegetation.isobj) {
						Individual& indiv = vegetation.getobj();

						if (indiv.id != -1 && indiv.alive) {

							if (indiv.pft.id == pft.id) {

								// Age structure
								c = (int)(indiv.age / estinterval);

								if (havedims && active_fraction > 0.0) { // ecev3 - added active_fraction check

									densindiv[pft.id*nageclass + c] += indiv.densindiv / (double)stand.npatch()* stand.get_gridcell_fraction() / active_fraction;

								}
								else if (c > nageclass) nageclass = c;
							}
						}
						vegetation.nextobj();
					}
					stand.nextobj();
				}
			}
			++gc_itr;
		}
		pftlist.nextobj();
	}
}

/// Local analogue of OutputRows::add_value for restricting output
/** Use to restrict output to specified range of years
  * (or other user-specified limitation)
  *
  * If only yearly output between, say 1961 and 1990 is requred, use:
  *  if (date.get_calendar_year() >= 1961 && date.get_calendar_year() <= 1990)
  *  (assuming the input module has set the first calendar year in the date object)	
  */
void outlimit(OutputRows& out, const Table& table, double d) {

	if (date.year>=nyear_spinup)
		out.add_value(table, d);
}

/// Output of simulation results at the end of each year
/** Output of simulation results at the end of each year, or for specific years in
  * the simulation of each stand or grid cell. 
  * This function does not have to provide any information to the framework.
  *
  * Restrict output to specific years in the local helper function outlimit().
  *
  * Changes in the structure of this function should be mirrored in outannual()
  * of the other output modules, e.g. MiscOutput::outannual().
  */
void CommonOutput::outannual(Gridcell& gridcell) {

	int c, m;
	double flux_veg, flux_repr, flux_soil, flux_fire, flux_est, flux_debexcc, flux_seed, flux_charvest;
	double c_fast, c_slow, c_harv_slow;

	double surfsoillitterc, surfsoillittern, cwdc, cwdn, centuryc, centuryn, n_harv_slow, availn;
	double flux_nh3, flux_nox, flux_n2o, flux_n2, flux_nsoil, flux_ntot, flux_nharvest, flux_nseed;

	// Nitrogen output is in kgN/ha instead of kgC/m2 as for carbon
	double m2toha = 10000.0;

	// hold the monthly average across patches
	double mnpp[12];
	double mgpp[12];
	double mlai[12];
	double maet[12];
	double mpet[12];
	double mevap[12];
	double mintercep[12];
	double mrunoff[12];
	double mrh[12];
	double mra[12];
	double mnee[12];
	double mwcont_upper[12];
	double mwcont_lower[12];
	// bvoc
	double miso[12];
	double mmon[12];
	double mmon_mt1[12];
	double mmon_mt2[12];
	double aprec, airri, aaet, apet, aevap, arunoff, aintercep;
	double snow, mois[NSOILLAYER] = { 0.0 };

	// yearly output after spinup

	// If only yearly output between, say 1961 and 1990 is requred, use:
	//  if (date.get_calendar_year() >= 1961 && date.get_calendar_year() <= 1990) {
	//  (assuming the input module has set the first calendar year in the date object)

	// if (date.year >= nyear_spinup) {
	if (date.year >= 0) { // ecev3 - we want output every year

		double lon = gridcell.get_lon();
		double lat = gridcell.get_lat();

		// The OutputRows object manages the next row of output for each
		// output table
		OutputRows out(output_channel, lon, lat, date.get_calendar_year());

		// guess2008 - reset monthly and annual sums across patches each year
		for (m = 0; m < 12; m++)
			mnpp[m] = mlai[m] = mgpp[m] = mra[m] = maet[m] = mpet[m] = mevap[m] = mintercep[m] = mrunoff[m] = mrh[m] = mnee[m] = mwcont_upper[m] = mwcont_lower[m] = miso[m] = mmon[m] = mmon_mt1[m] = mmon_mt2[m] = 0.0;
		aprec = airri = aaet = apet = aevap = arunoff = aintercep = 0.0;
		snow = 0.0;

		double landcover_cmass[NLANDCOVERTYPES] = { 0.0 };
		double landcover_nmass[NLANDCOVERTYPES] = { 0.0 };
		double landcover_cmass_leaf[NLANDCOVERTYPES] = { 0.0 };
		double landcover_nmass_leaf[NLANDCOVERTYPES] = { 0.0 };
		double landcover_cmass_veg[NLANDCOVERTYPES] = { 0.0 };
		double landcover_nmass_veg[NLANDCOVERTYPES] = { 0.0 };
		double landcover_clitter[NLANDCOVERTYPES] = { 0.0 };
		double landcover_nlitter[NLANDCOVERTYPES] = { 0.0 };
		double landcover_anpp[NLANDCOVERTYPES] = { 0.0 };
		double landcover_agpp[NLANDCOVERTYPES] = { 0.0 };
		double landcover_fpc[NLANDCOVERTYPES] = { 0.0 };
		double landcover_aaet[NLANDCOVERTYPES] = { 0.0 };
		double landcover_lai[NLANDCOVERTYPES] = { 0.0 };
		double landcover_densindiv_total[NLANDCOVERTYPES] = { 0.0 };
		double landcover_aiso[NLANDCOVERTYPES] = { 0.0 };
		double landcover_amon[NLANDCOVERTYPES] = { 0.0 };
		double landcover_amon_mt1[NLANDCOVERTYPES] = { 0.0 };
		double landcover_amon_mt2[NLANDCOVERTYPES] = { 0.0 };
		double landcover_nuptake[NLANDCOVERTYPES] = { 0.0 };
		double landcover_vmaxnlim[NLANDCOVERTYPES] = { 0.0 };

		double mean_standpft_cmass = 0.0;
		double mean_standpft_nmass = 0.0;
		double mean_standpft_cmass_leaf = 0.0;
		double mean_standpft_nmass_leaf = 0.0;
		double mean_standpft_cmass_veg = 0.0;
		double mean_standpft_nmass_veg = 0.0;
		double mean_standpft_clitter = 0.0;
		double mean_standpft_nlitter = 0.0;
		double mean_standpft_anpp = 0.0;
		double mean_standpft_agpp = 0.0;
		double mean_standpft_fpc = 0.0;
		double mean_standpft_aaet = 0.0;
		double mean_standpft_lai = 0.0;
		double mean_standpft_densindiv_total = 0.0;
		double mean_standpft_aiso = 0.0;
		double mean_standpft_amon = 0.0;
		double mean_standpft_amon_mt1 = 0.0;
		double mean_standpft_amon_mt2 = 0.0;
		double mean_standpft_nuptake = 0.0;
		double mean_standpft_vmaxnlim = 0.0;

