FI_FeedingGround Class Reference

FI_FeedingGround class
. More...

#include <FI_FeedingGround.h>

Inheritance diagram for FI_FeedingGround:

Public Member Functions
virtual bool	Do (Farm *a_farm, LE *a_field, FarmEvent *a_ev)
	The one and only method for a crop management plan. All farm actions go through here. More...
	FI_FeedingGround (TTypesOfVegetation a_tov, TTypesOfCrops a_toc, Landscape *a_L)
void	SetUpFarmCategoryInformation ()
virtual bool	Do (Farm *a_farm, LE *a_field, FarmEvent *a_ev)
	FI_FeedingGround (TTypesOfVegetation a_tov, TTypesOfCrops a_toc, Landscape *a_L)
virtual bool	Do (Farm *a_farm, LE *a_field, FarmEvent *a_ev)
	FI_FeedingGround (TTypesOfVegetation a_tov, TTypesOfCrops a_toc, Landscape *a_L)
Public Member Functions inherited from Crop
virtual	~Crop ()
	Crop (TTypesOfVegetation a_tov, TTypesOfCrops a_toc, Landscape *a_L)
int	GetFirstDate (void)
void	ChooseNextCrop (int a_no_dates)
	Chooses the next crop to grow in a field. More...
int	GetCropClassification ()
void	SetCropClassification (int a_classification)
void	GetCropType (TTypesOfCrops a_toc)
TTypesOfCrops	GetCropType ()
FarmManagementCategory	LookUpManagementCategory (int a_todo)
bool	GetForceSpringOK ()

Additional Inherited Members
Public Attributes inherited from Crop
TTypesOfVegetation	m_tov
Protected Member Functions inherited from Crop
void	SimpleEvent (long a_date, int a_todo, bool a_lock)
	Adds an event to this crop management. More...
void	SimpleEvent_ (long a_date, int a_todo, bool a_lock, Farm *a_farm, LE *a_field)
	Adds an event to this crop management without relying on member variables. More...
bool	StartUpCrop (int a_spring, std::vector< std::vector< int >> a_flexdates, int a_todo)
	Holds the translation between the farm operation enum for each cropand the farm management category associated with it More...
bool	AphidDamage (LE *a_field)
	Compares aphid numbers per m2 with a threshold to return true if threshold is exceeded. More...
Protected Attributes inherited from Crop
Farm *	m_farm
LE *	m_field
FarmEvent *	m_ev
int	m_first_date
int	m_count
int	m_last_date
int	m_ddegstoharvest
int	m_base_elements_no
Landscape *	m_OurLandscape
bool	m_forcespringpossible = false
	Used to signal that the crop can be forced to start in spring. More...
TTypesOfCrops	m_toc
	The Crop type in terms of the TTypesOfCrops list (smaller list than tov, no country designation) More...
int	m_CropClassification
	Contains information on whether this is a winter crop, spring crop, or catch crop that straddles the year boundary (0,1,2) More...
vector< FarmManagementCategory >	m_ManagementCategories
	Holds the translation between the farm operation enum for each crop and the farm management category associated with it. More...
Static Protected Attributes inherited from Crop
static int	m_date_modifier = 0
	Holds a value that shifts test pesticide use by this many days in crops modified to use it. More...

Detailed Description

FI_FeedingGround class
.

See FI_FeedingGround.h::FI_FeedingGroundToDo for a complete list of all possible events triggered codes by the FeedingGround management plan. When triggered these events are handled by Farm and are available as information for other objects such as animal and bird models.

Constructor & Destructor Documentation

FI_FeedingGround() [1/3]

FI_FeedingGround::FI_FeedingGround ( TTypesOfVegetation  a_tov, TTypesOfCrops  a_toc, Landscape *  a_L  )

inline

                                                                                    : Crop(a_tov, a_toc, a_L)
    {
        // When we start it off, the first possible date for a farm operation 
        // This information is used by other crops when they decide how much post processing of 
        // the management is allowed after harvest before the next crop starts.
        m_first_date = g_date->DayInYear(20, 4);
        SetUpFarmCategoryInformation();
    }

References Calendar::DayInYear(), g_date, Crop::m_first_date, and SetUpFarmCategoryInformation().

