// TODO : test
public void addPhenotypeNetworks()
{
// add network for every neighbor with a creature
for (int i = 1; i < neighborLands.Length; i++)
{
if (neighborLands[i].creatureIsOn())
{
// get a copy of the template
// Debug.Log("template first layer length: " + phenotypeNetTemplate.net[0].Count);
PhenotypeNetwork phenotypeNet = (PhenotypeNetwork)Copier.copyNetwork(phenotypeNetTemplate, this);
// set the phenotype used in the template
phenotypeNet.setInputNodes(neighborLands[i].creatureOn.phenotype, i);
// add the network to the creatures networks
string phenoNetName = "phenotypeNet" + i;
networks[0].Add(phenoNetName, phenotypeNet);
// for every output node in the phenotype network
int length = phenotypeNet.net.Count;
for (int j = 0; j < phenotypeNet.net[length - 1].Count; j++)
{
OutputNode outNode = (OutputNode)phenotypeNet.net[length - 1][j];
// for every output network, add an inner-input node for the phenotype node, if applicable
foreach (OutputNetwork net in networks[networks.Count - 1].Values)
{
// output network must match action of phenotype output node
if (net.outputAction.name.Equals(outNode.action.name))
{
// create a new inner-input node
InnerInputNode node = new InnerInputNode();
// set linked node
node.parentCreature = this;
node.setLinkedNode(this, 0, phenoNetName, phenotypeNet.net.Count - 1, j);
node.temp = true;
// add inner-input node to first layer of output network
net.net[0].Add(node);
// add previous node for all nodes in second layer of output network
for (int k = 0; k < net.net[1].Count; k++)
{
NonInputNode niNode = (NonInputNode)net.net[1][k];
niNode.appendPrevNode(net.net[0][net.net[0].Count - 1]);
}
}
}
}
}
}
}
public PhenotypeNetworkEditor(PhenotypeNetwork net, CreatureEditor parentCreatureCreator) : base(net, parentCreatureCreator)
{
}