T2.py

##############################################################################
## T2 version 2021-08-07
## T2 changes from PerfectWorld 2.06 (*not* 2.06f)
## 1) Ability to select climate
## 2) Ability to use fixed random seed
## 3) Remove mountains next to coast (fix coastside mountain ring bug)
## 4) Allow everyone to start on same landmass (biggest or 2nd biggest)
## 5) Have options for changing resource distribution
## 6) Note random seed on sign placed in the arctic
## 7) Ability to have bigger (192x128) or smaller (96x64) maps
## File: PerfectWorld.py version 2.06
## Author: Rich Marinaccio
## Copyright 2007 Rich Marinaccio
##
## This map script for Civ4 generates a random, earth-like map, usually with a
## 'New World' with no starting locations that can only be reached with
## ocean going technology. Though great pains are taken to accurately simulate
## landforms and climate, the goal must be to make unpredictible, beautiful
## looking maps that are fun to play on.
## 
## -- Summary of creation process: --
## First, a random heightfield is created using midpoint displacement. The
## resulting altitudes are then modified by a plate tectonics scheme that
## grows random plates and raises the altitudes near the plate borders to
## create mountain ranges and island chains.
##
## In generating the plot types from a heightmap, I had found that using
## peaks for high altitude and land for less altitude created large clusters
## of peaks, surrounded by a donut of hills, surrounded again by a donut of
## land. This looked absolutely terrible for Civ, so I made it such that
## peaks and hills are determined by altitude *differences* rather than by
## absolute altitude. This approach looks much better and more natural.
##
## The terrain generator gives the other needed visual cues to communicate
## altitude. Since air temperature gets colder with altitude, the peaks will
## be plots of ice and tundra, even near the equator, if the altitude
## is high enough. Prevailing winds, temperature and rainfall are all simulated
## in the terrain generator. You will notice that the deserts and rainforests
## are where they should be, as well as rain shadows behind mountain ranges.
##
## Rivers and lakes are also generated from the heightmap and follow accurate
## drainage paths, although with such a small heightmap some randomness needs
## to be thrown in to prevent rivers from being merely straight lines.
##
## Map bonuses are placed following the XML Rules but slightly differently than
## the default implimentation to better accomodate this map script.
##
## I've always felt that the most satisfying civ games are the ones that
## provide a use for those explorers and caravels. Though the map generator
## does not explicitly create a 'New World', it will take advantage of any
## continents that can serve that purpose. No starting locations will be placed
## on these continents. Therefore, the likelyhood of a significant new world
## is very high, but not guaranteed. It might also come in the form of multiple
## smaller 'New Worlds' rather than a large continent.
##
##############################################################################
## Version History
## 2.06 - Fixed a few bugs from my minimum hill/maximum bad feature function.
##
## 2.05 - Made maps of standard size and below a bit smaller. Changed the way I
## remove jungle to prevent excessive health problems. Tiles in FC on different
## continents have zero value. Tiles on different continents will not be boosted
## with resources or hills. Water tiles have zero value for non-coastal cities.
## Water tiles will not be boosted with resources for non-coastal cities, land
## tiles will be boosted instead. (lookout Sid's Sushi!)
##
## 2.04 - Changed many percent values to be a percent of land tiles rather than
## total map tiles for easier, more predictable adjustment. Ensured a minimum
## number of hills in a starting fat cross. Disabled the normalizeRemovePeaks
## function a replaced it with a maximum peaks in FC function. Added bonus
## resources to FC depending on player handicap. Added a value bonus for cities
## placed on river sides.
##
## 2.03 - Fixed an initialization problem related to Blue Marble. Added some
## enhanced error handling to help me track down some of the intermittant bugs
## that still remain.
##
## 2.02 - Fixed some problems with monsoons that were creating strange artifacts
## near the tropics. Added an exponential curve to heat loss due to altitude, so
## that jungles can appear more readily without crawling to inappropriate
## latitudes.
##
## 2.01 - Changed the way I handled a vanilla version difference. Added toroidal
## and flat map options. Made tree amount more easily adjustable. Added a variable to
## tune the level of resource bonuses. Changed the rules for fixing tundra/ice next
## to desert. Added altitude noise to the plate map to improve island chains. Added
## a variable to control heat loss due to high altitude. Implimented a new interleaved
## bonus placement scheme so that bonuses are placed individually in random order,
## rather than all of each bonus type at once. Brought back the meteor code from
## PerfectWorld 1 and eliminated the east/west continent divide.
##
## 2.0 - Rebuilt the landmass and climate model using the FaireWeather.py for
## Colonization map script engine. Improved the river system. Fixed some
## old bugs.
##
## 1.13 - Fixed a bug where starting on a goody hut would crash the game.
## Prevented start plots from being on mountain peaks. Changed an internal
## distance calculation from a straight line to a path distance, improving
## start locations somewhat. Created a new tuning variable called
## DesertLowTemp. Since deserts in civ are intended to be hot deserts, this
## variable will prevent deserts from appearing near the poles where the
## desert texture clashes horribly with the tundra texture.
##
## 1.12 - Found a small bug in the bonus placer that gave bonuses a minimum
## of zero, this is why duel size maps were having so much trouble.
##
## 1.11 - limited the features mixing with bonuses to forests only. This
## eliminates certain undesireable effects like floodplains being erased by
## or coinciding with oil or incense, or corn appearing in jungle.
##
## 1.10 - Wrapped all map constants into a class to avoid all those
## variables being loaded up when PW is not used. Also this makes it a
## little easier to change them programatically. Added two in-game options,
## New World Rules and Pangaea Rules. Added a tuning variable that allows
## bonuses with a tech requirement to co-exist with features, so that the
## absence of those features does not give away their location.
##
## 1.09 - Fixed a starting placement bug introduced in 1.07. Added a tuning
## variable to turn off 'New world' placement.
##
## 1.08 - Removed the hemispheres logic and replaced it with a simulated meteor
## shower to break up pangeas. Added a tuning variable to allow pangeas.
##
## 1.07 - Placing lakes and harbors after river placement was not updating river
## crossings. Resetting rivers after lake placement should solve this. Fixed a
## small discrepancy between Python randint and mapRand to make them behave the
## same way. Bonuses of the same bonus class, when forced to appear on the
## same continent, were sometimes crowding each other off the map. This was
## especially problematic on the smaller maps. I added some additional, less
## restrictive, passes to ensure that every resource has at least one placement
## unless the random factors decide that none should be placed. Starting plot
## normalization now will place food if a different bonus can not be used due
## to lack of food. Changed heightmap generation to more likely create a
## new world.
##
## 1.06 - Overhauled starting positions and resource placement to better
## suit the peculiarities of PerfectWorld
##
## 1.05 - Fixed the Mac bug and the multi-player bug.
##
## 1.04a - I had unfairly slandered getMapRand in my comments. I had stated
## that the period was shortened unnecessarily, which is not the case.
##
## 1.04 - Added and option to use the superior Python random number generator
## or the getMapRand that civ uses. Made the number of rivers generated tunable.
## Fixed a bug that prevented floodplains on river corners. Made floodplains
## in desert tunable.
##
## 1.03a - very minor change in hope of finding the source of a multi-player
## glitch.
##
## 1.03 - Improved lake generation. Added tuning variables to control some
## new features. Fixed some minor bugs involving the Areamap filler
## and fixed the issue with oasis appearing on lakes. Maps will now report
## the random seed value that was used to create them, so they can be easily
## re-created for debugging purposes.
##
## 1.02 - Fixed a bug that miscalculated the random placing of deserts. This
## also necessitated a readjustment of the default settings.
##
## 1.01 - Added global tuning variables for easier customization. Fixed a few
## bugs that caused deserts to get out of control.
##

from CvPythonExtensions import *
import CvUtil
import CvMapGeneratorUtil 

from array import array
from random import random,randint,seed
import math
import sys
import time
import os

class MapConstants :
    def __init__(self):
        return
    def initialize(self):
        print "Initializing map constants"
##############################################################################
## GLOBAL TUNING VARIABLES: Change these to customize the map results
       
        gc = CyGlobalContext()
        mmap = gc.getMap()

        # Default seed
        self.randomSeed = 0

        #Percent of land vs. water
        self.landPercent = 0.29
        
        #If this variable is set to False, a shower of colossal meteors will attempt to
        #break up any pangea-like continents. Setting this variable to True will allow
        #pangeas to sometimes occur and should be greatly favored by any dinosaurs
        #that might be living on this planet at the time.
        self.AllowPangeas = False

        #This variable can be used to turn off 'New world' logic and place starting
        #positions anywhere in the world. For some mods, a new world doesn't make
        #sense.
        self.AllowNewWorld = True
        self.ShareContinent = False
        self.ShareContinentIndex = 1
        
        #How many land squares will be above peak threshold and thus 'peaks'.
        self.PeakPercent = 0.12

        #How many land squares will be above hill threshold and thus 'hills' unless
        #they are also above peak threshold in which case they will be 'peaks'.
        self.HillPercent = 0.35

        #In addition to the relative peak and hill generation, there is also a
        #process that changes flats to hills or peaks based on altitude. This tends
        #to randomize the high altitude areas somewhat and improve their appearance.
        #These variables control the frequency of hills and peaks at the highest altitude.
        self.HillChanceAtOne = .50
        self.PeakChanceAtOne = .27

        #How many land squares will be below desert rainfall threshold. In this case,
        #rain levels close to zero are very likely to be desert, while rain levels close
        #to the desert threshold will more likely be plains.
        self.DesertPercent = 0.20