		double cmass_gridcell = 0.0;
		double nmass_gridcell = 0.0;
		double cmass_leaf_gridcell = 0.0;
		double nmass_leaf_gridcell = 0.0;
		double cmass_veg_gridcell = 0.0;
		double nmass_veg_gridcell = 0.0;
		double clitter_gridcell = 0.0;
		double nlitter_gridcell = 0.0;
		double anpp_gridcell = 0.0;
		double agpp_gridcell = 0.0;
		double fpc_gridcell = 0.0;
		double aaet_gridcell = 0.0;
		double lai_gridcell = 0.0;
		double surfrunoff_gridcell = 0.0;
		double drainrunoff_gridcell = 0.0;
		double baserunoff_gridcell = 0.0;
		double runoff_gridcell = 0.0;
		double dens_gridcell = 0.0;
		double firert_gridcell = 0.0;
		double aiso_gridcell = 0.0;
		double amon_gridcell = 0.0;
		double amon_mt1_gridcell = 0.0;
		double amon_mt2_gridcell = 0.0;
		double nuptake_gridcell = 0.0;
		double vmaxnlim_gridcell = 0.0;

		double andep_gridcell = 0.0;
		double anfert_gridcell = 0.0;
		double anmin_gridcell = 0.0;
		double animm_gridcell = 0.0;
		double anfix_gridcell = 0.0;
		double n_min_leach_gridcell = 0.0;
		double n_org_leach_gridcell = 0.0;
		double c_org_leach_gridcell = 0.0;

		double standpft_cmass = 0.0;
		double standpft_nmass = 0.0;
		double standpft_cmass_leaf = 0.0;
		double standpft_nmass_leaf = 0.0;
		double standpft_cmass_veg = 0.0;
		double standpft_nmass_veg = 0.0;
		double standpft_clitter = 0.0;
		double standpft_nlitter = 0.0;
		double standpft_anpp = 0.0;
		double standpft_agpp = 0.0;
		double standpft_fpc = 0.0;
		double standpft_aaet = 0.0;
		double standpft_lai = 0.0;
		double standpft_densindiv_total = 0.0;
		double standpft_aiso = 0.0;
		double standpft_amon = 0.0;
		double standpft_amon_mt1 = 0.0;
		double standpft_amon_mt2 = 0.0;
		double standpft_nuptake = 0.0;
		double standpft_vmaxnlim = 0.0;

		// crop fpc based on individual LAI (normally fpc is fixed to 1 for crop individuals)
		double gridcell_urbanfpc = 0.0;
		double gridcell_cropfpc = 0.0;
		double gridcell_pasturefpc = 0.0;
		double gridcell_forestfpc = 0.0;
		double gridcell_grassfpc = 0.0;
		double gridcell_treefpc = 0.0;
		double gridcell_peatfpc = 0.0;
		double gridcell_barrenfpc = 0.0;

		// *** Loop through PFTs ***

		pftlist.firstobj();
		while (pftlist.isobj) {

			Pft& pft = pftlist.getobj();
			Gridcellpft& gridcellpft = gridcell.pft[pft.id];

			// Sum C biomass, NPP, LAI and BVOC fluxes across patches and PFTs
			mean_standpft_cmass = 0.0;
			mean_standpft_nmass = 0.0;
			mean_standpft_cmass_leaf = 0.0;
			mean_standpft_nmass_leaf = 0.0;
			mean_standpft_cmass_veg = 0.0;
			mean_standpft_nmass_veg = 0.0;
			mean_standpft_clitter = 0.0;
			mean_standpft_nlitter = 0.0;
			mean_standpft_anpp = 0.0;
			mean_standpft_agpp = 0.0;
			mean_standpft_fpc = 0.0;
			mean_standpft_aaet = 0.0;
			mean_standpft_lai = 0.0;
			mean_standpft_densindiv_total = 0.0;
			mean_standpft_aiso = 0.0;
			mean_standpft_amon = 0.0;
			mean_standpft_amon_mt1 = 0.0;
			mean_standpft_amon_mt2 = 0.0;
			mean_standpft_nuptake = 0.0;
			mean_standpft_vmaxnlim = 0.0;

			double heightindiv_total = 0.0;

			// Determine area fraction of stands where this pft is active:
			double active_fraction = 0.0;

			Gridcell::iterator gc_itr = gridcell.begin();

			while (gc_itr != gridcell.end()) {
				Stand& stand = *gc_itr;

				if (stand.pft[pft.id].active) {
					active_fraction += stand.get_gridcell_fraction();
				}

				++gc_itr;
			}

			// Loop through Stands
			gc_itr = gridcell.begin();

			while (gc_itr != gridcell.end()) {
				Stand& stand = *gc_itr;

				double to_gridcell_average = stand.get_gridcell_fraction() / (double)stand.npatch();

				Standpft& standpft = stand.pft[pft.id];
				if (standpft.active) {
					// Sum C biomass, NPP, LAI and BVOC fluxes across patches and PFTs
					standpft_cmass = 0.0;
					standpft_nmass = 0.0;
					standpft_cmass_leaf = 0.0;
					standpft_nmass_leaf = 0.0;
					standpft_cmass_veg = 0.0;
					standpft_nmass_veg = 0.0;
					standpft_clitter = 0.0;
					standpft_nlitter = 0.0;
					standpft_anpp = 0.0;
					standpft_agpp = 0.0;
					standpft_fpc = 0.0;
					standpft_aaet = 0.0;
					standpft_lai = 0.0;
					standpft_densindiv_total = 0.0;
					standpft_aiso = 0.0;
					standpft_amon = 0.0;
					standpft_amon_mt1 = 0.0;
					standpft_amon_mt2 = 0.0;
					standpft_nuptake = 0.0;
					standpft_vmaxnlim = 0.0;

					stand.firstobj();

					// Loop through Patches
					while (stand.isobj) {
						Patch& patch = stand.getobj();
						Patchpft& patchpft = patch.pft[pft.id];
						Vegetation& vegetation = patch.vegetation;

						double fpc_tree_patch = 0.0;
						double fpc_grass_patch = 0.0;

						standpft_anpp += patch.fluxes.get_annual_flux(Fluxes::NPP, pft.id);
						standpft_agpp += patch.fluxes.get_annual_flux(Fluxes::GPP, pft.id);
						standpft_aiso += patch.fluxes.get_annual_flux(Fluxes::ISO, pft.id);
						standpft_amon += patch.fluxes.get_annual_flux(Fluxes::MT1, pft.id);
						standpft_amon += patch.fluxes.get_annual_flux(Fluxes::MT2, pft.id);
						standpft_amon_mt1 += patch.fluxes.get_annual_flux(Fluxes::MT1, pft.id);
						standpft_amon_mt2 += patch.fluxes.get_annual_flux(Fluxes::MT2, pft.id);

						standpft_clitter += patchpft.litter_leaf + patchpft.litter_root + patchpft.litter_sap + patchpft.litter_heart + patchpft.litter_repr;
						standpft_nlitter += patchpft.nmass_litter_leaf + patchpft.nmass_litter_root + patchpft.nmass_litter_sap + patchpft.nmass_litter_heart;

						vegetation.firstobj();
						while (vegetation.isobj) {
							Individual& indiv = vegetation.getobj();

