blob: 5d987e79a45f7cd64a5230e02602411a14cf6672 [file] [log] [blame] [raw]
package li.cil.oc.common.entity
import cpw.mods.fml.relauncher.Side
import cpw.mods.fml.relauncher.SideOnly
import li.cil.oc.OpenComputers
import li.cil.oc.Settings
import li.cil.oc.api
import li.cil.oc.api.Driver
import li.cil.oc.api.Machine
import li.cil.oc.api.driver.item
import li.cil.oc.api.driver.item.Memory
import li.cil.oc.api.driver.item.Processor
import li.cil.oc.api.internal
import li.cil.oc.api.machine.MachineHost
import li.cil.oc.api.network._
import li.cil.oc.common.GuiType
import li.cil.oc.common.Slot
import li.cil.oc.common.inventory.ComponentInventory
import li.cil.oc.common.inventory.Inventory
import li.cil.oc.common.inventory.MultiTank
import li.cil.oc.server.component
import li.cil.oc.util.BlockPosition
import li.cil.oc.util.ExtendedNBT._
import li.cil.oc.util.ExtendedWorld._
import li.cil.oc.util.InventoryUtils
import li.cil.oc.util.ItemUtils
import net.minecraft.block.material.Material
import net.minecraft.entity.Entity
import net.minecraft.entity.item.EntityItem
import net.minecraft.entity.player.EntityPlayer
import net.minecraft.item.ItemStack
import net.minecraft.nbt.NBTTagCompound
import net.minecraft.util.Vec3
import net.minecraft.world.World
import net.minecraftforge.common.util.ForgeDirection
import net.minecraftforge.fluids.IFluidTank
class Drone(val world: World) extends Entity(world) with MachineHost with internal.Drone {
// Some basic constants.
val gravity = 0.05f
// low for slow fall (float down)
val drag = 0.8f
val maxAcceleration = 0.1f
val maxVelocity = 0.4f
val maxInventorySize = 8
setSize(12 / 16f, 6 / 16f)
isImmuneToFire = true
// Rendering stuff, purely eyecandy.
val targetFlapAngles = Array.fill(4, 2)(0f)
val flapAngles = Array.fill(4, 2)(0f)
var nextFlapChange = 0
var bodyAngle = math.random.toFloat * 90
var angularVelocity = 0f
var nextAngularVelocityChange = 0
var lastEnergyUpdate = 0
// Logic stuff, components, machine and such.
val info = new ItemUtils.MicrocontrollerData()
val machine = if (!world.isRemote) {
val m = Machine.create(this)
m.node.asInstanceOf[Connector].setLocalBufferSize(0)
m
} else null
val control = if (!world.isRemote) new component.Drone(this) else null
val components = new ComponentInventory {
override def host = Drone.this
override def items = info.components.map(Option(_))
override def getSizeInventory = info.components.length
override def markDirty() {}
override def isItemValidForSlot(slot: Int, stack: ItemStack) = true
override def isUseableByPlayer(player: EntityPlayer) = true
override def node = Option(machine).map(_.node).orNull
override def onConnect(node: Node) {}
override def onDisconnect(node: Node) {}
override def onMessage(message: Message) {}
}
val inventory = new Inventory {
val items = Array.fill[Option[ItemStack]](8)(None)
override def getSizeInventory = inventorySize
override def getInventoryStackLimit = 64
override def markDirty() {} // TODO update client GUI?