        #How many land squares will be below plains rainfall threshold. Rain levels close
        #to the desert threshold are likely to be plains, while those close to the plains
        #threshold are likely to be grassland. 
        self.PlainsPercent = 0.42
        
        #---The following variables are not based on percentages. Because temperature
        #---is so strongly tied to latitude, using percentages for things like ice and
        #---tundra leads to very strange results if most of the worlds land lies near
        #---the equator

        #What temperature will be considered cold enough to be ice. Temperatures range
        #from coldest 0.0 to hottest 1.0.
        self.SnowTemp = .30

        #What temperature will be considered cold enough to be tundra. Temperatures range
        #from coldest 0.0 to hottest 1.0.
        self.TundraTemp = .35

        #Hotter than this temperature will be considered deciduous forest, colder will
        #be evergreen forest.Temperatures range from coldest 0.0 to hottest 1.0.
        self.ForestTemp = .50

        #What temperature will be considered hot enough to be jungle. Temperatures range
        #from coldest 0.0 to hottest 1.0.
        self.JungleTemp = .7

        #Sets the threshold for jungle rainfall by modifying the plains threshold by this factor.
        self.TreeFactor = 1.5

        #This is the maximum chance for a tree to be placed when rainfall is above jungle level.
        #use a value between 0.0 and 1.0
        self.MaxTreeChance = 1.0

        #This variable adjusts the amount of bonuses on the map. Values above 1.0 will add bonus
        #bonuses. People often want lots of bonuses, and for those people, this variable is definately
        #a bonus.
        self.BonusBonus = 1.0
        # This determines if we use Perfect World's way of spreading
        # resources (False), or use a more normal resource distribution
        self.spreadResources = False
        
        #How many squares are added to a lake for each unit of drainage flowing
        #into it.
        self.LakeSizePerDrainage = 14.0

        #This value modifies LakeSizePerRiverLength when a lake begins in desert
        self.DesertLakeModifier = .60

        #This value controls the amount of siltification in lakes
        self.maxSiltPanSize = 200

        #This value controls the number of mid-altitude lake depressions per
        #map square. It will become a lake if enough water flows into the
        #depression.
        self.numberOfLakesPerPlot = 0.003

        #This value sets the minimum altitude of lake depressions. They
        #generally look better higher up.
        self.minLakeAltitude = 0.45
                
        #This value is used to decide if enough water has accumulated to form a river.
        #A lower value creates more rivers over the entire map.
        self.RiverThreshold = 4
        
        #The percent chance that an oasis may appear in desert. A tile must be desert and
        #surrounded on all sides by desert.
        self.OasisChance = .08

        #This sets the amount of heat lost at the highest altitude. 1.0 loses all heat
        #0.0 loses no heat.
        self.heatLostAtOne = 1.0
        
        #This value is an exponent that controls the curve associated with
        #temperature loss. Higher values create a steeper curve.
        self.temperatureLossCurve = 1.3
        
        #Degrees latitude for the top and bottom of the map. This allows
        #for more specific climate zones
        self.topLatitude = 90
        self.bottomLatitude = -90

        #Horse latitudes and polar fronts plus and minus in case you
        #want some zones to be compressed or emphasized.
        self.horseLatitude = 30
        self.polarFrontLatitude = 60

        #Tropics of Cancer and Capricorn plus and minus respectively
        self.tropicsLatitude = 23

        #Oceans are slow to gain and lose heat, so the max and min temps
        #are reduced and raised by this much.
        self.oceanTempClamp = .10

        #Minimum amount of rain dropped by default before other factors
        #add to the amount of rain dropped
        self.minimumRainCost = 0.01

        #Strength of geostrophic rainfall versus monsoon rainfall
        self.geostrophicFactor = 6.0

        #Monsoon uplift factor. This value is an ajustment so that monsoon uplift
        #matches geostrophic uplift.
        self.monsoonUplift = 500.0
        
        #Height and Width of main climate and height maps. This does not
        #reflect the resulting map size. Both dimensions( + 1 if wrapping in
        #that dimension = False) must be evenly divisble by self.hmMaxGrain
        # Note: The bigger map option may rewrite these values (see below)
        self.hmWidth = 144
        self.hmHeight = 97

        #Controls wrapping (not sure if this makes sense yet)
        self.WrapX = True
        self.WrapY = False
        
        #Size of largest map increment to begin midpoint displacement. Must
        #be a power of 2.
        self.hmMaxGrain = 16

        #Option to divide map into two continents as far as the midpoint
        #displacement is concerned. For guaranteed continent separation, further
        #steps will be needed but this option will cause more ocean in the
        #middle of the map. The possible choices are 0 = NO_SEPARATION,
        #1 = NORTH_SOUTH_SEPARATION and 2 = EAST_WEST_SEPARATION.
        self.hmSeparation = 0

        #Creates a water margin around the map edges. 
        self.northMargin = False
        self.southMargin = False
        self.eastMargin = False
        self.westMargin = False

        #If you sink the margins all the way to 0.0, they become too obvious.
        #This variable sets the maximum amount of sinking
        self.hmMarginDepth = 0.60

        #Margin of ocean around map edge when not wrapping and also through
        #middle when using separation.
        self.hmGrainMargin = 2

        #These are not mountain peaks, but points on the height map initialized
        #to 1.0 before the midpoint displacement process begins. This sets the
        #percentage of 'peaks' for points that are not on the grain margin.
        self.hmInitialPeakPercent = 0.30
        
        #Scales the heuristic for random midpoint displacement. A higher number
        #will create more noise(bumpy), a smaller number will make less
        #noise(smooth).
        self.hmNoiseLevel = 2.0

        #Number of tectonic plates
        self.hmNumberOfPlates = int(float(self.hmWidth * self.hmHeight) * 0.0016)

        #Influence of the plate map, or how much of it is added to the height map.
        self.plateMapScale = 1.1

        #Minimun distance from one plate seed to another
        self.minSeedRange = 15

        #Minimum distance from a plate seed to edge of map
        self.minEdgeRange = 5

        #Chance for plates to grow. Higher chance tends to make more regular
        #shapes. Lower chance makes more irregular shapes and takes longer.
        self.plateGrowthChanceX = 0.3
        self.plateGrowthChanceY = 0.3

        #This sets the amount that tectonic plates differ in altitude.
        self.plateStagger = 0.1

        #This sets the max amount a plate can be staggered up to on the heightmap
        self.plateStaggerRange = 1.0

        #This is the chance for a plate to sink into the water when it is on map edge
        self.chanceForWaterEdgePlate = 0.45
        
        #This is the frequency of the cosine ripple near plate boundaries.
        self.rippleFrequency = 0.5

        #This is the amplitude of the ripples near plate boundaries.
        self.rippleAmplitude = 0.75

        #This is the amount of noise added to the plate map.
        self.plateNoiseFactor = 1.2

        #Filter size for temperature smoothing. Must be odd number
        self.filterSize = 15

        #Filter size for altitude smoothing and distance finding. Must be
        #odd number
        self.distanceFilterSize = 5

        #It is necessary to eliminate small inland lakes during the initial
        #heightmap generation. Keep in mind this number is in relation to
        #the initial large heightmap (mc.hmWidth, mc.hmHeight) before the
        #shrinking process
        self.minInlandSeaSize = 100
        
        #After generating the heightmap, bands of ocean can be added to the map
        #to allow a more consistent climate generation. These bands are useful
        #if you are generating part of a world where the weather might be coming
        #in from off the map. These bands can be kept if needed or cropped off
        #later in the process.
        self.northWaterBand = 10
        self.southWaterBand = 10
        self.eastWaterBand = 0
        self.westWaterBand = 0

        #These variables are intended for use with the above water band variables
        #but you can crop the map edge after climate generation for any reason.
        self.northCrop = 10
        self.southCrop = 10
        self.eastCrop = 0
        self.westCrop = 0

        #Too many meteors will simply destroy the Earth, and just
        #in case the meteor shower can't break the pangaea, this will also
        #prevent and endless loop.
        self.maximumMeteorCount = 15
        
        #Minimum size for a meteor strike that attemps to break pangaeas.
        #Don't bother to change this it will be overwritten depending on
        #map size.
        self.minimumMeteorSize = 6      
        
        #---These values are for evaluating starting locations
        
        #Minimum number of hills in fat cross
        self.MinHillsInFC = 2

        #Max number of peaks in fat cross
        self.MaxPeaksInFC = 3

        #Max number of bad features(jungle) in fat cross
        self.MaxBadFeaturesInFC = 4

        #The following values are used for assigning starting locations. For now,
        #they have the same ratio that is found in CvPlot::getFoundValue
        self.CommerceValue = 20
        self.ProductionValue = 40
        self.FoodValue = 10

        #Coastal cities are important, how important is determined by this
        #value.
        self.CoastalCityValueBonus = 1.3

        #River side cities are also important, how important is determined by this
        #value.
        self.RiverCityValueBonus = 1.2
        
        #Bonus resources to add depending on difficulty settings
        self.SettlerBonus = 0
        self.ChieftainBonus = 0
        self.WarlordBonus = 0
        self.NobleBonus = 0
        self.PrinceBonus = 1
        self.MonarchBonus = 1
        self.EmperorBonus = 2
        self.ImmortalBonus = 2
        self.DeityBonus = 3
        
        #Decides whether to use the Python random generator or the one that is
        #intended for use with civ maps. The Python random has much higher precision
        #than the civ one. 53 bits for Python result versus 16 for getMapRand. The
        #rand they use is actually 32 bits, but they shorten the result to 16 bits.
        #However, the problem with using the Python random is that it may create
        #syncing issues for multi-player now or in the future, therefore it must
        #be optional.
        self.UsePythonRandom = True        
    