							if (indiv.id != -1 && indiv.alive) {

								if (indiv.pft.id == pft.id) {

									standpft_cmass_leaf += indiv.cmass_leaf;
									standpft_cmass += indiv.ccont();
									standpft_nmass += indiv.ncont();
									standpft_nmass_leaf += indiv.cmass_leaf / indiv.cton_leaf_aavr;
									standpft_nmass_veg += indiv.nmass_veg;
									standpft_fpc += indiv.fpc;
									standpft_aaet += indiv.aaet;
									standpft_lai += indiv.lai;
									if (pft.lifeform == TREE) {
										standpft_densindiv_total += indiv.densindiv;
										heightindiv_total += indiv.height * indiv.densindiv;
									}
									standpft_vmaxnlim += indiv.avmaxnlim * indiv.cmass_leaf;
									standpft_nuptake += indiv.anuptake;

									if (pft.landcover == URBAN) {
										gridcell_urbanfpc += indiv.fpc * to_gridcell_average;
									}

									if (pft.landcover == CROPLAND) {
										standpft_cmass_veg += indiv.cmass_leaf + indiv.cmass_root;
										if (indiv.cropindiv) {
											standpft_cmass_veg += indiv.cropindiv->cmass_ho + indiv.cropindiv->cmass_agpool + indiv.cropindiv->cmass_stem;
											standpft_nmass_leaf += indiv.cropindiv->ynmass_leaf + indiv.cropindiv->ynmass_dead_leaf;
											standpft_nmass_veg += indiv.cropindiv->ycmass_leaf + indiv.cropindiv->ynmass_dead_leaf + indiv.cropindiv->ynmass_root + indiv.cropindiv->ynmass_ho + indiv.cropindiv->ynmass_agpool;
										}

										if (!indiv.pft.isintercropgrass) {
											gridcell_cropfpc += max(0.0, 1.0 - exp(-.5 * min(500.0, indiv.lai))) * to_gridcell_average;
										}
									}
									else {
										standpft_cmass_veg += indiv.cmass_veg;
									}
									if (pft.landcover == PASTURE) {
										gridcell_pasturefpc += indiv.fpc * to_gridcell_average;
									}
									if (pft.landcover == FOREST) {
										gridcell_forestfpc += indiv.fpc * to_gridcell_average;
									}
									if (pft.landcover == NATURAL) {
										if (pft.lifeform == GRASS)
											fpc_grass_patch += indiv.fpc * to_gridcell_average;
										else
											fpc_tree_patch += indiv.fpc * to_gridcell_average;
									}
									if (pft.landcover == PEATLAND) {
										gridcell_peatfpc += indiv.fpc * to_gridcell_average;
									}
									if (pft.landcover == BARREN) {
										gridcell_barrenfpc += indiv.fpc * to_gridcell_average;
									}
								}
							} // alive?
							vegetation.nextobj();
						}

						// Tree FPC shouldn't be larger than total patch area
						if (fpc_tree_patch > to_gridcell_average)
							fpc_tree_patch = to_gridcell_average;

						// Tree and grass FPC shouldn't be larger than total patch area (trees shade grass)
						if (fpc_tree_patch + fpc_grass_patch > to_gridcell_average)
							fpc_grass_patch = to_gridcell_average - fpc_tree_patch;

						gridcell_treefpc += fpc_tree_patch;
						gridcell_grassfpc += fpc_grass_patch;

						stand.nextobj();
					} // end of patch loop

					standpft_cmass /= (double)stand.npatch();
					standpft_nmass /= (double)stand.npatch();
					standpft_cmass_leaf /= (double)stand.npatch();
					standpft_nmass_leaf /= (double)stand.npatch();
					standpft_cmass_veg /= (double)stand.npatch();
					standpft_nmass_veg /= (double)stand.npatch();
					standpft_clitter /= (double)stand.npatch();
					standpft_nlitter /= (double)stand.npatch();
					standpft_anpp /= (double)stand.npatch();
					standpft_agpp /= (double)stand.npatch();
					standpft_fpc /= (double)stand.npatch();
					standpft_aaet /= (double)stand.npatch();
					standpft_lai /= (double)stand.npatch();
					standpft_densindiv_total /= (double)stand.npatch();
					standpft_aiso /= (double)stand.npatch();
					standpft_amon /= (double)stand.npatch();
					standpft_amon_mt1 /= (double)stand.npatch();
					standpft_amon_mt2 /= (double)stand.npatch();
					standpft_nuptake /= (double)stand.npatch();
					standpft_vmaxnlim /= (double)stand.npatch();
					heightindiv_total /= (double)stand.npatch();

					if (!negligible(standpft_cmass_leaf))
						standpft_vmaxnlim /= standpft_cmass_leaf;

					//Update landcover totals

					// ecev3 - remove!!!
					double thisstandsLCfrac = stand.get_landcover_fraction();
					double thisstandsgridcellfraction = stand.get_gridcell_fraction();

					landcover_cmass[stand.landcover] += standpft_cmass*stand.get_landcover_fraction();
					landcover_nmass[stand.landcover] += standpft_nmass*stand.get_landcover_fraction();
					landcover_cmass_leaf[stand.landcover] += standpft_cmass_leaf*stand.get_landcover_fraction();
					landcover_nmass_leaf[stand.landcover] += standpft_nmass_leaf*stand.get_landcover_fraction();
					landcover_cmass_veg[stand.landcover] += standpft_cmass_veg*stand.get_landcover_fraction();
					landcover_nmass_veg[stand.landcover] += standpft_nmass_veg*stand.get_landcover_fraction();
					landcover_clitter[stand.landcover] += standpft_clitter*stand.get_landcover_fraction();
					landcover_nlitter[stand.landcover] += standpft_nlitter*stand.get_landcover_fraction();
					landcover_anpp[stand.landcover] += standpft_anpp*stand.get_landcover_fraction();
					landcover_agpp[stand.landcover] += standpft_agpp*stand.get_landcover_fraction();
					if (!pft.isintercropgrass) {
						landcover_fpc[stand.landcover] += standpft_fpc*stand.get_landcover_fraction();
						landcover_lai[stand.landcover] += standpft_lai*stand.get_landcover_fraction();
					}
					landcover_aaet[stand.landcover] += standpft_aaet*stand.get_landcover_fraction();
					landcover_densindiv_total[stand.landcover] += standpft_densindiv_total*stand.get_landcover_fraction();
					landcover_aiso[stand.landcover] += standpft_aiso*stand.get_landcover_fraction();
					landcover_amon[stand.landcover] += standpft_amon*stand.get_landcover_fraction();
					landcover_amon_mt1[stand.landcover] += standpft_amon_mt1*stand.get_landcover_fraction();
					landcover_amon_mt2[stand.landcover] += standpft_amon_mt2*stand.get_landcover_fraction();
					landcover_nuptake[stand.landcover] += standpft_nuptake*stand.get_landcover_fraction();
					landcover_vmaxnlim[stand.landcover] += standpft_vmaxnlim*standpft_cmass_leaf*stand.get_landcover_fraction();

