source: experiments/frams/foraminifera/data/scripts/forams_benthic.expdef @ 401

expdef:
name:Benthic foraminifera reproduction
info:~
Genes and parameter values which control reproduction are stored in user1 and user2 fields.

user1:
genes which are not encoded in ff genotype:
Vamin - Minimum stored energy necessary for reproduction
amin - minimal age for reproduction

user2:
Physiological parameters of foraminifera:
Va - amount of the stored energy
gen - generation: 0 haploid, 1 diploid
~
code:~

/*
changes 2015-06-24:
- xxx.get(...) changed to xxx[...]
- xxx.set(...,...) changed to xxx[...]=...
- function placeRandomlyNotColliding(cr) explicitly called when adding a new creature, and removed collision checking from onCreaturesBorn() which is also called when "growing" (since "growing" is implemented as creating a new creature in place of the old one, so onCreaturesBorn() is also called)
- use creature's center (not the bbox corner) when growing
- added "S" receptor to visualize the difference between diplo and haplo generations
- signal.value is a MechPart (a reference) so it does not have to be updated after changing the object location
*/

global foodenergywaiting;
global reprocounter;
global delta_change;

@include "forams_repro.inc"

// -------------------------------- experiment begin --------------------------------

function onExpDefLoad()
{

        // define genotype and creature groups
        GenePools.clear();
        Populations.clear();
        GenePools[0].name = "Unused";

        SignalView.mode = 1;

        var pop = Populations[0];
        pop.name = "Creatures";
        pop.en_assim = 0;
        pop.nnsim = 1;
        pop.enableperf = 1;
        pop.death = 1;
        pop.energy = 1;
        pop.selfmask = 0x10001;
        pop.othermask = 0x20001;
        //pop.selfmask = 0x20002; pop.othermask = 0x10002;
        pop.perfperiod = 25;

        pop = Populations.addGroup("Food");
        pop.nnsim = 0;
        pop.enableperf = 0;
        pop.death = 1;
        pop.energy = 1;
        pop.selfmask = 0x20002;
        pop.othermask = 0x10000;


        var size_h = ExpParams.haplo_rad * ExpParams.delta_rate + ExpParams.haplo_rad;
        var size_d = ExpParams.diplo_rad * ExpParams.delta_rate + ExpParams.diplo_rad;
        ExpParams.gend = "//0\np:sh=1,sx=" + ExpParams.diplo_rad + ",sy=" + ExpParams.diplo_rad + ",sz=" + ExpParams.diplo_rad + ", rz=3.14159265358979";
        ExpParams.genh = "//0\np:sh=1,sx=" + size_h + ",sy=" + size_h + ",sz=" + size_h + ", rz=3.14159265358979";
        ExpParams.e_meta = 0.1;
        ExpParams.feedrate = 0.5;
        ExpParams.feede0 = 100;
        ExpParams.feedtrans = 3;
        ExpParams.creath = -0.99; //just above the bottom
        ExpParams.foodgen = "//0\np:sh=2,sx=0.1,sy=0.1,sz=0.1\nn:d=T,p=0";
        ExpParams.autorestart = 0;
        ExpParams.psize = 10;
        ExpParams.logging = 0;

        //number of offspring
        ExpParams.ofnumh = 40;
        ExpParams.ofnumd = 25;
        //minial volume for reproduction
        ExpParams.v_min_d = 300;
        ExpParams.v_min_h = 300;
        //radius of the chamber
        ExpParams.haplo_rad = 1.2;
        ExpParams.diplo_rad = 0.6;
        //minimal age for reproduction
        ExpParams.age_min_d = 100;
        ExpParams.age_min_h = 100;
        //crossover probability
        ExpParams.crossprob = 0.4;
        //mutation probability
        ExpParams.mutationprob = 0.2;
        ExpParams.repro_time = 200;
        ExpParams.repro_thr = 1;

        //size change rate
        ExpParams.delta_rate = 0.1;
        //grwoth speed in time steps
        ExpParams.growth_step = 50;

        ExpState.totaltestedcr = 0;
        ExpState.food = "";
        foodenergywaiting = ExpParams.feede0;
        reprocounter = 0;