        # T2 change: Add the ability to select climate
        self.iceChance = 1.0 # Chance of having iceberg at top/bottom of map
        self.iceRange = 4 # Number of squares we add icebergs to
        self.iceSlope = 0.66 # How quickly we reduce icebergs
        clim = mmap.getClimate()
        if clim == 1: # Tropical
            self.tropicsLatitude = 46
            # q3max changes
            self.DesertPercent = .10 # added
            self.PlainsPercent = .30 # added
            self.SnowTemp = .20 # added
            self.TundraTemp = .30 # added
            self.ForestTemp = .35 # added
            self.JungleTemp = .50 # added
            # End q3max changes
            self.iceSlope = 0.33 # Less ice
        elif clim == 2: # Arid
            self.DesertPercent = 0.40
            self.PlainsPercent = 0.82
            self.iceSlope = 0.33 # Less ice
        elif clim == 3: # Rocky
            self.PeakPercent = 0.24
            self.HillPercent = 0.70
            self.HillChanceAtOne = 0.70
            self.PeakChanceAtOne = 0.43
            self.iceSlope = 0.75 # Some more ice
            self.iceRange = 6
        elif clim == 4: # Cold
            self.tropicsLatitude = 0
            self.SnowTemp = .50
            self.TundraTemp = .75
            self.ForestTemp = .85
            self.JungleTemp = .99
            self.iceRange = 12
            self.iceChance = 1.2
            self.iceSlope = 0.87 # Lots of ice

        #Below here are static defines. If you change these, the map won't work.
        #~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~
        self.L = 0
        self.N = 1
        self.S = 2
        self.E = 3
        self.W = 4
        self.NE = 5
        self.NW = 6
        self.SE = 7
        self.SW = 8

        self.NO_SEPARATION = 0
        self.NORTH_SOUTH_SEPARATION = 1
        self.EAST_WEST_SEPARATION = 2

        self.width = 104
        self.height = 64

        self.OCEAN = 0
        self.LAND = 1
        self.HILLS = 2
        self.PEAK = 3

        self.OCEAN = 0
        self.COAST = 1
        self.MARSH = 2
        self.GRASS = 3
        self.PLAINS = 4
        self.DESERT = 5
        self.TUNDRA = 6
        self.SNOW = 7

        self.minimumLandInChoke = 0.5

        return
    
    def initInGameOptions(self):
        gc = CyGlobalContext()
        mmap = gc.getMap()
        #New World Rules
        selectionID = mmap.getCustomMapOption(0)
        if selectionID == 1:
            self.AllowNewWorld = not self.AllowNewWorld
        if selectionID == 2: # Everyone on same landmass (largest)
            self.AllowNewWorld = True
            self.ShareContinent = True
        if selectionID == 3: # Everyone on same landmass (second largest)
            self.AllowNewWorld = True
            self.ShareContinent = True
            self.ShareContinentIndex = 2
        #Pangaea Rules
        selectionID = mmap.getCustomMapOption(1)
        if selectionID == 1:
            self.AllowPangeas = not self.AllowPangeas

        # Bigger maps option
        selectionID = mmap.getCustomMapOption(4)
        # Default size is 144 wide, 97 tall
        if selectionID == 1: # Big maps
            self.hmHeight = 129
            self.hmWidth = 192
        elif selectionID == 2: # Small maps
            self.hmHeight = 65
            self.hmWidth = 96
            self.hmNumberOfPlates = (int(
                     float(self.hmWidth * self.hmHeight) * 0.0016))

        #Wrap options
        selectionID = mmap.getCustomMapOption(2)
        wrapString = "Cylindrical"
        if selectionID == 1: #Toroidal
            self.hmHeight -= 1
            self.WrapY = True
            self.northWaterBand = 0
            self.northCrop = 0
            self.southWaterBand = 0
            self.southCrop = 0
            wrapString = "Toroidal"
            
        elif selectionID == 2: #Flat
            self.hmWidth += 1
            self.WrapX = False
            wrapString = "Flat"
          
        # How we distribute resources
        selectionID = mmap.getCustomMapOption(3)
        if selectionID == 0:
            self.BonusBonus = 1.5 # Increases resources
            self.spreadResources = True
        elif selectionID == 1: # Evenly spaced resources
            self.BonusBonus = 0.7 
            self.spreadResources = True
        elif selectionID == 2: # Like Perfect World
            self.BonusBonus = 1.0 
            self.spreadResources = False
        else:
            self.BonusBonus = 1.5 # Increases resources
            self.spreadResources = True

        # Do we use a fixed or random map seed?
        selectionID = mmap.getCustomMapOption(5)
        if selectionID == 1: # Fixed random seed
            self.randomSeed = 8939185639133313

        self.optionsString = "Map Options: \n"
        if self.AllowNewWorld:
            self.optionsString += "AllowNewWorld = true\n"
        else:
            self.optionsString += "AllowNewWorld = false\n"
        if self.AllowPangeas:
            self.optionsString += "AllowPangeas = true\n"
        else:
            self.optionsString += "AllowPangeas = false\n"
        self.optionsString += "Wrap Option = " + wrapString + "\n"

        return
    
mc = MapConstants()

class PythonRandom :
    def __init__(self):
        return
    def seed(self):
        #Python randoms are not usable in network games.
        if mc.UsePythonRandom:
            self.usePR = True
        else:
            self.usePR = False
        if self.usePR and CyGame().isNetworkMultiPlayer():
            print "Detecting network game. Setting UsePythonRandom to False."
            self.usePR = False
        if self.usePR:
            # Python 'long' has unlimited precision, while the random generator
            # has 53 bits of precision, so I'm using a 53 bit integer to seed the map!
            seed() #Start with system time
            seedValue = randint(0,9007199254740991)
            if mc.randomSeed == 0:
                seed(seedValue)
                mc.randomSeed = seedValue
            else:
                seed(mc.randomSeed)
                seedValue = mc.randomSeed
            self.seedString = "Random seed (Using Python rands) for this map is %(s)20d" % {"s":seedValue}
            
##            seedValue = 4316490043753041
##            seed(seedValue)
##            self.seedString = "Pre-set seed (Using Pyhon rands) for this map is %(s)20d" % {"s":seedValue}     
        else:
            gc = CyGlobalContext()
            self.mapRand = gc.getGame().getMapRand()
            
            seedValue = self.mapRand.get(65535,"Seeding mapRand - FairWeather.py")
            self.mapRand.init(seedValue)
            self.seedString = "Random seed (Using getMapRand) for this map is %(s)20d" % {"s":seedValue}            
            
##            seedValue = 56870
##            self.mapRand.init(seedValue)
##            self.seedString = "Pre-set seed (Using getMapRand) for this map is %(s)20d" % {"s":seedValue}
            
        print self.seedString
        return
    def random(self):
        if self.usePR:
            return random()
        else:
            #This formula is identical to the getFloat function in CvRandom. It
            #is not exposed to Python so I have to recreate it.
            fResult = float(self.mapRand.get(65535,"Getting float -FairWeather.py"))/float(65535)
#            print fResult
            return fResult
    def randint(self,rMin,rMax):
        #if rMin and rMax are the same, then return the only option
        if rMin == rMax:
            return rMin
        #returns a number between rMin and rMax inclusive
        if self.usePR:
            return randint(rMin,rMax)
        else:
            #mapRand.get() is not inclusive, so we must make it so
            return rMin + self.mapRand.get(rMax + 1 - rMin,"Getting a randint - FairWeather.py")
#Set up random number system for global access
PRand = PythonRandom()

################################################################################
## Global functions
################################################################################

def errorPopUp(message):
    gc = CyGlobalContext()
    iPlayerNum = 0
    for iPlayer in range(gc.getMAX_PLAYERS()):
        player = gc.getPlayer(iPlayer)
        if player.isAlive():
            iPlayerNum = iPlayerNum + 1
            if player.isHuman():
                text = message + "\n\n" + mc.optionsString + "\n" + PRand.seedString
                popupInfo = CyPopupInfo()
                popupInfo.setButtonPopupType(ButtonPopupTypes.BUTTONPOPUP_PYTHON)
                popupInfo.setText(text)
                popupInfo.setOnClickedPythonCallback("")
                popupInfo.addPythonButton("Ok","")
                popupInfo.addPopup(iPlayer)
                