FI_FeedingGround() [2/3]

FI_FeedingGround::FI_FeedingGround ( TTypesOfVegetation  a_tov, TTypesOfCrops  a_toc, Landscape *  a_L  )

inline

                                                                                    : Crop(a_tov, a_toc, a_L)
    {
        // When we start it off, the first possible date for a farm operation 
        // This information is used by other crops when they decide how much post processing of 
        // the management is allowed after harvest before the next crop starts.
        m_first_date = g_date->DayInYear(20, 4);
    }

References Calendar::DayInYear(), g_date, and Crop::m_first_date.

FI_FeedingGround() [3/3]

FI_FeedingGround::FI_FeedingGround ( TTypesOfVegetation  a_tov, TTypesOfCrops  a_toc, Landscape *  a_L  )

inline

                                                                                    : Crop(a_tov, a_toc, a_L)
    {
        // When we start it off, the first possible date for a farm operation 
        // This information is used by other crops when they decide how much post processing of 
        // the management is allowed after harvest before the next crop starts.
        m_first_date = g_date->DayInYear(20, 4);
    }

References Calendar::DayInYear(), g_date, and Crop::m_first_date.

Member Function Documentation

Do() [1/3]

virtual bool FI_FeedingGround::Do ( Farm *  a_farm, LE *  a_field, FarmEvent *  a_ev  )

virtual

Reimplemented from Crop.

Do() [2/3]

virtual bool FI_FeedingGround::Do ( Farm *  a_farm, LE *  a_field, FarmEvent *  a_ev  )

virtual

Reimplemented from Crop.

Do() [3/3]

bool FI_FeedingGround::Do ( Farm *  a_farm, LE *  a_field, FarmEvent *  a_ev  )

virtual

The one and only method for a crop management plan. All farm actions go through here.

Called every time something is done to the crop by the farmer in the first instance it is always called with a_ev->todo set to start, but susequently will be called whenever the farmer wants to carry out a new operation.
This method details all the management and relationships between operations necessary to grow and ALMaSS crop - in this case conventional spring barley Fodder.

Reimplemented from Crop.

{
    m_field = a_field; // this is needed because of possible calls to other methods and currently we do not pass parameters.
    m_farm = a_farm; // this is needed because of possible calls to other methods and currently we do not pass parameters.
    m_ev = a_ev;
    bool done = false; // The boolean value done indicates when we are totally finished with this plan (i.e. it is set to true).
    int d1 = 0;
    // Depending what event has occured jump to the correct bit of code e.g. for ww_start jump to line 67 below
    switch (a_ev->m_todo)
    {
    case fi_fg_start:
    {
        FI_FG_YEARS_AFTER_SOW = 0; //Here FI_NG_YEARS_AFTER_SOW flag should get randomly for each field a value
                                    //THIS PART SHOULD BE SOMEWHERE ELSE OUTSIDE THE PLAN, SO THE STARTING CONDITIONS FOR FIELDS WITH PERMANENT GRASS (YEAR AFTER SOWING)
                                    // IS SET ONLY ONCE AT THE SIMULATION START!!!
 
        a_field->ClearManagementActionSum();
 
        // Record whether skylark scrapes are present and adjust flag accordingly
            if (cfg_FI_FeedingGround_SkScrapes.value()) {
                a_field->m_skylarkscrapes = true;
            }
            else {
                a_field->m_skylarkscrapes = false;
            }
 
        // Set up the date management stuff
     // Could save the start day in case it is needed later
    // m_field->m_startday = m_ev->m_startday;
    //m_last_date = g_date->DayInYear(20, 8);
    // Start and stop dates for all events after harvest
        int noDates = 4;
        //m_field->SetMDates(0, 0, g_date->DayInYear(15, 8)); // last possible day of harvest
        // Determined by harvest date - used to see if at all possible
        //m_field->SetMDates(1, 0, g_date->DayInYear(17, 8)); // end day of straw chopping
        //m_field->SetMDates(0, 1, g_date->DayInYear(18, 8)); // end day of hay baling
        //m_field->SetMDates(1, 1, g_date->DayInYear(19, 8)); // end day of stubble harrow
        //a_field->SetMDates(1, 2, g_date->DayInYear(20, 8)); // end day of plough
 
        //a_field->SetMConstants(0, 1);
        // Check the next crop for early start, unless it is a spring crop
        // in which case we ASSUME that no checking is necessary!!!!
        // So DO NOT implement a crop that runs over the year boundary (i.e. from spring to spring!), at least not without fixing this.
 