					//Update pft means for active stands
					if (active_fraction) {
						mean_standpft_cmass += standpft_cmass * stand.get_gridcell_fraction() / active_fraction;
						mean_standpft_nmass += standpft_nmass * stand.get_gridcell_fraction() / active_fraction;
						mean_standpft_cmass_leaf += standpft_cmass_leaf * stand.get_gridcell_fraction() / active_fraction;
						mean_standpft_nmass_leaf += standpft_nmass_leaf * stand.get_gridcell_fraction() / active_fraction;
						mean_standpft_cmass_veg += standpft_cmass_veg * stand.get_gridcell_fraction() / active_fraction;
						mean_standpft_nmass_veg += standpft_nmass_veg * stand.get_gridcell_fraction() / active_fraction;
						mean_standpft_clitter += standpft_clitter * stand.get_gridcell_fraction() / active_fraction;
						mean_standpft_nlitter += standpft_nlitter * stand.get_gridcell_fraction() / active_fraction;
						mean_standpft_anpp += standpft_anpp * stand.get_gridcell_fraction() / active_fraction;
						mean_standpft_agpp += standpft_agpp * stand.get_gridcell_fraction() / active_fraction;
						mean_standpft_fpc += standpft_fpc * stand.get_gridcell_fraction() / active_fraction;
						mean_standpft_aaet += standpft_aaet * stand.get_gridcell_fraction() / active_fraction;
						mean_standpft_lai += standpft_lai * stand.get_gridcell_fraction() / active_fraction;
						mean_standpft_densindiv_total += standpft_densindiv_total * stand.get_gridcell_fraction() / active_fraction;
						mean_standpft_aiso += standpft_aiso * stand.get_gridcell_fraction() / active_fraction;
						mean_standpft_amon += standpft_amon * stand.get_gridcell_fraction() / active_fraction;
						mean_standpft_amon_mt1 += standpft_amon_mt1 * stand.get_gridcell_fraction() / active_fraction;
						mean_standpft_amon_mt2 += standpft_amon_mt2 * stand.get_gridcell_fraction() / active_fraction;
						mean_standpft_nuptake += standpft_nuptake * stand.get_gridcell_fraction() / active_fraction;
						mean_standpft_vmaxnlim += standpft_vmaxnlim * standpft_cmass_leaf * stand.get_gridcell_fraction() / active_fraction;
					}

					//Update stand totals
					stand.anpp += standpft_anpp;
					stand.cmass += standpft_cmass;

					// Update gridcell totals
					double fraction_of_gridcell = stand.get_gridcell_fraction();

					cmass_gridcell += standpft_cmass*fraction_of_gridcell;
					nmass_gridcell += standpft_nmass*fraction_of_gridcell;
					cmass_leaf_gridcell += standpft_cmass_leaf*fraction_of_gridcell;
					nmass_leaf_gridcell += standpft_nmass_leaf*fraction_of_gridcell;
					cmass_veg_gridcell += standpft_cmass_veg*fraction_of_gridcell;
					nmass_veg_gridcell += standpft_nmass_veg*fraction_of_gridcell;
					clitter_gridcell += standpft_clitter*fraction_of_gridcell;
					nlitter_gridcell += standpft_nlitter*fraction_of_gridcell;
					anpp_gridcell += standpft_anpp*fraction_of_gridcell;
					agpp_gridcell += standpft_agpp*fraction_of_gridcell;
					if (!pft.isintercropgrass) {
						fpc_gridcell += standpft_fpc*fraction_of_gridcell;
						lai_gridcell += standpft_lai*fraction_of_gridcell;
					}
					aaet_gridcell += standpft_aaet*fraction_of_gridcell;
					dens_gridcell += standpft_densindiv_total*fraction_of_gridcell;
					aiso_gridcell += standpft_aiso*fraction_of_gridcell;
					amon_gridcell += standpft_amon*fraction_of_gridcell;
					amon_mt1_gridcell += standpft_amon_mt1*fraction_of_gridcell;
					amon_mt2_gridcell += standpft_amon_mt2*fraction_of_gridcell;
					nuptake_gridcell += standpft_nuptake*fraction_of_gridcell;
					vmaxnlim_gridcell += standpft_vmaxnlim*standpft_cmass_leaf*fraction_of_gridcell;

					// Graphical output every PLOT_INTERVAL years
					// (Windows shell only - "plot" statements have no effect otherwise)
					if (!(date.year%PLOT_INTERVAL)) {
						plot("C mass [kgC/m2]", pft.name, date.year, mean_standpft_cmass);
						plot("NPP [kgC/m2/yr]", pft.name, date.year, mean_standpft_anpp);
						plot("LAI [m2/m2]", pft.name, date.year, mean_standpft_lai);
						if (pft.lifeform == TREE) plot("Dens [indiv/ha]", pft.name, date.year, mean_standpft_densindiv_total*m2toha);
						if (mean_standpft_cmass_leaf > 0.0 && mean_standpft_nmass_leaf > 0.0 && ifnlim) {
							plot("Vmax N lim", pft.name, date.year, mean_standpft_vmaxnlim / mean_standpft_cmass_leaf);
							plot("leaf C:N [kgC/kg N]", pft.name, date.year, mean_standpft_cmass_leaf / mean_standpft_nmass_leaf);
						}
					}

				}//if(active)
				++gc_itr;
			}//End of loop through stands

			// Print PFT sums to files

			double standpft_mean_cton_leaf = limited_cton(mean_standpft_cmass_leaf, mean_standpft_nmass_leaf);

			if (!negligible(mean_standpft_cmass_leaf))
				mean_standpft_vmaxnlim /= mean_standpft_cmass_leaf;

			outlimit(out, out_cmass, mean_standpft_cmass);
			outlimit(out, out_anpp, mean_standpft_anpp);
			outlimit(out, out_agpp, mean_standpft_agpp);
			outlimit(out, out_fpc, mean_standpft_fpc);
			outlimit(out, out_aaet, mean_standpft_aaet);
			outlimit(out, out_clitter, mean_standpft_clitter);
			outlimit(out, out_dens, mean_standpft_densindiv_total);
			outlimit(out, out_lai, mean_standpft_lai);
			outlimit(out, out_aiso, mean_standpft_aiso);
			outlimit(out, out_amon, mean_standpft_amon);
			outlimit(out, out_amon_mt1, mean_standpft_amon_mt1);
			outlimit(out, out_amon_mt2, mean_standpft_amon_mt2);
			outlimit(out, out_nmass, (mean_standpft_nmass + mean_standpft_nlitter) * m2toha);
			outlimit(out, out_cton_leaf, standpft_mean_cton_leaf);
			outlimit(out, out_vmaxnlim, mean_standpft_vmaxnlim);
			outlimit(out, out_nuptake, mean_standpft_nuptake * m2toha);
			outlimit(out, out_nlitter, mean_standpft_nlitter * m2toha);

			// print species heights
			double height = 0.0;
			if (mean_standpft_densindiv_total > 0.0)
				height = heightindiv_total / mean_standpft_densindiv_total;

			outlimit(out, out_speciesheights, height);

			pftlist.nextobj();

		} // *** End of PFT loop ***

		flux_veg = flux_repr = flux_soil = flux_fire = flux_est = flux_debexcc = flux_seed = flux_charvest = 0.0;