#This function converts x and y to an index.
def GetIndex(x,y):
    #Check X for wrap
    if mc.WrapX == True:
        xx = x % mc.width
    elif x < 0 or x >= mc.width:
        return -1
    else:
        xx = x
    #Check y for wrap
    if mc.WrapY == True:
        yy = y % mc.height
    elif y < 0 or y >= mc.height:
        return -1
    else:
        yy = y

    i = yy * mc.width + xx
    return i

def GetHmIndex(x,y):
    #Check X for wrap
    if mc.WrapX == True:
        xx = x % mc.hmWidth
    elif x < 0 or x >= mc.hmWidth:
        return -1
    else:
        xx = x
    #Check y for wrap
    if mc.WrapY == True:
        yy = y % mc.hmHeight
    elif y < 0 or y >= mc.hmHeight:
        return -1
    else:
        yy = y

    i = yy * mc.hmWidth + xx
    return i

#Handles arbitrary size
def GetIndexGeneral(x,y,width,height):
    #Check X for wrap
    if mc.WrapX == True:
        xx = x % width
    elif x < 0 or x >= width:
        return -1
    else:
        xx = x
    #Check y for wrap
    if mc.WrapY == True:
        yy = y % height
    elif y < 0 or y >= height:
        return -1
    else:
        yy = y

    i = yy * width + xx
    return i


#This function scales a float map so that all values are between
#0.0 and 1.0.
def NormalizeMap(fMap,width,height):
    #find highest and lowest points
    maxAlt = 0.0
    minAlt = 0.0
    for y in range(height):
        for x in range(width):
            plot = fMap[GetIndexGeneral(x,y,width,height)]
            if plot > maxAlt:
                maxAlt = plot
            if plot < minAlt:
                minAlt = plot
    #normalize map so that all altitudes are between 1 and 0
    #first add minAlt to all values if necessary
    if minAlt < 0.0:
        for y in range(height):
            for x in range(width):
                fMap[GetIndexGeneral(x,y,width,height)] -= minAlt
    #add minAlt to maxAlt also before scaling entire map
    maxAlt -= minAlt
    scaler = 1.0/maxAlt
    for y in range(height):
        for x in range(width):
            fMap[GetIndexGeneral(x,y,width,height)] = fMap[GetIndexGeneral(x,y,width,height)] * scaler              
    return
def ShrinkMap(largeMap,lWidth,lHeight,sWidth,sHeight):
    smallMap = array('d')
    yScale = float(lHeight)/float(sHeight)
    xScale = float(lWidth)/float(sWidth)
    for y in range(sHeight):
        for x in range(sWidth):
##            print "x = %d, y = %d" % (x,y)
            weights = 0.0
            contributors = 0.0
            yyStart = int(y * yScale)
            yyStop = int((y + 1) * yScale)
            if yyStop < ((y + 1) * yScale):
                yyStop += 1
            for yy in range(yyStart,yyStop):
                xxStart = int(x * xScale)
                xxStop = int((x + 1) * xScale)
                if xxStop < ((x + 1) * xScale):
                    xxStop += 1
                for xx in range(xxStart,xxStop):
##                    print "  xx = %d, yy = %d" % (xx,yy)
                    weight = GetWeight(x,y,xx,yy,xScale,yScale)
##                    print "  weight = %f" % weight
                    i = yy * lWidth + xx
##                    print "  i = %d" % i
                    contributor = largeMap[i]
##                    print "  contributer = %f" % contributor
                    weights += weight
                    contributors += weight * contributor
##            print " final height = %f" % (contributors/weights)        
            smallMap.append(contributors/weights)
                    
    return smallMap
def GetWeight(x,y,xx,yy,xScale,yScale):
    xWeight = 1.0
##    print "   xScale = %f" % xScale
##    print "   x * xScale = %f, xx = %f" % ((x * xScale),xx)
    if float(xx) < x * xScale:
##        print "   first"
        xWeight = 1.0 - ((x * xScale) - float(xx))
    elif float(xx + 1) > (x + 1) * xScale:
##        print "   second"
        xWeight = ((x + 1) * xScale) - float(xx)
##    print "   xWeight = %f" % xWeight
        
    yWeight = 1.0
##    print "   yScale = %f" % yScale
##    print "   y * yScale = %f, yy = %f" % ((y * yScale),yy)
    if float(yy) < y * yScale:
##        print "   first"
        yWeight = 1.0 - ((y * yScale) - float(yy))
    elif float(yy + 1) > (y + 1) * yScale:
##        print "   second"
        yWeight = ((y + 1) * yScale) - float(yy)
##    print "   yWeight = %f" % yWeight
        
    return xWeight * yWeight

def CropMap(theMap):
    newMap = array('d')
    for y in range(mc.hmHeight):
        if y < mc.southCrop or y >= mc.hmHeight - mc.northCrop:
            continue
        for x in range(mc.hmWidth):
            if x < mc.westCrop or x >= mc.hmWidth - mc.eastCrop:
                continue
            i = GetHmIndex(x,y)
            newMap.append(theMap[i])
    return newMap

def AngleDifference(a1,a2):
    diff = a1 - a2
    while(diff < -180.0):
        diff += 360.0
    while(diff > 180.0):
        diff -= 360.0
    return diff
def AppendUnique(theList,newItem):
    if IsInList(theList,newItem) == False:
        theList.append(newItem)
    return

def IsInList(theList,newItem):
    itemFound = False
    for item in theList:
        if item == newItem:
            itemFound = True
            break
    return itemFound

def DeleteFromList(theList,oldItem):
    for n in range(len(theList)):
        if theList[n] == oldItem:
            del theList[n]
            break
    return  
    
def ShuffleList(theList):
        preshuffle = list()
        shuffled = list()
        numElements = len(theList)
        for i in range(numElements):
            preshuffle.append(theList[i])
        for i in range(numElements):
                n = PRand.randint(0,len(preshuffle)-1)
                shuffled.append(preshuffle[n])
                del preshuffle[n]
        return shuffled
    
def GetInfoType(string):
	cgc = CyGlobalContext()
	return cgc.getInfoTypeForString(string)
    
def GetDistance(x,y,dx,dy):
    distance = math.sqrt(abs((float(x - dx) * float(x - dx)) + (float(y - dy) * float(y - dy))))
    return distance

def GetOppositeDirection(direction):
    opposite = mc.L
    if direction == mc.N:
        opposite = mc.S
    elif direction == mc.S:
        opposite = mc.N
    elif direction == mc.E:
        opposite = mc.W
    elif direction == mc.W:
        opposite = mc.E
    elif direction == mc.NW:
        opposite = mc.SE
    elif direction == mc.SE:
        opposite = mc.NW
    elif direction == mc.SW:
        opposite = mc.NE
    elif direction == mc.NE:
        opposite = mc.SW
    return opposite

def GetXYFromDirection(x,y,direction):
    xx = x
    yy = y
    if direction == mc.N:
        yy += 1
    elif direction == mc.S:
        yy -= 1
    elif direction == mc.E:
        xx += 1
    elif direction == mc.W:
        xx -= 1
    elif direction == mc.NW:
        yy += 1
        xx -= 1
    elif direction == mc.NE:
        yy += 1
        xx += 1
    elif direction == mc.SW:
        yy -= 1
        xx -= 1
    elif direction == mc.SE:
        yy -= 1
        xx += 1
    return xx,yy    

##This function is a general purpose value tuner. It finds a value that will be greater
##than or less than the desired percent of a whole map within a given tolerance. Map values
##should be between 0 and 1. To exclude parts of the map, set them to value 0.0
def FindValueFromPercent(mmap,width,height,percent,tolerance,greaterThan):
    inTolerance = False
    #to speed things up a little, lets take some time to find the middle value
    #in the dataset and use that to begin our search
    minV = 100.0
    maxV = 0.0
    totalCount = 0
    for i in range(height*width):
        if mmap[i] != 0.0:
            totalCount += 1
            if minV > mmap[i]:
                minV = mmap[i]
            if maxV < mmap[i]:
                maxV = mmap[i]
    mid = (maxV - minV)/2.0 + minV
    overMinCount = 0
    equalMinCount = 0
    for i in range(height*width):
        if mmap[i] > minV:
            overMinCount += 1
        elif mmap[i] == minV:
            equalMinCount += 1
##    print "--------------------------------------------------------------"
##    print "totalCount = %d" % totalCount
##    print "overMinCount = %d" % overMinCount
##    print "equalMinCount = %d" % equalMinCount
##    print "starting threshold = %f" % mid
##    print "desired percent = %f" % percent
##    print "minV = %f, maxV = %f" % (minV,maxV)
    
    threshold = mid
    thresholdChange = mid
    iterations = 0
    lastAdded = False
    while not inTolerance:
        iterations += 1
        if(iterations > 500):
            print "can't find value within tolerance, end value = "
            print "threshold = %f, thresholdChange = %f" % (threshold, thresholdChange)
            break #close enough
        matchCount = 0
        for i in range(height*width):
            if mmap[i] != 0.0:
                if greaterThan == True:
                    if(mmap[i] > threshold):
                        matchCount += 1
                else:
                    if(mmap[i] < threshold):  
                        matchCount += 1
##        print "current threshold = %f" % threshold
##        print "current thresholdChange = %f" % thresholdChange
##        print "matchCount = %d" % matchCount
        currentPercent = float(matchCount)/float(totalCount)
##        print "currentPercent = %f" % currentPercent
        if currentPercent < percent + tolerance and \
           currentPercent > percent - tolerance:
            inTolerance = True
        elif greaterThan == True:
            if currentPercent < percent:
##                print "threshold subtract"
                threshold -= thresholdChange
                if lastAdded:
                    #only cut thresholdChange when direction is changed
                    thresholdChange = thresholdChange/2.0
                lastAdded = False
            else:
##                print "threshold add"
                threshold += thresholdChange
                if not lastAdded:
                    thresholdChange = thresholdChange/2.0
                lastAdded = True
        else:
            if currentPercent > percent:
##                print "threshold subtract"
                threshold -= thresholdChange
                if lastAdded:
                    #only cut thresholdChange when direction is changed
                    thresholdChange = thresholdChange/2.0
                lastAdded = False
            else:
##                print "threshold add"
                threshold += thresholdChange
                if not lastAdded:
                    thresholdChange = thresholdChange/2.0
                lastAdded = True
##        print "--------------"

