def StepUpdate(self):
for ep in self.energyPoints:
ep.StepUpdate(self.getNodesAround(ep, Global.ELGravityRange))
for node in self.nodes:
node.StepUpdate(
self.getNodesAround(node, Global.ELAntigravityRange))
for node in self.nodes:
node.StepUpdateMove()
if Global.CreatePlaces:
placesToDelete = []
for place in self.places:
place.CalculateAG()
if place.slowAGamount < Global.PlacesAGMin * (place.level - 1):
placesToDelete.append(place)
continue
if place.AGamount > Global.PlacesAGNeeded * (2**(place.level) -
1):
self.createPlaces(place)
if place.parent != None:
place.UpdateLocation()
place.CalculateRange()
place.SaveStatus()
for place in placesToDelete:
place.Delete()
for node in self.nodes:
p = self.GetPlaceForNode(node)
if p != node.place:
node.place.nodes.remove(node)
node.place = p
p.nodes.append(node)
for ep in self.energyPointsToDelete:
self.energyPoints.remove(ep)
self.energyPointsToDelete = []
self.forgetEnergy = self.forgetEnergy + Global.ELForgetNodeRate
cost = self.GetNodeDeleteCost()
chanceForget = 100 * float(self.forgetEnergy - cost) / cost
diceRoll = Global.DiceRoll()
if diceRoll < chanceForget and len(self.nodes) > 0:
node = Global.Choice(self.nodes)
self.forgetEnergy = self.forgetEnergy - (
cost * log(max(2, node.usage), 2))
self.DeleteNode(node)
Global.LogData("nc", self.Status())
def StepUpdate(self, nodesAround):
cost = self.layer.GetNodeCreateCost()
chanceNew = 100 * float(self.energy - cost) / cost
diceRoll = Global.DiceRoll()
if diceRoll < chanceNew:
self.layer.CreateNode(self, self.memObject)
self.energy = self.energy - cost
effect = self.energy / Global.EPCreateEnergy
for node in nodesAround:
node.Train(self, effect)
self.intenseMemObjToNodes(effect)
self.energy = self.energy * Global.EPFadeCoef
if self.energy < Global.EPFadeLimit:
self.layer.DeleteEnergyPoint(self)
