public int consume_Food; //food consume
public void Awake()
{
the_Location_Info = FindObjectOfType <LocationInfo>();
the_Stats_UI = FindObjectOfType <StatsUI>();
the_Food_Consumption = FoodConsumption.Medium;
the_Car_Speed = CarSpeed.Normal;
}
public void EvaluateTraits(CreatureManager hManager, string speciesName)
{
List <Gene> genes = new List <Gene>();
if (!GlobalGEPSettings.RANDOMIZED_TRAITS || traitIndices.Count == 0)
{
traitIndices = GlobalGEPSettings.speciesTraitLayouts[speciesName];
}
foreach (KeyValuePair <string, int[][]> thisTrait in traitIndices)
{
string key = thisTrait.Key;
//For every chromosome a trait is linked to...
//i = chromosome index (when a trait is on multiple chromosomes)
for (int i = 0; i < thisTrait.Value.Length; i++)
{
//Index [i][0] will ALWAYS be the chromosome index
int chromosomeIndex = thisTrait.Value[i][0];
//For every gene this trait is linked to (on this chromosome)...
//j = gene index for this chromosome
for (int j = 1; j < thisTrait.Value[i].Length; j++)
{
//Get the gene index
int geneIndex = thisTrait.Value[i][j];
//Add the gene at the chromosomeIndex and geneIndex to a list to be evaluated
//Accesses the genome rather than making a copy ensuring the genes accessed later on match exactly the current genome
genes.Add(genome[chromosomeIndex].genes[geneIndex]);
}
}
List <Trait> thisTraitList = AccessTraits(genes);
//For each trait (keyValuePair) evaluate the genes
//Could put the results into a dictionary - this way would be more polymorphic as would search for (or add) a row for each trait and search by name
// instead of individual variables, or an array which requires the developer to remember which index is which
switch (key.ToLower())
{
case "eye left colour":
eyeColours[0] = new GeneColour(thisTraitList);
if (eyeColours[1] == null && eyeStyle != null)
{
if (eyeStyle.eyeMatching)
{
eyeColours[1] = eyeColours[0];
UnityEngine.Debug.Log("Eye Matching, Assigned 1 = 0");
}
}
break;
case "eye right colour":
eyeColours[1] = new GeneColour(thisTraitList);
if (eyeColours[0] == null && eyeStyle != null)
{
if (eyeStyle.eyeMatching)
{
eyeColours[0] = eyeColours[1];
UnityEngine.Debug.Log("Eye Matching, Assigned 0 = 1");
}
}
break;
case "eye style":
eyeStyle = new EyeStyle(thisTraitList);
if (eyeStyle.eyeMatching)
{
if (eyeColours[0] != null)
{
eyeColours[1] = eyeColours[0];
}
else if (eyeColours[1] != null)
{
eyeColours[0] = eyeColours[1];
}
else
{
UnityEngine.Debug.Log("Error: Both eye colours are currently NULL");
}
}
break;
case "hair colour":
hairColour = new GeneColour(thisTraitList);
break;
case "skin colour":
skinColour = new GeneColour(thisTraitList);
break;
case "growth rate":
growthRate = new GrowthRate(thisTraitList);
break;
case "life expectancy":
lifeExpectancy = new LifeExpectancy(thisTraitList);
break;
case "reproductive age":
reproductiveAge = new ReproductiveAge(thisTraitList);
break;
case "gestation period":
gestationPeriod = new GestationPeriod(thisTraitList);
break;
case "energy level":
energyLevel = new EnergyLevel(thisTraitList);
break;
case "energy consumption":
energyConsumption = new EnergyConsumption(thisTraitList);
break;
case "food level":
foodLevel = new FoodLevel(thisTraitList);
break;
case "food consumption":
foodConsumption = new FoodConsumption(thisTraitList);
break;
case "water level":
waterLevel = new WaterLevel(thisTraitList);
break;
case "water consumption":
waterConsumption = new WaterConsumption(thisTraitList);
break;
case "strength":
case "intellect":
case "constitution":
case "wisdom":
case "charisma":
case "vanity":
attributesList.Add(new AttributeTrait(thisTraitList));
break;
}
genes.Clear();
}
}