        ExpParams.wsize = 50;
        World.wrldwat = 50;
        World.wrldsiz = ExpParams.wsize;
        World.wrldbnd = 1;

        delta_change = 0.5;
}

@include "standard_placement.inc"

function onExpInit()
{
        Populations[0].clear();
        Populations[1].clear();

        for (var i = 0; i < ExpParams.psize; i++)
        {
                var cr = Populations[0].add(ExpParams.genh);
                cr.name = "Initial creature" + i;
                placeCreatureRandomly(cr, 0, 0);
                cr.energ0 = ExpParams.v_min_h - ExpParams.repro_thr;
                cr.energy = cr.energ0;
                cr.user1 = {"vamin" : ExpParams.v_min_h, "amin": ExpParams.age_min_h, "delta_h" : ExpParams.haplo_rad * ExpParams.delta_rate, "delta_d" : ExpParams.diplo_rad * ExpParams.delta_rate};
                cr.user2 = {"Va" : ExpParams.v_min_h - ExpParams.repro_thr, "gen" : 0, "growth_step" : ExpParams.growth_step, "rsize" : ExpParams.haplo_rad, "vinit" : ExpParams.v_min_h - ExpParams.repro_thr};
        }
        ExpState.totaltestedcr = 0;
        foodenergywaiting = ExpParams.feede0;
}

function onExpLoad()
{
        for (var pop in Populations)
                pop.clear();

        Loader.addClass(sim_params.*);
        Loader.setBreakLabel(Loader.BeforeUnknown, "onExpLoad_Unknown");
        Loader.run();

        Simulator.print("Loaded " + Populations[0].size + " creatures and " + Populations[1].size + " food objects");
}

function onExpLoad_Unknown()
{
        if (Loader.objectName == "org") // saved by the old expdef
        {
                var g = Genotype.newFromString("");
                Loader.currentObject = g;
                Interface.makeFrom(g).setAllDefault();
                Loader.loadObject();
                var cr = Populations[0].add(g);
                if (cr != null)
                {
                        //cr.rotate(0,0,Math.rnd01*Math.twopi);
                        if ((typeof(g.user1) == "Vector") && (g.user1.size >= 3))
                        {
                                // [x,y,energy]
                                cr.move(g.user1[0] - cr.center_x, g.user1[1] - cr.center_y, 0);
                                cr.energy = g.user1[2];
                        }
                        else
                        {
                                cr.move(Math.rnd01 * World.wrldsiz - cr.center_x, Math.rnd01 * World.wrldsiz - cr.center_y, 0);
                        }
                }
        }
        else if (Loader.objectName == "Creature")
        {
                Loader.currentObject = CreatureSnapshot.new();
                Loader.loadObject();
                Populations[0].add(Loader.currentObject);
        }
}

function onExpSave()
{
        File.writeComment("saved by '%s.expdef'" % Simulator.expdef);

        var tmpvec = [], i;

        for(var cr in Populations[1])
                tmpvec.add([cr.center_x, cr.center_y, cr.energy]);

        ExpState.food = tmpvec;
        File.writeObject(sim_params.*);
        ExpState.food = null; //vectors are only created for saving and then discarded

        for (var cr in Populations[0])
                File.writeObject(cr);
}

// -------------------------------- experiment end --------------------------------

// -------------------------------- creature begin --------------------------------

function onCreaturesBorn(cr)
{
        cr.idleen = ExpParams.e_meta;
}

function placeRandomlyNotColliding(cr)
{
        var retry = 100; //try 100 times
        while (retry--)
        {
                placeCreatureRandomly(cr, 0, 0);
                if (!cr.boundingBoxCollisions(0))
                        return cr;
        }

        Populations[0].delete(cr);
}

function readyToRepro(cr)
{
        cr.signals.add("repro");
        cr.signals[0].power = 1;

}

function onCreaturesStep(cr)
{
        cr.moveAbs(cr.pos_x, cr.pos_y, 0); //adjustment in z axis
        var p = cr.getMechPart(0);
        var n = cr.signals.receiveSet("food", ExpParams.food_range);

        //if signals are received find the source of the nearest
        if (n.size > 0)
        {

                var i;
                var mp;
                var distvec = XYZ.new(0, 0, 0);
                var dist;
                var mindist = 100000000000;
                var mindistvec = null;

                for (i = 0; i < n.size; i++)
                {
                        mp = n[i].value;
                        distvec.set(mp.pos);
                        distvec.sub(p.pos);
                        dist = distvec.length;
                        if (dist < mindist)
                        {
                                mindist = dist;
                                mindistvec = distvec.clone();
                        }
                }

                mindistvec.normalize();
                mindistvec.scale(-0.08);
                cr.localDrive = mindistvec;
        }

        else
        {
                cr.localDrive = (0.1 * Math.rnd01, 0.1 * Math.rnd01, 0);
        }