		// guess2008 - carbon pools
		c_fast = c_slow = c_harv_slow = 0.0;

		surfsoillitterc = surfsoillittern = cwdc = cwdn = centuryc = centuryn = n_harv_slow = availn = 0.0;
		andep_gridcell = anfert_gridcell = anmin_gridcell = animm_gridcell = anfix_gridcell = 0.0;
		n_org_leach_gridcell = n_min_leach_gridcell = c_org_leach_gridcell = 0.0;
		flux_nh3 = flux_nox = flux_n2o = flux_n2 = flux_nsoil = flux_ntot = flux_nharvest = flux_nseed = 0.0;

		double c_org_leach_lc[NLANDCOVERTYPES];

		for (int i = 0; i < NLANDCOVERTYPES; i++) {
			c_org_leach_lc[i] = 0.0;
		}

		// Sum C fluxes, dead C pools and runoff across patches

		Gridcell::iterator gc_itr = gridcell.begin();

		// Loop through Stands
		while (gc_itr != gridcell.end()) {
			Stand& stand = *gc_itr;
			stand.firstobj();

			//Loop through Patches
			while (stand.isobj) {
				Patch& patch = stand.getobj();

				double to_gridcell_average = stand.get_gridcell_fraction() / (double)stand.npatch();
				// Sum C fluxes, dead C pools and runoff across patches

				flux_veg += -patch.fluxes.get_annual_flux(Fluxes::NPP)*to_gridcell_average;
				flux_repr += -patch.fluxes.get_annual_flux(Fluxes::REPRC)*to_gridcell_average;
				flux_soil += patch.fluxes.get_annual_flux(Fluxes::SOILC)*to_gridcell_average;
				flux_fire += patch.fluxes.get_annual_flux(Fluxes::FIREC)*to_gridcell_average;
				flux_est += patch.fluxes.get_annual_flux(Fluxes::ESTC)*to_gridcell_average;
				flux_debexcc += patch.fluxes.get_annual_flux(Fluxes::DEBEXCC)*to_gridcell_average;
				flux_seed += patch.fluxes.get_annual_flux(Fluxes::SEEDC)*to_gridcell_average;
				flux_charvest += patch.fluxes.get_annual_flux(Fluxes::HARVESTC)*to_gridcell_average;

				flux_nseed += patch.fluxes.get_annual_flux(Fluxes::SEEDN)*to_gridcell_average;
				flux_nharvest += patch.fluxes.get_annual_flux(Fluxes::HARVESTN)*to_gridcell_average;
				flux_nh3 += patch.fluxes.get_annual_flux(Fluxes::NH3_FIRE)*to_gridcell_average;
				flux_nox += patch.fluxes.get_annual_flux(Fluxes::NOx_FIRE)*to_gridcell_average;
				flux_n2o += patch.fluxes.get_annual_flux(Fluxes::N2O_FIRE)*to_gridcell_average;
				flux_n2 += patch.fluxes.get_annual_flux(Fluxes::N2_FIRE)*to_gridcell_average;
				flux_nsoil += patch.fluxes.get_annual_flux(Fluxes::N_SOIL)*to_gridcell_average;
				flux_ntot += (patch.fluxes.get_annual_flux(Fluxes::NH3_FIRE) +
					patch.fluxes.get_annual_flux(Fluxes::NOx_FIRE) +
					patch.fluxes.get_annual_flux(Fluxes::N2O_FIRE) +
					patch.fluxes.get_annual_flux(Fluxes::N2_FIRE) +
					patch.fluxes.get_annual_flux(Fluxes::N_SOIL)) * to_gridcell_average;

				c_fast += patch.soil.cpool_fast*to_gridcell_average;
				c_slow += patch.soil.cpool_slow*to_gridcell_average;

				//Sum slow pools of harvested products
				if (run_landcover && ifslowharvestpool) {
					for (int q = 0; q < npft; q++) {
						Patchpft& patchpft = patch.pft[q];
						c_harv_slow += patchpft.harvested_products_slow*to_gridcell_average;
						n_harv_slow += patchpft.harvested_products_slow_nmass*to_gridcell_average;
					}
				}

				surfrunoff_gridcell += patch.asurfrunoff*to_gridcell_average;
				drainrunoff_gridcell += patch.adrainrunoff*to_gridcell_average;
				baserunoff_gridcell += patch.abaserunoff*to_gridcell_average;
				runoff_gridcell += patch.arunoff*to_gridcell_average;

				// Fire return time
				if (!patch.has_fires() || patch.fireprob < 0.001)
					firert_gridcell += 1000.0 * to_gridcell_average; // Set a limit of 1000 years
				else
					firert_gridcell += (1.0 / patch.fireprob) * to_gridcell_average;

				andep_gridcell += stand.get_climate().andep * to_gridcell_average;
				anfert_gridcell += patch.anfert * to_gridcell_average;
				anmin_gridcell += patch.soil.anmin * to_gridcell_average;
				animm_gridcell += patch.soil.animmob * to_gridcell_average;
				anfix_gridcell += patch.soil.anfix * to_gridcell_average;
				n_min_leach_gridcell += patch.soil.aminleach * to_gridcell_average;
				n_org_leach_gridcell += patch.soil.aorgNleach * to_gridcell_average;
				c_org_leach_gridcell += patch.soil.aorgCleach * to_gridcell_average;
				availn += (patch.soil.nmass_avail + patch.soil.snowpack_nmass) * to_gridcell_average;

				c_org_leach_lc[stand.landcover] += patch.soil.aorgCleach * to_gridcell_average;

				for (int r = 0; r < NSOMPOOL - 1; r++) {

					if (r == SURFMETA || r == SURFSTRUCT || r == SOILMETA || r == SOILSTRUCT) {
						surfsoillitterc += patch.soil.sompool[r].cmass * to_gridcell_average;
						surfsoillittern += patch.soil.sompool[r].nmass * to_gridcell_average;
					}
					else if (r == SURFFWD || r == SURFCWD) {
						cwdc += patch.soil.sompool[r].cmass * to_gridcell_average;
						cwdn += patch.soil.sompool[r].nmass * to_gridcell_average;
					}
					else {
						centuryc += patch.soil.sompool[r].cmass * to_gridcell_average;
						centuryn += patch.soil.sompool[r].nmass * to_gridcell_average;
					}
				}

				airri += patch.irrigation_y*to_gridcell_average;
				snow += patch.soil.snowpack*to_gridcell_average;
				for (int lyr = 0; lyr < NSOILLAYER; lyr++) {
					mois[lyr] += patch.soil.wcont[lyr] * patch.soil.soiltype.awc[lyr] * to_gridcell_average;
				}