        #at this point value should be in tolerance or close to it
##    print "^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^"
    return threshold
def isWaterMatch(x,y):
    result = hm.isBelowSeaLevel(x,y)
##    print "match function results - x = %d,y = %d,result = %d" % (x,y,result)
    return result

class HeightMap :
    def __init__(self):
        return
    
    def generateHeightMap(self):
        self.heightMap = array('d')
        for i in range(mc.hmWidth * mc.hmHeight):
            self.heightMap.append(0.0)

        self.generateMidpointDisplacement()
        return
    
    def checkMaxGrain(self):
        #hm map dimensions(minus 1 if no wrapping) must be evenly divisible
        #by max grain
        ok = True
        width = mc.hmWidth
        height = mc.hmHeight
        if mc.WrapX == False:
            width -= 1
        if mc.WrapY == False:
            height -= 1
            
        if 0 != width % mc.hmMaxGrain:
            ok = False
        if 0 != height % mc.hmMaxGrain:
            ok = False

        if ok == False:
            raise ValueError, "height map dimesions not divisible by mc.hmMaxGrain. also check wrapping options"
            
        return

    def isPlotOnMargin(self,x,y):
        #first check top and bottom
        if mc.southMargin == True:
            if y < (mc.hmMaxGrain * mc.hmGrainMargin):
                return True
        if mc.northMargin == True:
            if y > (mc.hmHeight - (mc.hmMaxGrain * mc.hmGrainMargin)):
                return True
        #check right and left
        if mc.westMargin == True:
            if x < (mc.hmMaxGrain * mc.hmGrainMargin):
                return True
        if mc.eastMargin == True:
            if x > (mc.hmWidth - (mc.hmMaxGrain * mc.hmGrainMargin)):
                return True

        #now check middle
        if mc.hmSeparation != mc.NO_SEPARATION:
            if mc.hmSeparation == mc.NORTH_SOUTH_SEPARATION:
                dimension = y
                middle = mc.hmHeight/2
            elif mc.hmSeparation == mc.EAST_WEST_SEPARATION:
                dimension = x
                middle = mc.hmWidth/2
            else:
                raise ValueError, "bad hmSeparation type"

            if dimension > middle - (mc.hmMaxGrain * mc.hmGrainMargin) \
            and dimension < middle + (mc.hmMaxGrain * mc.hmGrainMargin):
                return True

        return False
    
    def generateMidpointDisplacement(self):
        self.checkMaxGrain()
        
        #make list of map plots that aren't on margin for each
        #map quadrant. We want to place the initial peaks randomly, but we
        #also want to ensure fairly even distribution so that
        #not all the peaks are on one side of the map. For this purpose
        #we will treat each map quadrant separately.

        peaksNWList = list()
        peaksNEList = list()
        peaksSWList = list()
        peaksSEList = list()
        middleX = mc.hmWidth/2
        middleY = mc.hmHeight/2
        for y in range(0,mc.hmHeight,mc.hmMaxGrain):
            for x in range(0,mc.hmWidth,mc.hmMaxGrain):
                if not self.isPlotOnMargin(x,y):
                    if x < middleX and y < middleY:
                        peaksSWList.append((x,y))
                    elif x >= middleX and y < middleY:
                        peaksSEList.append((x,y))
                    elif x < middleX and y >= middleY:
                        peaksNWList.append((x,y))
                    elif x >= middleX and y >= middleY:
                        peaksNEList.append((x,y))
        #shuffle the lists
        peaksNWList = ShuffleList(peaksNWList)
        peaksNEList = ShuffleList(peaksNEList)
        peaksSWList = ShuffleList(peaksSWList)
        peaksSEList = ShuffleList(peaksSEList)

        #place desired number of peaks in each quadrant
        totalNonMargin = len(peaksNWList)
        totalNonMargin += len(peaksNEList)
        totalNonMargin += len(peaksSWList)
        totalNonMargin += len(peaksSEList)
        
        count = max(1,int(float(totalNonMargin) * mc.hmInitialPeakPercent * 0.25))
        print "peak count = %d" % (count)
        for n in range(count):
            x,y = peaksNWList[n]
            i = GetHmIndex(x,y)
            self.heightMap[i] = 1.0
            print "%d,%d = 1.0" % (x,y)
            
            x,y = peaksNEList[n]
            i = GetHmIndex(x,y)
            self.heightMap[i] = 1.0
            
            x,y = peaksSWList[n]
            i = GetHmIndex(x,y)
            self.heightMap[i] = 1.0
            
            x,y = peaksSEList[n]
            i = GetHmIndex(x,y)
            self.heightMap[i] = 1.0
            
        self.printInitialPeaks()

        #Now use a diamond-square algorithm(sort of) to generate the rest
        currentGrain = float(mc.hmMaxGrain)
        while currentGrain > 1.0:
            #h is scalar for random displacement
            h = (currentGrain/float(mc.hmMaxGrain)) * float(mc.hmNoiseLevel)
            #First do the 'square' pass
            for y in range(0,mc.hmHeight,int(currentGrain)):
                for x in range(0,mc.hmWidth,int(currentGrain)):
                    #on the square pass, GetHmIndex should handle all wrapping needs
                    topLeft = GetHmIndex(x,y)
                    topRight = GetHmIndex(x + int(currentGrain),y)
                    if topRight == -1:
                        continue #this means no wrap in x direction
                    bottomLeft = GetHmIndex(x,y + int(currentGrain))
                    if bottomLeft == -1:
                        continue #this means no wrap in y direction
                    bottomRight = GetHmIndex(x + int(currentGrain),y + int(currentGrain))
                    middle = GetHmIndex(x + int(currentGrain/2.0),y + int(currentGrain/2.0))
                    average = (self.heightMap[topLeft] + self.heightMap[topRight] \
                    + self.heightMap[bottomLeft] + self.heightMap[bottomRight])/4.0
                    displacement = h * PRand.random() - h/2.0
                    self.heightMap[middle] = average + displacement
                    #now add that heuristic to the four points to diminish
                    #artifacts. We don't need this on the diamond pass I don't think
                    displacement = h * PRand.random() - h/2.0
                    self.heightMap[topLeft] += displacement
                    displacement = h * PRand.random() - h/2.0
                    self.heightMap[topRight] += displacement
                    displacement = h * PRand.random() - h/2.0
                    self.heightMap[bottomLeft] += displacement
                    displacement = h * PRand.random() - h/2.0
                    self.heightMap[bottomRight] += displacement
            #Now do the 'diamond' pass, there are two diamonds for each x.
            #Possible wrapping is a big complication on this pass. Sorry!
            for y in range(0,mc.hmHeight,int(currentGrain)):
                for x in range(0,mc.hmWidth,int(currentGrain)):
                    #first do the right facing diamond
                    left = GetHmIndex(x,y)
                    right = GetHmIndex(x + int(currentGrain),y)
                    if right != -1: #if we're off map at this point go to next diamond
                        average = self.heightMap[left] + self.heightMap[right]
                        contributers = 2 #each diamond may have two or three contributers, 2 so far
                        top = GetHmIndex(x + int(currentGrain/2.0),y - int(currentGrain/2.0))
                        if top != -1:
                            contributers += 1
                            average += self.heightMap[top]
                        bottom = GetHmIndex(x + int(currentGrain/2.0),y + int(currentGrain/2.0))
                        if bottom != -1:
                            contributers += 1
                            average += self.heightMap[bottom]
                        average = average/float(contributers)
                        middle = GetHmIndex(x + int(currentGrain/2.0),y)
                        displacement = h * PRand.random() - h/2.0
                        self.heightMap[middle] = average + displacement
                    #now do the down facing diamond
                    top = GetHmIndex(x,y)
                    bottom = GetHmIndex(x,y + int(currentGrain))
                    if bottom != -1:
                        average = self.heightMap[top] + self.heightMap[bottom]
                        contributers = 2
                        right = GetHmIndex(x + int(currentGrain/2.0),y + int(currentGrain/2.0))
                        if right != -1:
                            contributers += 1
                            average += self.heightMap[right]
                        left = GetHmIndex(x - int(currentGrain/2.0),y + int(currentGrain/2.0))
                        if left != -1:
                            contributers += 1
                            average += self.heightMap[left]
                        average = average/float(contributers)
                        middle = GetHmIndex(x,y + int(currentGrain/2.0))
                        displacement = h * PRand.random() - h/2.0
                        self.heightMap[middle] = average + displacement
                        
            currentGrain = currentGrain/2.0

        NormalizeMap(self.heightMap,mc.hmWidth,mc.hmHeight)
        
        return
    
    def performTectonics(self):
        self.plateMap = list()
        borderMap = array('i')#this will help in later distance calculations
        self.plateHeightMap = array('d')
        preSmoothMap = array('d')
        growthPlotList = list()
        plateList = list()
        maxDistance = math.sqrt(pow(float(mc.distanceFilterSize/2),2) + pow(float(mc.distanceFilterSize/2),2))
        #initialize maps
        for y in range(mc.hmHeight):
            for x in range(mc.hmWidth):
                i = GetHmIndex(x,y)
                self.plateMap.append(PlatePlot(0,maxDistance))
                borderMap.append(False)
                self.plateHeightMap.append(0.0)
                preSmoothMap.append(0.0)