        //energy costs depend on size
        if (cr.energy > 100)
        {
                // cr.energy_m = cr.user2["Va"]/cr.user2["vinit"];
        }

        if (cr.lifespan >= ExpParams.max_age)
        {
                Populations[0].kill(cr);
        }

        //foram growth
        else if (cr.lifespan == cr.user2["growth_step"])
        {
                var pos = [cr.center_x, cr.center_y, cr.center_z];
                var energy = cr.energy;
                var cr2 = null;
                if (cr.user2["gen"] == 0)
                {
                        var new_r = ExpParams.haplo_rad * Math.min(Math.max(cr.user2["Va"] / cr.user2["vinit"] * 0.5, 1), 2.5);
                        cr.user2["rsize"] = new_r;
                        cr2 = Populations[0].add("//0\np:sh=1,sx=" + cr.user2["rsize"] + ",sy=" + cr.user2["rsize"] + ",sz=" + cr.user2["rsize"] + ", rz=3.14159265358979");
                        cr2.user1 = {"vamin" : cr.user1["vamin"], "amin": cr.user1["amin"], "delta_h" : cr.user1["delta_h"], "delta_d" : cr.user1["delta_d"]};
                }
                else if (cr.user2["gen"] == 1)
                {
                        var new_r = ExpParams.diplo_rad * Math.min(Math.max(cr.user2["Va"] / cr.user2["vinit"] * 0.5, 1), 2.5);
                        cr.user2["rsize"] = new_r;

                        var geno = "//0\np:sh=1,sx=" + cr.user2["rsize"] + ",sy=" + cr.user2["rsize"] + ",sz=" + cr.user2["rsize"] + ", rz=3.14159265358979";
                        geno += "\nn:p=0,d=\"S\""; //TODO is this the only difference with haploid code? TODO why initial genotypes are not used as defined in ExpParams?
                        //TODO maybe it would be nice if they rotated so the "S" would show where they are going (direction/intention)
                        cr2 = Populations[0].add(geno);


                        cr2.user1 = [ {"vamin" : cr.user1[0]["vamin"], "amin": cr.user1[0]["amin"], "delta_h" : cr.user1[0].get("delta_h"), "delta_d" : cr.user1[0]["delta_d"]  }, {"vamin" : cr.user1[1]["vamin"], "amin": cr.user1[1]["amin"], "delta_h" : cr.user1[1]["delta_h"], "delta_d" : cr.user1[1]["delta_d"]  }];
                }
                cr2.energy = energy;
                cr2.user2 = {"Va" : cr.user2["Va"], "gen" : cr.user2["gen"], "growth_step" : cr.user2["growth_step"], "rsize" : cr.user2["rsize"], "vinit": cr.user2["vinit"]};
                cr2.moveAbs(cr.center_x - cr2.size_x / 2, cr.center_y - cr2.size_y / 2, cr.pos_z);

                Populations[0].delete(cr);
        }
        else
        {
                var properSize = 0;

                if (cr.user2["gen"] == 0)
                {
                        properSize = cr.user2["Va"] >= cr.user1["vamin"];
                }
                else
                {
                        properSize = cr.user2["Va"] >= cr.user1[0]["vamin"];
                }

                //if creature has proper age and cytoplasm amount
                if ( properSize )
                {
                        //reproduce with probability repro_prob
                        if (Math.rnd01 <= ExpParams.repro_prob)
                        {
                                readyToRepro(cr);
                        }
                }
                if ( properSize && (cr.signals.receive("repro") > 0))
                {
                        readyToRepro(cr);
                }
        }
}

function onCreaturesDied(cr)
{
        //fossilization
        var geno = GenePools[0].add(cr.genotype);
        geno.user1 = cr.user1;
        geno.user2 = cr.user2;
        Simulator.print("\"" + cr.name + "\" died...");
        ExpState.totaltestedcr++;
}

// -------------------------------- creature end --------------------------------