				// Monthly output variables

				for (m = 0; m < 12; m++) {
					maet[m] += patch.maet[m] * to_gridcell_average;
					mpet[m] += patch.mpet[m] * to_gridcell_average;
					mevap[m] += patch.mevap[m] * to_gridcell_average;
					mintercep[m] += patch.mintercep[m] * to_gridcell_average;
					mrunoff[m] += patch.mrunoff[m] * to_gridcell_average;
					mrh[m] += patch.fluxes.get_monthly_flux(Fluxes::SOILC, m)*to_gridcell_average;
					mwcont_upper[m] += patch.soil.mwcont[m][0] * to_gridcell_average;
					mwcont_lower[m] += patch.soil.mwcont[m][1] * to_gridcell_average;

					mgpp[m] += patch.fluxes.get_monthly_flux(Fluxes::GPP, m)*to_gridcell_average;
					mra[m] += patch.fluxes.get_monthly_flux(Fluxes::RA, m)*to_gridcell_average;

					miso[m] += patch.fluxes.get_monthly_flux(Fluxes::ISO, m)*to_gridcell_average;
					mmon[m] += patch.fluxes.get_monthly_flux(Fluxes::MT1, m)*to_gridcell_average;
					mmon[m] += patch.fluxes.get_monthly_flux(Fluxes::MT2, m)*to_gridcell_average;
					mmon_mt1[m] += patch.fluxes.get_monthly_flux(Fluxes::MT1, m)*to_gridcell_average;
					mmon_mt2[m] += patch.fluxes.get_monthly_flux(Fluxes::MT2, m)*to_gridcell_average;
				}


				// Calculate monthly NPP and LAI

				Vegetation& vegetation = patch.vegetation;

				vegetation.firstobj();
				while (vegetation.isobj) {
					Individual& indiv = vegetation.getobj();

					// guess2008 - alive check added
					if (indiv.id != -1 && indiv.alive) {

						for (m = 0; m < 12; m++) {
							mlai[m] += indiv.mlai[m] * to_gridcell_average;
						}

					} // alive?

					vegetation.nextobj();

				} // while/vegetation loop
				stand.nextobj();
			} // patch loop
			++gc_itr;
		} // stand loop

		aprec = gridcell.climate.aprec;

		// In contrast to annual NEE, monthly NEE does not include fire
		// or establishment fluxes
		for (m = 0; m < 12; m++) {
			mnpp[m] = mgpp[m] - mra[m];
			mnee[m] = mrh[m] - mnpp[m];
		}

		// Print gridcell totals to files

		// Determine total leaf C:N ratio
		double cton_leaf_gridcell = limited_cton(cmass_leaf_gridcell, nmass_leaf_gridcell);

		// Determine total vmax nitrogen limitation
		if (cmass_leaf_gridcell > 0.0) {
			vmaxnlim_gridcell /= cmass_leaf_gridcell;
		}

		outlimit(out, out_cmass, cmass_gridcell);
		outlimit(out, out_anpp, anpp_gridcell);
		outlimit(out, out_agpp, agpp_gridcell);
		outlimit(out, out_fpc, fpc_gridcell);
		outlimit(out, out_aaet, aaet_gridcell);
		outlimit(out, out_dens, dens_gridcell);
		outlimit(out, out_lai, lai_gridcell);
		outlimit(out, out_clitter, clitter_gridcell);
		outlimit(out, out_firert, firert_gridcell);
		outlimit(out, out_runoff, surfrunoff_gridcell);
		outlimit(out, out_runoff, drainrunoff_gridcell);
		outlimit(out, out_runoff, baserunoff_gridcell);
		outlimit(out, out_runoff, runoff_gridcell);
		outlimit(out, out_aiso, aiso_gridcell);
		outlimit(out, out_amon, amon_gridcell);
		outlimit(out, out_amon_mt1, amon_mt1_gridcell);
		outlimit(out, out_amon_mt2, amon_mt2_gridcell);

		outlimit(out, out_nmass, (nmass_gridcell + nlitter_gridcell) * m2toha);
		outlimit(out, out_cton_leaf, cton_leaf_gridcell);
		outlimit(out, out_vmaxnlim, vmaxnlim_gridcell);
		outlimit(out, out_nuptake, nuptake_gridcell * m2toha);
		outlimit(out, out_nlitter, nlitter_gridcell * m2toha);

		outlimit(out, out_nsources, andep_gridcell * m2toha);
		outlimit(out, out_nsources, anfix_gridcell * m2toha);
		outlimit(out, out_nsources, anfert_gridcell * m2toha);
		outlimit(out, out_nsources, (andep_gridcell + anfix_gridcell + anfert_gridcell) * m2toha);
		outlimit(out, out_nsources, anmin_gridcell * m2toha);
		outlimit(out, out_nsources, animm_gridcell * m2toha);
		outlimit(out, out_nsources, (anmin_gridcell - animm_gridcell) * m2toha);
		outlimit(out, out_nsources, (anmin_gridcell - animm_gridcell + andep_gridcell +
			anfix_gridcell + anfert_gridcell) * m2toha);


		// Print landcover totals to files
		if (run_landcover) {
			for (int i = 0; i < NLANDCOVERTYPES; i++) {
				if (run[i]) {

					outlimit(out, out_cmass, landcover_cmass[i]);
					outlimit(out, out_anpp, landcover_anpp[i]);
					outlimit(out, out_agpp, landcover_agpp[i]);
					outlimit(out, out_fpc, landcover_fpc[i]);
					outlimit(out, out_aaet, landcover_aaet[i]);
					outlimit(out, out_dens, landcover_densindiv_total[i]);
					outlimit(out, out_lai, landcover_lai[i]);
					outlimit(out, out_clitter, landcover_clitter[i]);
					outlimit(out, out_aiso, landcover_aiso[i]);
					outlimit(out, out_amon, landcover_amon[i]);
					outlimit(out, out_amon_mt1, landcover_amon_mt1[i]);
					outlimit(out, out_amon_mt2, landcover_amon_mt2[i]);


					// ecev3 - store landcover for LAI and FPC in the gridcell class
					// NB! This does not include the intercropgrass
					gridcell.landcover_fpc[i] = landcover_fpc[i];
					gridcell.landcover_lai[i] = landcover_lai[i];


					double landcover_cton_leaf = limited_cton(landcover_cmass_leaf[i],
						landcover_nmass_leaf[i]);

					if (landcover_cmass_leaf[i] > 0.0) {
						landcover_vmaxnlim[i] /= landcover_cmass_leaf[i];
					}

					outlimit(out, out_nmass, (landcover_nmass[i] + landcover_nlitter[i]) * m2toha);
					outlimit(out, out_cton_leaf, landcover_cton_leaf);
					outlimit(out, out_vmaxnlim, landcover_vmaxnlim[i]);
					outlimit(out, out_nuptake, landcover_nuptake[i] * m2toha);
					outlimit(out, out_nlitter, landcover_nlitter[i] * m2toha);
				}
			}
		}
		else {
			// ecev3 - store landcover for LAI and FPC in the gridcell class, NATURAL only
			gridcell.landcover_fpc[NATURAL] = landcover_fpc[NATURAL];
			gridcell.landcover_lai[NATURAL] = landcover_lai[NATURAL];
		}