override def isItemValidForSlot(slot: Int, stack: ItemStack) = slot >= 0 && slot < getSizeInventory
override def isUseableByPlayer(player: EntityPlayer) = player.getDistanceSqToEntity(Drone.this) < 64
}
val tank = new MultiTank {
override def tankCount = components.components.count {
case Some(tank: IFluidTank) => true
case _ => false
}
override def getFluidTank(index: Int): IFluidTank = components.components.collect {
case Some(tank: IFluidTank) => tank
}.apply(index)
}
var selectedTank = 0
// ----------------------------------------------------------------------- //
override def canBeCollidedWith = true
override def canBePushed = true
// ----------------------------------------------------------------------- //
override def xPosition = posX
override def yPosition = posY
override def zPosition = posZ
override def markChanged() {}
// ----------------------------------------------------------------------- //
override def cpuArchitecture = info.components.map(stack => (stack, Driver.driverFor(stack, getClass))).collectFirst {
case (stack, driver: Processor) if driver.slot(stack) == Slot.CPU => driver.architecture(stack)
}.orNull
override def callBudget = info.components.foldLeft(0.0)((sum, item) => sum + (Option(item) match {
case Some(stack) => Option(Driver.driverFor(stack, getClass)) match {
case Some(driver: Processor) if driver.slot(stack) == Slot.CPU => Settings.get.callBudgets(driver.tier(stack))
case _ => 0
}
case _ => 0
}))
override def installedMemory = info.components.foldLeft(0)((sum, item) => sum + (Option(item) match {
case Some(stack) => Option(Driver.driverFor(stack, getClass)) match {
case Some(driver: Memory) => driver.amount(stack)
case _ => 0
}
case _ => 0
}))
override def maxComponents = 32
override def componentSlot(address: String) = -1 // TODO
override def markForSaving() {}
override def onMachineConnect(node: Node) {}
override def onMachineDisconnect(node: Node) {}
def computeInventorySize() = math.min(maxInventorySize, info.components.foldLeft(0)((acc, component) => acc + (Option(component) match {
case Some(stack) => Option(Driver.driverFor(stack, getClass)) match {
case Some(driver: item.Inventory) => math.max(1, driver.inventoryCapacity(stack) / 4)
case _ => 0
}
case _ => 0
})))
// ----------------------------------------------------------------------- //
override def entityInit() {
// Running or not.
dataWatcher.addObject(2, byte2Byte(0: Byte))
// Target position.
dataWatcher.addObject(3, float2Float(0f))
dataWatcher.addObject(4, float2Float(0f))
dataWatcher.addObject(5, float2Float(0f))
// Max acceleration.
dataWatcher.addObject(6, float2Float(0f))
// Selected inventory slot.
dataWatcher.addObject(7, byte2Byte(0: Byte))
// Current and maximum energy.
dataWatcher.addObject(8, int2Integer(0))
dataWatcher.addObject(9, int2Integer(100))
// Status text.
dataWatcher.addObject(10, "")
// Inventory size for client.
dataWatcher.addObject(11, byte2Byte(0: Byte))
}
def initializeAfterPlacement(stack: ItemStack, player: EntityPlayer, position: Vec3) {
info.load(stack)
control.node.changeBuffer(info.storedEnergy - control.node.localBuffer)
wireThingsTogether()
inventorySize = computeInventorySize()
setPosition(position.xCoord, position.yCoord, position.zCoord)
}
def preparePowerUp() {
targetX = math.floor(posX).toFloat + 0.5f
targetY = math.floor(posY).toFloat + 0.5f
targetZ = math.floor(posZ).toFloat + 0.5f
targetAcceleration = maxAcceleration
wireThingsTogether()
}
private def wireThingsTogether(): Unit = {
api.Network.joinNewNetwork(machine.node)
machine.node.connect(control.node)
machine.setCostPerTick(Settings.get.droneCost)
components.connectComponents()
}
def isRunning = dataWatcher.getWatchableObjectByte(2) != 0
def targetX = dataWatcher.getWatchableObjectFloat(3)
def targetY = dataWatcher.getWatchableObjectFloat(4)
def targetZ = dataWatcher.getWatchableObjectFloat(5)
def targetAcceleration = dataWatcher.getWatchableObjectFloat(6)
def selectedSlot = dataWatcher.getWatchableObjectByte(7) & 0xFF
def globalBuffer = dataWatcher.getWatchableObjectInt(8)
def globalBufferSize = dataWatcher.getWatchableObjectInt(9)
def statusText = dataWatcher.getWatchableObjectString(10)
def inventorySize = dataWatcher.getWatchableObjectByte(11) & 0xFF
def setRunning(value: Boolean) = dataWatcher.updateObject(2, byte2Byte(if (value) 1: Byte else 0: Byte))
// Round target values to low accuracy to avoid floating point errors accumulating.