          //new if: do the check only for non-optimising farms and if year>0. (030713 - m_rotation used only in the hidden year, so I modified the condition from >7 to >0)
 
        if (!(a_farm->GetType() == tof_OptimisingFarm && g_date->GetYearNumber() > 0)) {
            //Checking the future...
            if (a_ev->m_startday > g_date->DayInYear(1, 7)) {
                if (g_date->DayInYear(30, 12) >= a_ev->m_startday)
                {
                    g_msg->Warn(WARN_BUG, "FI_FeedingGround::Do(): ", "Harvest too late for the next crop to start!!!");
                    int almassnum = a_field->GetLandscape()->BackTranslateVegTypes(a_ev->m_next_tov);
                    g_msg->Warn("Next Crop ", (double)almassnum); // this causes exit
                    exit(1);
                }
            }
            // Now no operations can be timed after the start of the next crop.
 
            if (!a_ev->m_first_year) {
                // Are we before July 1st?
                d1 = g_date->OldDays() + g_date->DayInYear(1, 7);
                if (g_date->Date() < d1) {
                    // Yes, too early. We assumme this is because the last crop was late
                    printf("Poly: %d\n", a_field->GetPoly());
                    g_msg->Warn(WARN_BUG, "FI_FeedingGround::Do(): ", "Crop start attempt between 1st Jan & 1st July");
                    int prev = a_field->GetLandscape()->BackTranslateVegTypes(a_field->GetOwner()->GetPreviousTov(a_field->GetRotIndex()));
                    g_msg->Warn(WARN_BUG, "Previous Crop ", prev);
                    int almassnum = a_field->GetLandscape()->BackTranslateVegTypes(a_ev->m_next_tov);
                    g_msg->Warn("Next Crop ", (double)almassnum); // this causes exit
                }
                else {
                    d1 = g_date->OldDays() + 365 + m_first_date; // Add 365 for spring crop
                    if (g_date->Date() > d1) {
                        // Yes too late - should not happen - raise an error
                        g_msg->Warn(WARN_BUG, "FI_FeedingGround::Do(): ", "Crop start attempt after last possible start date");
                        g_msg->Warn(WARN_BUG, "Previous Crop ", "");
                        a_field->GetOwner()->GetPreviousTov(a_field->GetRotIndex());
                        int almassnum = a_field->GetLandscape()->BackTranslateVegTypes(a_ev->m_next_tov);
                        g_msg->Warn("Next Crop ", (double)almassnum); // this causes exit
                    }
                }
            }
            else {
                //only for the first year
                SimpleEvent(g_date->OldDays() + g_date->DayInYear(20, 4), fi_fg_sow, false);
                break;
            }
        }//if
 