		// Print monthly output variables
		for (m = 0; m < 12; m++) {
			outlimit(out, out_mnpp, mnpp[m]);
			outlimit(out, out_mlai, mlai[m]);
			outlimit(out, out_mgpp, mgpp[m]);
			outlimit(out, out_mra, mra[m]);
			outlimit(out, out_maet, maet[m]);
			outlimit(out, out_mpet, mpet[m]);
			outlimit(out, out_mevap, mevap[m]);
			outlimit(out, out_mrunoff, mrunoff[m]);
			outlimit(out, out_mintercep, mintercep[m]);
			outlimit(out, out_mrh, mrh[m]);
			outlimit(out, out_mnee, mnee[m]);
			outlimit(out, out_mwcont_upper, mwcont_upper[m]);
			outlimit(out, out_mwcont_lower, mwcont_lower[m]);
			outlimit(out, out_miso, miso[m]);
			outlimit(out, out_mmon, mmon[m]);
			outlimit(out, out_mmon_mt1, mmon_mt1[m]);
			outlimit(out, out_mmon_mt2, mmon_mt2[m]);

			aaet += maet[m];
			apet += mpet[m];
			aevap += mevap[m];
			arunoff += mrunoff[m];
			aintercep += mintercep[m];
		}

		// ecev3 - add gridcell vegetation output as sent to IFS

		// Rescale if FPC > Land cover fraction
		double natural_frac = gridcell.landcover.frac[NATURAL];
		double cropland_frac = gridcell.landcover.frac[CROPLAND];
		double pasture_frac = gridcell.landcover.frac[PASTURE];
		double urban_frac = gridcell.landcover.frac[URBAN];
		double peatland_frac = gridcell.landcover.frac[PEATLAND];

		// If Natural tree bigger than cover fracton -> tree cover all fraction, grass zero
		if (gridcell_treefpc > natural_frac) {
			gridcell_treefpc = natural_frac;
			gridcell_grassfpc = 0.0;
		}

		double fpc_natural_daily = gridcell_grassfpc + gridcell_treefpc;
		if (fpc_natural_daily > natural_frac) {
			gridcell_grassfpc = natural_frac - gridcell_treefpc; // Trees covers low vegetation
		}

		// Pasture
		if (gridcell_pasturefpc > pasture_frac) {
			gridcell_pasturefpc = pasture_frac;
		}

		// Urban
		if (gridcell_urbanfpc > urban_frac) {
			gridcell_urbanfpc = urban_frac;
		}

		// Peatland
		if (gridcell_peatfpc > peatland_frac) {
			gridcell_peatfpc = peatland_frac;
		}

		// Cropland
		if (gridcell_cropfpc > cropland_frac) {
			gridcell_cropfpc = cropland_frac;
		}

		outlimit(out, out_fpc, gridcell.IFStypehigh);
		outlimit(out, out_fpc, gridcell_forestfpc + gridcell_treefpc);
		outlimit(out, out_fpc, gridcell.IFStypelow);
		outlimit(out, out_fpc, gridcell_urbanfpc + gridcell_cropfpc + gridcell_pasturefpc + gridcell_grassfpc + gridcell_peatfpc);
		outlimit(out, out_fpc, gridcell.climate.agdd5_5.mean());
		outlimit(out, out_fpc, gridcell.awcont_5.mean());
		outlimit(out, out_fpc, gridcell_urbanfpc);
		outlimit(out, out_fpc, gridcell_cropfpc);
		outlimit(out, out_fpc, gridcell_pasturefpc);
		outlimit(out, out_fpc, gridcell_forestfpc);
		outlimit(out, out_fpc, gridcell_grassfpc);
		outlimit(out, out_fpc, gridcell_treefpc);
		outlimit(out, out_fpc, gridcell_peatfpc);
		outlimit(out, out_fpc, gridcell_barrenfpc);

		// Graphical output every PLOT_INTERVAL years
		// (Windows shell only - no effect otherwise)

		if (!(date.year%PLOT_INTERVAL)) {
			if (gridcell.nbr_stands() > 0)	//Fixed bug here if no stands were present.
			{
				Stand& stand = gridcell[0];
				plot("C flux [kgC/m2/yr]", "veg", date.year, flux_veg);
				plot("C flux [kgC/m2/yr]", "repr", date.year, flux_repr);
				plot("C flux [kgC/m2/yr]", "soil", date.year, flux_soil);
				plot("C flux [kgC/m2/yr]", "fire", date.year, flux_fire);
				plot("C flux [kgC/m2/yr]", "est", date.year, flux_est);
				plot("C flux [kgC/m2/yr]", "NEE", date.year, flux_veg + flux_repr + flux_soil + flux_fire + flux_est - flux_debexcc);

				if (!ifcentury) {
					plot("Soil C [kgC/m2]", "slow", date.year, stand[0].soil.cpool_slow);
					plot("Soil C [kgC/m2]", "fast", date.year, stand[0].soil.cpool_fast);
				}
				else {
					plot("N flux [kgN/ha/yr]", "fix", date.year, -anfix_gridcell * m2toha);
					plot("N flux [kgN/ha/yr]", "dep", date.year, -andep_gridcell * m2toha);
					plot("N flux [kgN/ha/yr]", "fert", date.year, -anfert_gridcell * m2toha);
					plot("N flux [kgN/ha/yr]", "leach", date.year, (n_min_leach_gridcell + n_org_leach_gridcell) * m2toha);
					plot("N flux [kgN/ha/yr]", "emissions", date.year, flux_ntot * m2toha);
					plot("N flux [kgN/ha/yr]", "NEE", date.year, (flux_ntot + n_min_leach_gridcell + n_org_leach_gridcell -
						(anfix_gridcell + andep_gridcell + anfert_gridcell)) * m2toha);

					plot("N mineralization [kgN/ha/yr]", "N", date.year, (anmin_gridcell - animm_gridcell) * m2toha);

					plot("Soil C [kgC/m2]", "fine litter", date.year, surfsoillitterc);
					plot("Soil C [kgC/m2]", "coarse litter", date.year, cwdc);
					plot("Soil C [kgC/m2]", "soil", date.year, centuryc);
					plot("Soil C [kgC/m2]", "total", date.year, surfsoillitterc + cwdc + centuryc);

					plot("Soil N [kgN/m2]", "fine litter", date.year, surfsoillittern);
					plot("Soil N [kgN/m2]", "coarse litter", date.year, cwdn);
					plot("Soil N [kgN/m2]", "soil", date.year, centuryn);
					plot("Soil N [kgN/m2]", "total", date.year, surfsoillittern + cwdn + centuryn);
				}

				plot("H2O flux [mm/yr]", "transp", date.year, aaet);
				plot("H2O flux [mm/yr]", "intercep", date.year, aintercep);
				plot("H2O flux [mm/yr]", "evap", date.year, aevap);
				plot("H2O flux [mm/yr]", "runoff", date.year, arunoff);
				plot("H2O flux [mm/yr]", "PET", date.year, apet);
			}
		}