        plateList.append(Plate(0,-1,-1))#zero placeholder (very silly I know)
        #seed plates
        for i in range(1,mc.hmNumberOfPlates + 1):
            #first find a random seed point that is not blocked by
            #previous points
            iterations = 0
            while(True):
                iterations += 1
                if iterations > 10000:
                    raise ValueError, "endless loop in region seed placement"
                seedX = PRand.randint(0,mc.hmWidth + 1)
                seedY = PRand.randint(0,mc.hmHeight + 1)
                n = GetHmIndex(seedX,seedY)
                if self.isSeedBlocked(plateList,seedX,seedY) == False:
                    self.plateMap[n].plateID = i
                    plate = Plate(i,seedX,seedY)
                    plateList.append(plate)
                    #Now fill a 3x3 area to insure a minimum region size
                    for direction in range(1,9,1):
                        xx,yy = GetXYFromDirection(seedX,seedY,direction)
                        nn = GetHmIndex(xx,yy)
                        if nn != -1:
                            self.plateMap[nn].plateID = i
                            plot = (xx,yy,i)
                            growthPlotList.append(plot)

                    break
                
##        self.printPlateMap(self.plateMap)
        
        #Now cause the seeds to grow into plates
        iterations = 0
        while(len(growthPlotList) > 0):
            iterations += 1
            if iterations > 200000:
                self.printPlateMap(self.plateMap)
                print "length of growthPlotList = %d" % (len(growthPlotList))
                raise ValueError, "endless loop in plate growth"
            plot = growthPlotList[0]
            roomLeft = False
            for direction in range(1,5,1):
                x,y,plateID = plot
                i = GetHmIndex(x,y)
                xx,yy = GetXYFromDirection(x,y,direction)
                ii = GetHmIndex(xx,yy)
                if ii == -1:
                    plateList[plateID].isOnMapEdge = True
                    continue
                if self.plateMap[ii].plateID != plateID and self.plateMap[ii].plateID != 0:
                    borderMap[i] = True
                    borderMap[ii] = True                   
                elif self.plateMap[ii].plateID == 0:
                    roomLeft = True
                    if direction == mc.N or direction == mc.S:
                        growthChance = mc.plateGrowthChanceY
                    else:
                        growthChance = mc.plateGrowthChanceX
                    if PRand.random() < growthChance:
                        self.plateMap[ii].plateID = plateID
                        newPlot = (xx,yy,plateID)
                        growthPlotList.append(newPlot)
                
                    
            #move plot to the end of the list if room left, otherwise
            #delete it if no room left
            if roomLeft:
                growthPlotList.append(plot)
            del growthPlotList[0]
                            
##        self.printPlateMap(self.plateMap)

        #to balance the map we want at least one plate stagger upward
        #in each quadrant
        NWfound = False
        NEfound = False
        SEfound = False
        SWfound = False
        for plate in plateList:
            if plate.GetQuadrant() == plate.NW and NWfound == False:
                plate.raiseOnly = True
                NWfound = True
            if plate.GetQuadrant() == plate.NE and NEfound == False:
                plate.raiseOnly = True
                NEfound = True
            if plate.GetQuadrant() == plate.SE and SEfound == False:
                plate.raiseOnly = True
                SEfound = True
            if plate.GetQuadrant() == plate.SW and SWfound == False:
                plate.raiseOnly = True
                SWfound = True
        
        #Stagger the plates somewhat to add interest
        steps = int(mc.plateStaggerRange/mc.plateStagger)
        for i in range(0,mc.hmHeight*mc.hmWidth):
            if plateList[self.plateMap[i].plateID].isOnMapEdge and PRand.random() < mc.chanceForWaterEdgePlate:
                preSmoothMap[i] = 0.0
            elif plateList[self.plateMap[i].plateID].raiseOnly:
                preSmoothMap[i] = (float(self.plateMap[i].plateID % steps) * mc.plateStagger)/2.0 + 0.5               
            else:
                preSmoothMap[i] = float(self.plateMap[i].plateID % steps) * mc.plateStagger

##        self.printPreSmoothMap(preSmoothMap)

        #Now smooth the plate height map and create the distance map at the same time
        #Since the algorithm is the same
        for y in range(0,mc.hmHeight):
            for x in range(0,mc.hmWidth):
                contributers = 0
                avg = 0
                i = GetHmIndex(x,y)
                isBorder = False
                if borderMap[i] == True:
                    isBorder = True
                plateID = self.plateMap[i].plateID
                for yy in range(y - mc.distanceFilterSize/2,y + mc.distanceFilterSize/2 + 1,1):
                    for xx in range(x - mc.distanceFilterSize/2,x + mc.distanceFilterSize/2 + 1,1):
                        ii = GetHmIndex(xx,yy)
                        if ii == -1:
                            continue
                        contributers += 1
                        avg += preSmoothMap[ii]
                        if isBorder and plateID != self.plateMap[ii].plateID:
                            distance = math.sqrt(pow(float(y - yy),2) + pow(float(x - xx),2))
                            if distance < self.plateMap[ii].distanceList[plateID]:
                                self.plateMap[ii].distanceList[plateID] = distance
                avg = avg/float(contributers)
                self.plateHeightMap[i] = avg
                
##        self.printPlateHeightMap()
#        self.printDistanceMap(distanceMap,maxDistance)

        #Now add ripple formula to plateHeightMap
        for i in range(mc.hmWidth*mc.hmHeight):
            avgRippleTop = 0.0
            avgRippleBottom = 0.0
            for plateID in range(1,mc.hmNumberOfPlates + 1):
                distanceWeight = maxDistance - self.plateMap[i].distanceList[plateID]
#                print "a1 = %f, a2 = %f" % (plateList[self.plateMap[i].plateID].angle,plateList[plateID].angle)
                if plateList[plateID].seedX < plateList[self.plateMap[i].plateID].seedX:
                    angleDifference = AngleDifference(plateList[self.plateMap[i].plateID].angle,plateList[plateID].angle)
                else:
                    angleDifference = AngleDifference(plateList[plateID].angle,plateList[self.plateMap[i].plateID].angle)
#                print angleDifference
                ripple = (pow(math.cos(mc.rippleFrequency * self.plateMap[i].distanceList[plateID]) * \
                (-self.plateMap[i].distanceList[plateID]/maxDistance + 1),2) + (-self.plateMap[i].distanceList[plateID]/maxDistance + 1)) \
                * mc.rippleAmplitude * math.sin(math.radians(angleDifference))
                avgRippleTop += (ripple * distanceWeight)
                avgRippleBottom += distanceWeight
            if avgRippleBottom == 0.0:
                avgRipple = 0.0
            else:
                avgRipple = avgRippleTop/avgRippleBottom
            self.plateHeightMap[i] += avgRipple - (avgRipple * PRand.random() * mc.plateNoiseFactor)
            
        NormalizeMap(self.plateHeightMap,mc.hmWidth,mc.hmHeight)
##        self.printPlateHeightMap()


    def combineMaps(self):                    
        #Now add plateHeightMap to HeightMap
        for i in range(mc.hmWidth * mc.hmHeight):
            self.heightMap[i] += self.plateHeightMap[i] * mc.plateMapScale

        #depress margins, this time with brute force
        marginSize = mc.hmMaxGrain * mc.hmGrainMargin
        for y in range(mc.hmHeight):
            for x in range(mc.hmWidth):
                i = GetHmIndex(x,y)
                if mc.westMargin == True:
                    if x < marginSize:
                        self.heightMap[i] *= (float(x)/float(marginSize)) * (1.0 - mc.hmMarginDepth) + mc.hmMarginDepth
                if mc.eastMargin == True:
                    if mc.hmWidth - x < marginSize:
                        self.heightMap[i] *= (float(mc.hmWidth - x)/float(marginSize)) * (1.0 - mc.hmMarginDepth) + mc.hmMarginDepth
                if mc.southMargin == True:
                    if y < marginSize:
                        self.heightMap[i] *= (float(y)/float(marginSize)) * (1.0 - mc.hmMarginDepth) + mc.hmMarginDepth
                if mc.northMargin == True:
                    if mc.hmHeight - y < marginSize:
                        self.heightMap[i] *= (float(mc.hmHeight - y)/float(marginSize)) * (1.0 - mc.hmMarginDepth) + mc.hmMarginDepth

                if mc.hmSeparation == mc.NORTH_SOUTH_SEPARATION:
                    difference = abs((mc.hmHeight/2) - y)
                    if difference < marginSize:
                        self.heightMap[i] *= (float(difference)/float(marginSize)) * (1.0 - mc.hmMarginDepth) + mc.hmMarginDepth

                elif mc.hmSeparation == mc.EAST_WEST_SEPARATION:
                    difference = abs((mc.hmWidth/2) - x)
                    if difference < marginSize:
                        self.heightMap[i] *= (float(difference)/float(marginSize)) * (1.0 - mc.hmMarginDepth) + mc.hmMarginDepth
                        
##        #Now lets square the heightmap to simulate erosion
##        for i in range(mc.hmWidth * mc.hmHeight):
##            self.heightMap[i] = self.heightMap[i] * self.heightMap[i]

        NormalizeMap(self.heightMap,mc.hmWidth,mc.hmHeight)

    def addWaterBands(self):
        #validate water bands. Maps that wrap cannot have one in that direction
        if mc.WrapX and (mc.eastWaterBand != 0 or mc.westWaterBand != 0):
            raise ValueError,"east/west water bands cannot be used when wrapping in X direction."
        if mc.WrapY and (mc.northWaterBand != 0 or mc.southWaterBand != 0):
            raise ValueError,"north/south water bands cannot be used when wrapping in Y direction."
        