// -------------------------------- food begin --------------------------------

function onFoodStep(cr)
{
        cr.moveAbs(cr.pos_x % ExpParams.wsize, cr.pos_y % ExpParams.wsize, 0.5);
}

function addfood()
{
        var cr = Populations[1].add(ExpParams.foodgen);

        cr.name = "Food";
        cr.idleen = 0;
        cr.energ0 = ExpParams.feede0;
        cr.energy = cr.energ0;
        cr.signals.add("food");

        cr.signals[0].value = cr.getMechPart(0);

        var retry = 100; //try 100 times
        while (retry--)
        {
                placeCreatureRandomly(cr, 0, 0);
                if (!cr.boundingBoxCollisions(0))
                        return cr;
        }

        return cr;
}

function onFoodCollision()
{
        if (Collision.Creature2.user2 != null)
        {
                var e = Collision.Part2.ing * ExpParams.feedtrans;
                //Simulator.print("transferring "+e+" from "+Collision.Creature1.name+" to "+Collision.Creature2.name+" ("+Collision.Creature2.energy+")");
                Collision.Creature1.energy_m = Collision.Creature1.energy_m + e;
                Collision.Creature2.energy_p = Collision.Creature2.energy_p + e;
                var ener = float(Collision.Creature2.user2["Va"]);
                var sum = float(float(ener) + float(e));
                Collision.Creature2.user2["Va"] = float(sum);
        }
}

// -------------------------------- food end --------------------------------


function log(tolog, fname)
{
        var f = File.appendDirect(fname, "forams data");
        f.writeString("" + Simulator.stepNumber);
        for (var  i = 0; i < tolog.size; i++)
        {
                f.writeString(";" + tolog[i]);
        }
        f.writeString("\n");
        f.close();
}




@include "standard_events.inc"

~

prop:
id:max_age
name:Maximal age
type:d 100 1000 500

prop:
id:wsize
name:World size
type:d 10 1000 20

prop:
id:haplo_rad
name:Haploid radius
type:f 0.1 3 1.2

prop:
id:growth_step
name:Growth step
type:d 50 10000 1000

prop:
id:delta_rate
name:Delta rate
type:f 0.0001 0.1 0.001

prop:
id:diplo_rad
name:Diploid radius
type:f 0.1 3 0.6

prop:
id:foodPop
name:Food size
type:d 1 1000 10

prop:
id:age_min
name:Minimal age for reproduction
type:d 100 10000 200

prop:
id:age_min_h
name:Min reproduction age of haploid forams
type:d 100 10000 300
group:Foraminifera

prop:
id:age_min_d
name:Min reproduction age of diploid forams
type:d 100 10000 200
group:Foraminifera

prop:
id:v_min_h
name:Min reproduction energy of haploid forams
type:f 10 10000 300
group:Foraminifera

prop:
id:v_min_d
name:Min reproduction energy of diploid forams
type:f 10 10000 150
group:Foraminifera

prop:
id:repro_thr
name:Threshold for reproduction
type:d 1 1000 1

prop:
id:food_range
name:Range of food smell
type:d 0 10000 10000

prop:
id:repro_time
name:Time before reproduction
type:d 0 1000

prop:
id:psize
name:Initial population size
type:d 1 1000 100

prop:
id:logging
name:Log statistics to file
type:d 0 1 0

prop:
id:ofnumh
name:Number of offspring from haploid forams
type:d
group:Foraminifera

prop:
id:ofnumd
name:Number of offspring from diploid forams
type:d
group:Foraminifera

prop:
id:repro_prob
name:Probability of reproduction
type:f 0 1 0.9

prop:
id:crossprob
name:Crossover probability
type:f 0 1 0

prop:
id:mutationprob
name:Mutation probability
type:f 0 1 0

prop:
id:genh
name:Initial genotype of haploid forams
type:s 1
group:Foraminifera

prop:
id:gend
name:Initial genotype of diploid forams
type:s 1
group:Foraminifera

prop:
id:creath
name:Creation height
type:f -1 50
help:~
Vertical position (above the surface) where new creatures are revived.
Negative values are only used in the water area:
  0   = at the surface
-0.5 = half depth
-1   = just above the bottom~

prop:
id:e_meta
name:Idle metabolism
type:f 0 1
group:Energy
help:Each stick consumes this amount of energy in one time step

prop:
id:feedrate
name:Feeding rate
type:f 0 100
group:Energy
help:How fast energy is created in the world

prop:
id:feede0
name:Food's energy
group:Energy
type:f 0 1000

prop:
id:feedtrans
name:Ingestion multiplier
group:Energy
type:f 0 100

prop:
id:foodgen
name:Food's genotype
group:Energy
type:s 1

prop:
id:autorestart
name:Restart after extinction
help:Restart automatically this experiment after the last creature has died?
type:d 0 1

state:
id:notes
name:Notes
type:s 1
help:~
You can write anything here
(it will be saved to the experiment file)~

state:
id:totaltestedcr
name:Evaluated creatures
help:Total number of the creatures evaluated in the experiment
type:d
flags:16

state:
id:food
name:Food locations
help:vector of vectors [x,y,energy]
type:x
flags:32