         // End single block date checking code. Please see next line comment as well.
         // OK, let's go.
        // Here we queue up the first event
        //Each field has assign randomly a FI_FG_YEARS_AFTER_SOW flag value from 1 to 5
    //if 1, 3 or 5 then first year after sowing and nothing is done (sleep all day) - mowing/grazing only every 2nd year
    //if 2 or 4 then grazing or cattle is out 
    //if 0 then it is a re-sowing year with fertilizer and cutting
        if ((FI_FG_YEARS_AFTER_SOW + g_date->GetYearNumber()) % 1 == 1)
        {
            d1 = g_date->OldDays() + g_date->DayInYear(1, 1);
            if (g_date->Date() >= d1) d1 += 365;
            SimpleEvent(d1, fi_fg_sow, false);
        }
        else if ((FI_FG_YEARS_AFTER_SOW + g_date->GetYearNumber()) % 1 == 0)
        {
            d1 = g_date->OldDays() + g_date->DayInYear(28,2);
            if (g_date->Date() >= d1) d1 += 365;
            SimpleEvent(d1, fi_fg_sleepallday, false);
        }
        break;
    }
    break; // this thread is only done the first year
    case fi_fg_sow: // 100% do this
        if (!a_farm->SpringSow(a_field, 0.0,
            g_date->DayInYear(15, 6) - g_date->DayInYear())) {
            SimpleEvent(g_date->Date() + 1, fi_fg_sow, true);
            break;
        }
    //Next event is grazing / cutting:
    SimpleEvent(g_date->OldDays() + g_date->DayInYear(1, 9), fi_fg_grazing1, false);
    break;
    case fi_fg_grazing1: // 90% cut or grazed - suggests 45% each
        if (a_ev->m_lock || a_farm->DoIt(45)) {
            if (!a_farm->CattleOut(a_field, 0.0,
                g_date->DayInYear(1, 10) - g_date->DayInYear())) {
                SimpleEvent(g_date->Date() + 1, fi_fg_grazing1, true);
                break;
            }
            SimpleEvent(g_date->Date() + 1, fi_fg_cattle_is_out1, false);
            break;
        }
        else SimpleEvent(g_date->OldDays() + g_date->DayInYear(1, 9), fi_fg_cutting1, false);
        break;
    case fi_fg_cutting1: //
        if (a_ev->m_lock || a_farm->DoIt(82)) { // 45% of the 55% left that did not do grazing
            if (!a_farm->CutToHay(a_field, 0.0,
                g_date->DayInYear(1, 10) - g_date->DayInYear())) {
                SimpleEvent(g_date->Date() + 1, fi_fg_cutting1, true);
                break;
            }
            done = true;
            break;
        }
    case fi_fg_cattle_is_out1:    // Keep the cattle out there
                           // CattleIsOut() returns false if it is not time to stop grazing
        if (!m_farm->CattleIsOut(m_field, 0.0, g_date->DayInYear(1, 11) - g_date->DayInYear(), g_date->DayInYear(1, 11))) {
            SimpleEvent(g_date->Date() + 1, fi_fg_cattle_is_out1, false);
            break;
        }
        done = true;
        break;
        //other years:
    case fi_fg_sleepallday: // 100% do this
        if (!a_farm->SleepAllDay(a_field, 0.0,
            g_date->DayInYear(1, 3) - g_date->DayInYear())) {
            SimpleEvent(g_date->Date() + 1, fi_fg_sleepallday, true);
            break;
        }
        //Here comes a fork of parallel events:
        SimpleEvent(g_date->OldDays() + g_date->DayInYear(1, 3), fi_fg_grazing2, false);
        SimpleEvent(g_date->OldDays() + g_date->DayInYear(20, 4), fi_fg_sow_ny, false);
        break;
    
    case fi_fg_grazing2:
        if (a_ev->m_lock || a_farm->DoIt(45)) {
            if (!a_farm->CattleOut(a_field, 0.0,
                g_date->DayInYear(1, 4) - g_date->DayInYear())) {
                SimpleEvent(g_date->Date() + 1, fi_fg_grazing2, true);
                break;
            }
            SimpleEvent(g_date->Date() + 1, fi_fg_cattle_is_out2, false);
            break;
        }
        else SimpleEvent(g_date->OldDays() + g_date->DayInYear(1, 3), fi_fg_cutting2, false);
        break;
 
    case fi_fg_sow_ny: // 100% do this
        if (!a_farm->SpringSow(a_field, 0.0,
            g_date->DayInYear(15, 6) - g_date->DayInYear())) {
            SimpleEvent(g_date->Date() + 1, fi_fg_sow_ny, true);
            break;
        }
        break; // end of sowing thread
 
    case fi_fg_cattle_is_out2:    // Keep the cattle out there
                               // CattleIsOut() returns false if it is not time to stop grazing
        if (!m_farm->CattleIsOut(m_field, 0.0, g_date->DayInYear(1, 5) - g_date->DayInYear(), g_date->DayInYear(1, 5))) {
            SimpleEvent(g_date->Date() + 1, fi_fg_cattle_is_out2, false);
            break;
        }
        SimpleEvent(g_date->OldDays() + g_date->DayInYear(1, 9), fi_fg_cutting3, false);
        break;
    case fi_fg_cutting2: //
        if (a_ev->m_lock || a_farm->DoIt(82)) { // 45% of the 55% left that did not do grazing
            if (!a_farm->CutToHay(a_field, 0.0,
                g_date->DayInYear(1, 5) - g_date->DayInYear())) {
                SimpleEvent(g_date->Date() + 1, fi_fg_cutting2, true);
                break;
            }
        }
        SimpleEvent(g_date->OldDays() + g_date->DayInYear(1, 9), fi_fg_cutting3, false);
        break;
    case fi_fg_cutting3:
        if (a_ev->m_lock || a_farm->DoIt(5)) {
            if (!a_farm->CutToHay(a_field, 0.0,
                g_date->DayInYear(30, 10) - g_date->DayInYear())) {
                SimpleEvent(g_date->Date() + 1, fi_fg_cutting3, true);
                break;
            }
            SimpleEvent(g_date->Date(), fi_fg_remove_straw, false);
            break;
        }
        done = true;
        break;
    case fi_fg_remove_straw:
        if (!a_farm->StrawRemoval(a_field, 0.0,
            g_date->DayInYear(30, 10) - g_date->DayInYear())) {
            SimpleEvent(g_date->Date() + 1, fi_fg_remove_straw, true);
            break;
        }
        done = true;
        break;
        // So we are done, and somewhere else the farmer will queue up the start event of the next crop
        // END OF MAIN THREAD
    default:
        g_msg->Warn(WARN_BUG, "FI_FeedingGround::Do(): "
            "Unknown event type! ", "");
        exit(1);
    }
    return done;
}