		// Write fluxes to file

		Landcover& lc = gridcell.landcover;

		outlimit(out, out_cflux, flux_veg);
		outlimit(out, out_cflux, -flux_repr);
		outlimit(out, out_cflux, flux_soil + c_org_leach_gridcell);
		outlimit(out, out_cflux, flux_fire);
		outlimit(out, out_cflux, flux_est - flux_debexcc);
		if (run_landcover) {
			outlimit(out, out_cflux, flux_seed);
			outlimit(out, out_cflux, flux_charvest);
			outlimit(out, out_cflux, lc.acflux_landuse_change);
			outlimit(out, out_cflux, lc.acflux_harvest_slow);
		}
		outlimit(out, out_cflux, flux_veg - flux_repr + flux_soil + flux_fire + flux_est - flux_debexcc + c_org_leach_gridcell +
			flux_seed + flux_charvest + lc.acflux_landuse_change + lc.acflux_harvest_slow);
		outlimit(out,out_doc, (c_org_leach_gridcell) * m2toha);

		if (run_landcover) {
			for(int i=0;i<NLANDCOVERTYPES;i++) {
				if(run[i]) {
					outlimit(out,out_doc, c_org_leach_lc[i] * m2toha);
				}
			}
		}

		outlimit(out,out_nflux, -andep_gridcell * m2toha);
		outlimit(out,out_nflux, -anfix_gridcell * m2toha);
		outlimit(out,out_nflux, -anfert_gridcell * m2toha);
		outlimit(out,out_nflux, flux_ntot * m2toha);
		outlimit(out,out_nflux, (n_min_leach_gridcell + n_org_leach_gridcell) * m2toha);
		if (run_landcover) {
				outlimit(out,out_nflux, flux_nseed * m2toha);
				outlimit(out,out_nflux, flux_nharvest * m2toha);
				outlimit(out,out_nflux, lc.anflux_landuse_change * m2toha);
				outlimit(out,out_nflux, lc.anflux_harvest_slow * m2toha);
		}
		outlimit(out,out_nflux, (flux_nharvest + lc.anflux_landuse_change +
					lc.anflux_harvest_slow + flux_nseed + flux_ntot +
					n_min_leach_gridcell + n_org_leach_gridcell -
					(andep_gridcell + anfix_gridcell + anfert_gridcell)) * m2toha);

		// CPOOL Write cpool to file

		outlimit(out,out_cpool, cmass_gridcell);
		if (!ifcentury) {
			outlimit(out,out_cpool, clitter_gridcell);
			outlimit(out,out_cpool, c_fast);
			outlimit(out,out_cpool, c_slow);
		}
		else {
			outlimit(out,out_cpool, clitter_gridcell + surfsoillitterc + cwdc);
			outlimit(out,out_cpool, centuryc);
		}

		if (run_landcover && ifslowharvestpool) {
			outlimit(out, out_cpool, c_harv_slow);
		}

		// Calculate total cpool, starting with cmass and litter...
		double cpool_total = cmass_gridcell + clitter_gridcell;

		// Add SOM pools
		if (!ifcentury) {
			cpool_total += c_fast + c_slow;
		}
		else {
			cpool_total += centuryc + surfsoillitterc + cwdc;
		}

		// Add slow harvest pool if needed
		if (run_landcover && ifslowharvestpool) {
			cpool_total += c_harv_slow;
		}

		outlimit(out, out_cpool, cpool_total);

		// NPOOL Write npool to file
	
		if (ifcentury) {
			outlimit(out,out_npool, nmass_gridcell + nlitter_gridcell);
			outlimit(out,out_npool, surfsoillittern + cwdn);
			outlimit(out,out_npool, centuryn + availn);

			if (run_landcover && ifslowharvestpool) {
				outlimit(out, out_npool, n_harv_slow);
				outlimit(out, out_npool, (nmass_gridcell + nlitter_gridcell + surfsoillittern + cwdn + centuryn + availn + n_harv_slow));
			}
			else {
				outlimit(out, out_npool, (nmass_gridcell + nlitter_gridcell + surfsoillittern + cwdn + centuryn + availn));
			}
		}

		outlimit(out,out_ngases, flux_nh3   * m2toha);
		outlimit(out,out_ngases, flux_nox   * m2toha);
		outlimit(out,out_ngases, flux_n2o   * m2toha);
		outlimit(out,out_ngases, flux_n2    * m2toha);
		outlimit(out,out_ngases, flux_nsoil * m2toha);
		outlimit(out,out_ngases, flux_ntot  * m2toha);

		outlimit(out,out_wflux, -aprec);
		outlimit(out,out_wflux, -airri);
		outlimit(out,out_wflux, apet);
		outlimit(out,out_wflux, aaet);
		outlimit(out,out_wflux, aintercep);
		outlimit(out,out_wflux, aevap);
		outlimit(out,out_wflux, surfrunoff_gridcell);
		outlimit(out,out_wflux, drainrunoff_gridcell);
		outlimit(out,out_wflux, baserunoff_gridcell);
		outlimit(out,out_wflux, aaet + aintercep + aevap + surfrunoff_gridcell + drainrunoff_gridcell + baserunoff_gridcell - (aprec + airri));

		outlimit(out,out_wpool, snow);
		for (int lyr = 0; lyr < NSOILLAYER; lyr++) {
			outlimit(out, out_wpool, mois[lyr]);
		}

		// Output of tree stand age structure, monthly soil water and 3D vegetation view
		// (Windows shell only - no effect otherwise)

		if (vegmode == COHORT || vegmode == INDIVIDUAL) {

			if (!(date.year%PLOT_UPDATE_INTERVAL)) {

				double* densindiv = NULL;
				int nageclass;
				get_stand_age_structure(gridcell, densindiv, nageclass, false);

				if (nageclass) {

					densindiv = new double[npft*nageclass];
					if (densindiv) {

						resetwindow("Age structure [indiv/ha]");
				
						get_stand_age_structure(gridcell, densindiv, nageclass, true);

						pftlist.firstobj();
						while (pftlist.isobj) {
							Pft& pft = pftlist.getobj();

							if (pft.lifeform == TREE) {

								for (c = 0; c < nageclass; c++)
									plot("Age structure [indiv/ha]", pft.name,
										c * estinterval + estinterval*0.5,
										densindiv[pft.id*nageclass + c] * 1e4); // includes conversion from /m2 --> /ha
							}

							pftlist.nextobj();
						}

						delete[] densindiv;
					}
				}
			}
		}

		if (!(date.year % PLOT_UPDATE_INTERVAL)) {

			resetwindow("Soil water [%AWC]");

			for (m = 0; m < 12; m++) {
				plot("Soil water [%AWC]", "upper", m, mwcont_upper[m]);
				plot("Soil water [%AWC]", "lower", m, mwcont_lower[m]);
			}
		}

		if (vegmode == COHORT) {
			if (!(date.year%VEG3D_UPDATE_INTERVAL)) {
				if (date.year == 0) open3d();
					output_vegetation(gridcell, pftlist);
			}
		}
		//#endif

	}

}

/// Output of simulation results at the end of each day
/** This function does not have to provide any information to the framework.
  */
void CommonOutput::outdaily(Gridcell& gridcell) {
}

} // namespace