def targetX_=(value: Float): Unit = dataWatcher.updateObject(3, float2Float(math.round(value * 4) / 4f))
def targetY_=(value: Float): Unit = dataWatcher.updateObject(4, float2Float(math.round(value * 4) / 4f))
def targetZ_=(value: Float): Unit = dataWatcher.updateObject(5, float2Float(math.round(value * 4) / 4f))
def targetAcceleration_=(value: Float): Unit = dataWatcher.updateObject(6, float2Float(math.max(0, math.min(maxAcceleration, value))))
def selectedSlot_=(value: Int) = dataWatcher.updateObject(7, byte2Byte(value.toByte))
def globalBuffer_=(value: Int) = dataWatcher.updateObject(8, int2Integer(value))
def globalBufferSize_=(value: Int) = dataWatcher.updateObject(9, int2Integer(value))
def statusText_=(value: String) = dataWatcher.updateObject(10, Option(value).map(_.lines.map(_.take(10)).take(2).mkString("\n")).getOrElse(""))
def inventorySize_=(value: Int) = dataWatcher.updateObject(11, byte2Byte(value.toByte))
@SideOnly(Side.CLIENT)
override def setPositionAndRotation2(x: Double, y: Double, z: Double, yaw: Float, pitch: Float, data: Int) {
// Only set exact position if we're too far away from the server's
// position, otherwise keep interpolating. This removes jitter and
// is good enough for drones.
if (!isRunning || getDistanceSq(x, y, z) > 1) {
super.setPositionAndRotation(x, y, z, yaw, pitch)
}
else {
targetX = x.toFloat
targetY = y.toFloat
targetZ = z.toFloat
}
}
override def setDead() {
super.setDead()
if (!world.isRemote) {
machine.stop()
machine.node.remove()
components.saveComponents()
val stack = api.Items.get("drone").createItemStack(1)
info.storedEnergy = control.node.localBuffer.toInt
info.save(stack)
val entity = new EntityItem(world, posX, posY, posZ, stack)
entity.delayBeforeCanPickup = 15
world.spawnEntityInWorld(entity)
InventoryUtils.dropAllSlots(BlockPosition(this: Entity), inventory)
}
}
override def onUpdate() {
super.onUpdate()
if (!world.isRemote) {
if (isInsideOfMaterial(Material.water) || isInsideOfMaterial(Material.lava)) {
// We're not water-proof!
machine.stop()
}
machine.update()
components.updateComponents()
setRunning(machine.isRunning)
val buffer = math.round(machine.node.asInstanceOf[Connector].globalBuffer).toInt
if (math.abs(lastEnergyUpdate - buffer) > 1 || world.getTotalWorldTime % 200 == 0) {
lastEnergyUpdate = buffer
globalBuffer = buffer
globalBufferSize = machine.node.asInstanceOf[Connector].globalBufferSize.toInt
}
}
else {
if (isRunning) {
// Client side update; occasionally update wing pitch and rotation to
// make the drones look a bit more dynamic.
val rng = world.rand
nextFlapChange -= 1
nextAngularVelocityChange -= 1
if (nextFlapChange < 0) {
nextFlapChange = 5 + rng.nextInt(10)
for (i <- 0 until 2) {
val flap = rng.nextInt(targetFlapAngles.length)
targetFlapAngles(flap)(0) = math.toRadians(rng.nextFloat() * 4 - 2).toFloat
targetFlapAngles(flap)(1) = math.toRadians(rng.nextFloat() * 4 - 2).toFloat
}
}
if (nextAngularVelocityChange < 0) {
if (angularVelocity != 0) {
angularVelocity = 0
nextAngularVelocityChange = 20
}
else {
angularVelocity = if (rng.nextBoolean()) 0.1f else -0.1f
nextAngularVelocityChange = 100
}
}
// Interpolate wing rotations.
(flapAngles, targetFlapAngles).zipped.foreach((f, t) => {
f(0) = f(0) * 0.7f + t(0) * 0.3f
f(1) = f(1) * 0.7f + t(1) * 0.3f
})
// Update body rotation.