References Farm::CattleIsOut(), Farm::CattleOut(), cfg_FI_FeedingGround_SkScrapes, LE::ClearManagementActionSum(), Farm::CutToHay(), Calendar::Date(), Calendar::DayInYear(), Farm::DoIt(), fi_fg_cattle_is_out1, fi_fg_cattle_is_out2, fi_fg_cutting1, fi_fg_cutting2, fi_fg_cutting3, fi_fg_grazing1, fi_fg_grazing2, fi_fg_remove_straw, fi_fg_sleepallday, fi_fg_sow, fi_fg_sow_ny, fi_fg_start, FI_FG_YEARS_AFTER_SOW, g_date, g_msg, LE::GetOwner(), LE::GetPoly(), Farm::GetPreviousTov(), LE::GetRotIndex(), Farm::GetType(), Calendar::GetYearNumber(), Crop::m_ev, Crop::m_farm, Crop::m_field, Crop::m_first_date, FarmEvent::m_first_year, FarmEvent::m_lock, FarmEvent::m_next_tov, LE::m_skylarkscrapes, FarmEvent::m_startday, FarmEvent::m_todo, Calendar::OldDays(), Crop::SimpleEvent(), Farm::SleepAllDay(), Farm::SpringSow(), Farm::StrawRemoval(), tof_OptimisingFarm, CfgBool::value(), MapErrorMsg::Warn(), and WARN_BUG.

SetUpFarmCategoryInformation()

void FI_FeedingGround::SetUpFarmCategoryInformation ( )

inline

                                        {
        const int elements = 2 + (fi_fg_foobar - FI_FG_BASE);
        m_base_elements_no = FI_FG_BASE - 2;
 
        FarmManagementCategory catlist[elements] =
        {
            fmc_Others, // zero element unused but must be here 
            fmc_Others, //  fi_fg_start = 1, // Compulsory, must always be 1 (one).
            fmc_Others, //  fi_fg_sleep_all_day = FI_FG_BASE,
            fmc_Others, //  fi_fg_sow,
            fmc_Cutting,    //  fi_fg_cutting1,
            fmc_Grazing,    //  fi_fg_grazing1,
            fmc_Grazing,    //  fi_fg_cattle_is_out1,
            fmc_Others, // fi_fg_sleepallday,
            fmc_Others, //  fi_fg_sow_ny,
            fmc_Cutting,    //  fi_fg_cutting2,
            fmc_Grazing,    //  fi_fg_grazing2,
            fmc_Grazing,    //  fi_fg_cattle_is_out2,
            fmc_Cutting,    //  fi_fg_cutting3,
            fmc_Others  //  fi_fg_remove_straw,
 
 
                // no foobar entry  
 
        };
        // Iterate over the catlist elements and copy them to vector                
        copy(begin(catlist), end(catlist), back_inserter(m_ManagementCategories));
 
    }

References FI_FG_BASE, fi_fg_foobar, fmc_Cutting, fmc_Grazing, fmc_Others, Crop::m_base_elements_no, and Crop::m_ManagementCategories.

Referenced by FI_FeedingGround().

---

The documentation for this class was generated from the following files:

• /builds/ALMaSS/ALMaSS_MIDox/Landscape/cropprogs/FI_FeedingGround.h
• /builds/ALMaSS/ALMaSS_MIDox/Landscape/cropprogs/FI_FeedingGround1.h
• /builds/ALMaSS/ALMaSS_MIDox/Landscape/cropprogs/FI_FeedingGround2.h
• /builds/ALMaSS/ALMaSS_MIDox/Landscape/cropprogs/FI_FeedingGround.cpp
• /builds/ALMaSS/ALMaSS_MIDox/Landscape/cropprogs/FI_FeedingGround1.cpp
• /builds/ALMaSS/ALMaSS_MIDox/Landscape/cropprogs/FI_FeedingGround2.cpp