        newWidth = mc.hmWidth + mc.eastWaterBand + mc.westWaterBand
        newHeight = mc.hmHeight + mc.northWaterBand + mc.southWaterBand
        newHeightMap = array('d')
        for y in range(newHeight):
            for x in range(newWidth):
                oldX = x - mc.westWaterBand
                oldY = y - mc.southWaterBand
#                i = GetIndexGeneral(x,y,newWidth,newHeight)
                ii = GetHmIndex(oldX,oldY)
                if ii == -1:
                    newHeightMap.append(0.0)
                else:
                    newHeightMap.append(self.heightMap[ii])

        mc.hmWidth = newWidth
        mc.hmHeight = newHeight
        self.heightMap = newHeightMap
        
    def calculateSeaLevel(self):
        self.seaLevel = FindValueFromPercent(self.heightMap,mc.hmWidth,mc.hmHeight,mc.landPercent,0.02,True)
        return
    
    def isBelowSeaLevel(self,x,y):
        i = GetHmIndex(x,y)
##        print "heightMap = %f at %d,%d" % (self.heightMap[i],x,y)
##        print "seaLevel = %f" % self.seaLevel
        if self.heightMap[i] < self.seaLevel:
##            print "True"
            return True
##        print "False"
        return False
    
    ## This function returns altitude in relation to sea level with
    ## 0.0 being seaLevel and 1.0 being highest altitude
    def getAltitudeAboveSeaLevel(self,x,y):
        i = GetHmIndex(x,y)
        if i == -1:
            return 0.0
        altitude = self.heightMap[i]
        if altitude < self.seaLevel:
            return 0.0
        altitude = 1.0/(1.0 - self.seaLevel) * (altitude - self.seaLevel)
        return altitude

    def setAltitudeAboveSeaLevel(self,x,y,altitude):
        i = GetHmIndex(x,y)
        if i == -1:
            return
        self.heightMap[i] = ((1.0 - self.seaLevel) * altitude) + self.seaLevel
        
##    def Erode(self):
##        for y in range(mc.hmHeight):
##            for x in range(mc.hmWidth):
##                alt = self.getAltitudeAboveSeaLevel(x,y)
##                if alt > 0:
##                    eroded = pow(alt,mc.erosionPower)
##                    self.setAltitudeAboveSeaLevel(x,y,eroded)
                
    def isSeedBlocked(self,plateList,seedX,seedY):
        for plate in plateList:
            if seedX > plate.seedX - mc.minSeedRange and seedX < plate.seedX + mc.minSeedRange:
                if seedY > plate.seedY - mc.minSeedRange and seedY < plate.seedY + mc.minSeedRange:
                    return True
        #Check for edge
        if seedX < mc.minEdgeRange or seedX >= (mc.hmWidth + 1) - mc.minEdgeRange:
            return True
        if seedY < mc.minEdgeRange or seedY >= (mc.hmHeight + 1) - mc.minEdgeRange:
            return True
        return False
    def GetInfluFromDistance(self,sinkValue,peakValue,searchRadius,distance):
        influence = peakValue
        maxDistance = math.sqrt(pow(float(searchRadius),2) + pow(float(searchRadius),2))
        #minDistance = 1.0
        influence -= ((peakValue - sinkValue)* (distance - 1.0))/(maxDistance - 1.0)
        return influence
    def FindDistanceToPlateBoundary(self,x,y,searchRadius):
        minDistance = 10.0
        i = self.GetIndex(x,y)
        for yy in range(y - searchRadius,y + searchRadius):
            for xx in range(x - searchRadius,x + searchRadius):
                ii = self.GetIndex(xx,yy)
                if self.plateMap[i] != self.plateMap[ii]:
                    distance = math.sqrt(pow(float(xx-x),2) + pow(float(yy-y),2))
                    if distance < minDistance:
                        minDistance = distance
                           
        if minDistance == 10.0:
            return 0.0
        
        return minDistance
    
    def fillInLakes(self):
        #smaller lakes need to be filled in for now. The river system will
        #most likely recreate them later due to drainage calculation
        #according to certain rules. This makes the lakes look much better
        #and more sensible.
        am = Areamap(mc.hmWidth,mc.hmHeight,True,True)
        am.defineAreas(isWaterMatch)
##        am.PrintAreaMap()
        oceanID = am.getOceanID()
        for y in range(mc.hmHeight):
            for x in range(mc.hmWidth):
                i = GetHmIndex(x,y)
                if self.isBelowSeaLevel(x,y) and am.areaMap[i] != oceanID:
                    #check the size of this body of water, if too small,
                    #change to land
                    for a in am.areaList:
                        if a.ID == am.areaMap[i] and a.size < mc.minInlandSeaSize:
                            self.heightMap[i] = self.seaLevel
        
        return
    
    def printInitialPeaks(self):
        lineString = "midpoint displacement peaks and margins"
        print lineString
        if not mc.WrapY:
            adjustedHeight = mc.hmHeight - 1
        else:
            adjustedHeight = mc.hmHeight - mc.hmMaxGrain
        for y in range(adjustedHeight,-1,-mc.hmMaxGrain):
            lineString = ""
            for x in range(0,mc.hmWidth,mc.hmMaxGrain):
                i = GetHmIndex(x,y)
                if self.isPlotOnMargin(x,y):
                    lineString += "*"
                elif self.heightMap[i] == 1.0:
                    lineString += "1"
                elif self.heightMap[i] == 0.0:
                    lineString += "0"
            print lineString
        lineString = " "
        print lineString
        
    def printHeightMap(self):
        lineString = "Height Map"
        print lineString
        for y in range(mc.hmHeight - 1,-1,-1):
            lineString = ""
            for x in range(0,mc.hmWidth,1):
                i = GetHmIndex(x,y)
                mapLoc = int((self.heightMap[i] - self.seaLevel)/(1.0 - self.seaLevel) * 10)
                #mapLoc = int(self.heightMap[i] * 10)
                if self.heightMap[i] < self.seaLevel:
                    lineString += '.'
                else:
                    lineString += chr(mapLoc + 48)
            print lineString
        lineString = " "
        print lineString
        
    def printPlateMap(self,plateMap):
        lineString = "Plate Map"
        print lineString
        for y in range(mc.hmHeight - 1,-1,-1):
            lineString = ""
            for x in range(0,mc.hmWidth,1):
                i = GetHmIndex(x,y)
                mapLoc = plateMap[i].plateID
                if mapLoc > 40:
                    mapLoc = 41
                lineString += chr(mapLoc + 48)
            print lineString
        lineString = " "
        print lineString
        
    def printPreSmoothMap(self,preSmoothMap):
        lineString = "Pre-Smooth Map"
        print lineString
        for y in range(mc.hmHeight - 1,-1,-1):
            lineString = ""
            for x in range(0,mc.hmWidth,1):
                i = GetHmIndex(x,y)
                mapLoc = int(preSmoothMap[i] * 40)
                lineString += chr(mapLoc + 48)
            print lineString
        lineString = " "
        print lineString
        
    def printPlateHeightMap(self):
        lineString = "Plate Height Map"
        print lineString
        for y in range(mc.hmHeight - 1,-1,-1):
            lineString = ""
            for x in range(0,mc.hmWidth,1):
                i = GetHmIndex(x,y)
                mapLoc = int(self.plateHeightMap[i] * 40)
                lineString += chr(mapLoc + 48)
            print lineString
        lineString = " "
        print lineString
        
    def printDistanceMap(self,distanceMap,maxDistance):
        lineString = "Plate Height Map"
        print lineString
        for y in range(mc.hmHeight - 1,-1,-1):
            lineString = ""
            for x in range(0,mc.hmWidth,1):
                i = GetHmIndex(x,y)
                mapLoc = int((distanceMap[i]/maxDistance) * 40)
                lineString += chr(mapLoc + 48)
            print lineString
        lineString = " "
        print lineString
        
class Plate :
    def __init__(self,ID,seedX,seedY):
        self.ID = ID
        self.seedX = seedX
        self.seedY = seedY
        self.isOnMapEdge = False
        self.angle = (PRand.random() * 360) - 180
        self.raiseOnly = False
        self.NW = 0
        self.NE = 1
        self.SE = 2
        self.SW = 3
    def GetQuadrant(self):
        if self.seedY < mc.hmHeight/2:
            if self.seedX < mc.hmWidth/2:
                return self.SW
            else:
                return self.SE
        else:
            if self.seedX < mc.hmWidth/2:
                return self.NW
            else:
                return self.NE
                
class PlatePlot :
    def __init__(self,plateID,maxDistance):
        self.plateID = plateID
        self.distanceList = list()
        for i in range(mc.hmNumberOfPlates + 1):
            self.distanceList.append(maxDistance)
            
class ClimateMap :
    def __init__(self):
        return
    def createClimateMaps(self):
        summerSunMap = array('d')
        winterSunMap = array('d')
        self.summerTempsMap = array('d')
        self.winterTempsMap = array('d')
        self.averageTempMap = array('d')
        self.moistureMap = array('d')
        self.rainFallMap = array('d')

        self.initializeTempMap(summerSunMap,mc.tropicsLatitude)
        self.initializeTempMap(winterSunMap,-mc.tropicsLatitude)

        #smooth both sun maps into the temp maps
        for y in range(0,mc.hmHeight):
            for x in range(0,mc.hmWidth):
                contributers = 0
                summerAvg = 0
                winterAvg = 0
                i = GetHmIndex(x,y)
                for yy in range(y - mc.filterSize/2,y + mc.filterSize/2 + 1,1):
                    for xx in range(x - mc.filterSize/2,x + mc.filterSize/2 + 1,1):
                        ii = GetHmIndex(xx,yy)
                        if ii == -1:
                            continue
                        contributers += 1
                        summerAvg += summerSunMap[ii]
                        winterAvg += winterSunMap[ii]
                summerAvg = summerAvg/float(contributers)
                winterAvg = winterAvg/float(contributers)
                self.summerTempsMap.append(summerAvg)
                self.winterTempsMap.append(winterAvg)
                