bodyAngle += angularVelocity
}
}
prevPosX = posX
prevPosY = posY
prevPosZ = posZ
noClip = func_145771_j(posX, (boundingBox.minY + boundingBox.maxY) / 2, posZ)
if (isRunning) {
val toTarget = Vec3.createVectorHelper(targetX - posX, targetY - posY, targetZ - posZ)
val distance = toTarget.lengthVector()
val velocity = Vec3.createVectorHelper(motionX, motionY, motionZ)
if (distance > 0 && (distance > 0.005f || velocity.dotProduct(velocity) > 0.005f)) {
val acceleration = math.min(targetAcceleration, distance) / distance
velocity.xCoord += toTarget.xCoord * acceleration
velocity.yCoord += toTarget.yCoord * acceleration
velocity.zCoord += toTarget.zCoord * acceleration
motionX = math.max(-maxVelocity, math.min(maxVelocity, velocity.xCoord))
motionY = math.max(-maxVelocity, math.min(maxVelocity, velocity.yCoord))
motionZ = math.max(-maxVelocity, math.min(maxVelocity, velocity.zCoord))
}
else {
motionX = 0
motionY = 0
motionZ = 0
posX = targetX
posY = targetY
posZ = targetZ
}
}
else {
// No power, free fall: engage!
motionY -= gravity
}
moveEntity(motionX, motionY, motionZ)
// Make sure we don't get infinitely faster.
if (isRunning) {
motionX *= drag
motionY *= drag
motionZ *= drag
}
else {
val groundDrag = worldObj.getBlock(BlockPosition(this: Entity).offset(ForgeDirection.DOWN)).slipperiness * drag
motionX *= groundDrag
motionY *= drag
motionZ *= groundDrag
if (onGround) {
motionY *= -0.5
}
}
}
override def hitByEntity(entity: Entity) = {
if (isRunning) {
val direction = Vec3.createVectorHelper(entity.posX - posX, entity.posY + entity.getEyeHeight - posY, entity.posZ - posZ).normalize()
if (!world.isRemote) {
if (Settings.get.inputUsername)
machine.signal("hit", double2Double(direction.xCoord), double2Double(direction.zCoord), double2Double(direction.yCoord), entity.getCommandSenderName)
else
machine.signal("hit", double2Double(direction.xCoord), double2Double(direction.zCoord), double2Double(direction.yCoord))
}
motionX = (motionX - direction.xCoord) * 0.5f
motionY = (motionY - direction.yCoord) * 0.5f
motionZ = (motionZ - direction.zCoord) * 0.5f
}
super.hitByEntity(entity)
}
override def interactFirst(player: EntityPlayer) = {
if (player.isSneaking) {
kill()
}
else if (!world.isRemote) {
player.openGui(OpenComputers, GuiType.Drone.id, world, getEntityId, 0, 0)
}
true
}
// ----------------------------------------------------------------------- //
override def handleWaterMovement() = {
inWater = worldObj.handleMaterialAcceleration(boundingBox, Material.water, this)
inWater
}
override def readEntityFromNBT(nbt: NBTTagCompound) {
info.load(nbt.getCompoundTag("info"))
inventorySize = computeInventorySize()
if (!world.isRemote) {
machine.load(nbt.getCompoundTag("machine"))
control.load(nbt.getCompoundTag("control"))
components.load(nbt.getCompoundTag("components"))
inventory.load(nbt.getCompoundTag("inventory"))
wireThingsTogether()
}
targetX = nbt.getFloat("targetX")
targetY = nbt.getFloat("targetY")
targetZ = nbt.getFloat("targetZ")
targetAcceleration = nbt.getFloat("targetAcceleration")
selectedSlot = nbt.getByte("selectedSlot") & 0xFF
selectedTank = nbt.getByte("selectedTank") & 0xFF
statusText = nbt.getString("statusText")
}
override def writeEntityToNBT(nbt: NBTTagCompound) {
components.saveComponents()
info.storedEnergy = control.node.localBuffer.toInt
nbt.setNewCompoundTag("info", info.save)
if (!world.isRemote) {
nbt.setNewCompoundTag("machine", machine.save)
nbt.setNewCompoundTag("control", control.save)
nbt.setNewCompoundTag("components", components.save)
nbt.setNewCompoundTag("inventory", inventory.save)
}
nbt.setFloat("targetX", targetX)
nbt.setFloat("targetY", targetY)
nbt.setFloat("targetZ", targetZ)
nbt.setFloat("targetAcceleration", targetAcceleration)
nbt.setByte("selectedSlot", selectedSlot.toByte)
nbt.setByte("selectedTank", selectedTank.toByte)
nbt.setString("statusText", statusText)
}
}