        #create average temp map
        for y in range(mc.hmHeight):
            for x in range(mc.hmWidth):
                i = GetHmIndex(x,y)
                #average summer and winter
                avgTemp = (self.summerTempsMap[i] + self.winterTempsMap[i])/2.0
                #cool map for altitude
                self.averageTempMap.append(avgTemp * (1.0 - pow(hm.getAltitudeAboveSeaLevel(x,y),mc.temperatureLossCurve) * mc.heatLostAtOne))
        
        #init moisture and rain maps
        for i in range(mc.hmHeight*mc.hmWidth):
            self.moistureMap.append(0.0)
            self.rainFallMap.append(0.0)
            
        #create sortable plot list for summer monsoon rains
        temperatureList = list()
        for y in range(mc.hmHeight):
            for x in range(mc.hmWidth):
                i = GetHmIndex(x,y)
                rainPlot = RainPlot(x,y,self.summerTempsMap[i],0)
                temperatureList.append(rainPlot)
        #sort by temperature, coldest first
        temperatureList.sort(lambda x,y:cmp(x.order,y.order))
          
        #Drop summer monsoon rains
        self.dropRain(temperatureList,self.summerTempsMap,False,None)

        #clear moisture map
        for i in range(mc.hmHeight*mc.hmWidth):
            self.moistureMap[i] = 0.0
            
        #create sortable plot list for winter monsoon rains
        temperatureList = list()
        for y in range(mc.hmHeight):
            for x in range(mc.hmWidth):
                i = GetHmIndex(x,y)
                rainPlot = RainPlot(x,y,self.winterTempsMap[i],0)
                temperatureList.append(rainPlot)
        #sort by temperature, coldest first
        temperatureList.sort(lambda x,y:cmp(x.order,y.order))
          
        #Drop winter monsoon rains
        self.dropRain(temperatureList,self.winterTempsMap,False,None)

        #clear moisture map
        for i in range(mc.hmHeight*mc.hmWidth):
            self.moistureMap[i] = 0.0
            
        #set up WindZones class
        wz = WindZones(mc.hmHeight,mc.topLatitude,mc.bottomLatitude)

        #create ordered list for geostrophic rain
        orderList = list()
        for zone in range(6):
            topY = wz.GetYFromZone(zone,True)
            bottomY = wz.GetYFromZone(zone,False)
            if topY == -1 and bottomY == -1:
                continue #This wind zone is not represented on this map at all so skip it
            if topY == -1: #top off map edge
                topY = mc.hmHeight - 1
            if bottomY == -1:
                bottomY = 0

            dx,dy = wz.GetWindDirectionsInZone(zone)
            if dy < 0:
                yStart = topY
                yStop = bottomY - 1
            else:
                yStart = bottomY
                yStop = topY + 1
            if dx < 0:
                xStart = mc.hmWidth - 1
                xStop = -1
            else:
                xStart = 0
                xStop = mc.hmWidth
            order = 0.0
            for y in range(yStart,yStop,dy):
                for x in range(xStart,xStop,dx):
                    rainPlot = RainPlot(x,y,order,abs(yStop - y))
                    orderList.append(rainPlot)
                    order += 1.0

        #Sort order list
        orderList.sort(lambda x,y:cmp(x.order,y.order))

        #drop geostrophic rain            
        self.dropRain(orderList,self.averageTempMap,True,wz)
        

        NormalizeMap(self.rainFallMap,mc.hmWidth,mc.hmHeight)

##        self.printRainFallMap(True)
##        self.printRainFallMap(False)
        
                
    def dropRain(self,plotList, tempMap, bGeostrophic, windZones):
        countRemaining = len(plotList)
        bDebug = False
        for plot in plotList:
            i = GetHmIndex(plot.x,plot.y)
            if bDebug:
                print "rainplot at %d,%d" % (plot.x,plot.y)
                print "order = %f" % (plot.order)
                print "initial moisture = %f" % (self.moistureMap[i])
            #First collect moisture from sea
            if hm.isBelowSeaLevel(plot.x,plot.y):
                self.moistureMap[i] += tempMap[i]
                if bDebug:
                    print "collecting %f moisture from sea" % (tempMap[i])
                    
            nList = list()
            if bGeostrophic:
                #make list of neighbors in geostrophic zone, even if off map
                zone = windZones.GetZone(plot.y)
                dx,dy = windZones.GetWindDirectionsInZone(zone)
                if bDebug:
                    if dy < 0:
                        yString = "v"
                    else:
                        yString = "^"
                    if dx < 0:
                        xString = "<"
                    else:
                        xString = ">"
                    print "Wind direction ------------------------------- %s%s - %s" % (xString,yString,windZones.GetZoneName(zone))
                nList.append((plot.x,plot.y + dy))
                nList.append((plot.x + dx,plot.y))
                nList.append((plot.x + dx,plot.y + dy))
                
            else:
                #make list of neighbors with higher temp
                for direction in range(1,9,1):
                    xx,yy = GetXYFromDirection(plot.x,plot.y,direction)
                    ii = GetHmIndex(xx,yy)
                    if ii != -1 and tempMap[i] <= tempMap[ii]:
                        nList.append((xx,yy))
                #divide moisture by number of neighbors for distribution
                if len(nList) == 0:
                    continue #dead end, dump appropriate rain
            moisturePerNeighbor = self.moistureMap[i]/float(len(nList))
            if bDebug:
                print "moisturePerNeighbor = %f for %d neighbors" % (moisturePerNeighbor,len(nList))

            geostrophicFactor = 1.0
            if bGeostrophic:
                geostrophicFactor = mc.geostrophicFactor
            for xx,yy in nList:
                ii = GetHmIndex(xx,yy)
                if bDebug:
                    print "  neighbor %d,%d" % (xx,yy)
                    print "  countRemaining = %d" % countRemaining
                #Get the rain cost to enter this plot. Cost is
                #percentage of present moisture available for this
                #neighbor
                if bGeostrophic:
                    cost = self.getRainCost(plot.x,plot.y,xx,yy,plot.uplift)
                else:
                    cost = self.getRainCost(plot.x,plot.y,xx,yy,countRemaining/mc.monsoonUplift)
                    
                if bDebug:
                    print "  rain cost = %f" % cost

                #Convert moisture into rain
                #self.moistureMap[i] -= cost * moisturePerNeighbor (this line is unecessary actually, we are finished with moisture map for this plot) 
                self.rainFallMap[i] += cost * moisturePerNeighbor * geostrophicFactor #geostrophicFactor is not involved with moisture, only to weigh against monsoons
                if bDebug:
                    print "  dropping %f rain here" % (cost * moisturePerNeighbor)

                #send remaining moisture to neighbor
                if ii != -1:
                    self.moistureMap[ii] += moisturePerNeighbor - (cost * moisturePerNeighbor)
                    if bDebug:
                        print "  remaining moisture to neighbor = %f" % (moisturePerNeighbor - (cost * moisturePerNeighbor))

            if bDebug:
                print "total rainfall = %f" % self.rainFallMap[i]
            countRemaining -= 1
            
    def getRainCost(self,x1,y1,x2,y2,distanceToUplift):
        cost = mc.minimumRainCost
        cRange = 1.0 - mc.minimumRainCost/1.0#We don't want to go over 1.0 so the range is reduced
        upliftCost = (1.0/(float(distanceToUplift) + 1.0)) * cRange
        i = GetHmIndex(x1,y1)
        ii = GetHmIndex(x2,y2)
        cost += max((self.averageTempMap[ii] - self.averageTempMap[i]) * 2.0 * cRange,upliftCost)
        return cost
            
    def initializeTempMap(self,tempMap,tropic):
        for y in range(mc.hmHeight):
            for x in range(mc.hmWidth):
                tempMap.append(self.getInitialTemp(x,y,tropic))
        return
    def getInitialTemp(self,x,y,tropic):
        i = GetHmIndex(x,y)
        lat = self.getLatitude(y)
        latRange = float(90 + abs(tropic))
        latDifference = abs(float(lat - tropic))
        aboveSeaLevel = hm.heightMap[i] > hm.seaLevel
        if aboveSeaLevel:
            tempPerLatChange = 1.0/latRange
            temp = 1.0 - (tempPerLatChange * latDifference)
        else:
            tempPerLatChange = (1.0 - (2.0*mc.oceanTempClamp))/latRange
            temp = 1.0 - mc.oceanTempClamp - (tempPerLatChange * latDifference)

        return temp

    def getLatitude(self,y):
        latitudeRange = mc.topLatitude - mc.bottomLatitude
        degreesPerDY = float(latitudeRange)/float(mc.hmHeight - mc.northCrop - mc.southCrop)
        if y > mc.hmHeight - mc.northCrop:
            return mc.topLatitude
        if y < mc.southCrop:
            return mc.bottomLatitude
        latitude = (mc.bottomLatitude + (int(round(float(y - mc.southCrop)* degreesPerDY))))
        return latitude
    
    def printRainFallMap(self,bOcean):
        lineString = "Rainfall Map"
        print lineString
        wz = WindZones(mc.hmHeight,mc.topLatitude,mc.bottomLatitude)
        for y in range(mc.hmHeight - 1,-1,-1):
            lineString = ""
            for x in range(0,mc.hmWidth,1):
                i = GetHmIndex(x,y)
                if bOcean:
                    if self.rainFallMap[i] < 0.1:
                        mapLoc = int(self.rainFallMap[i] * 100)
                        lineString += chr(mapLoc + 48)
                    else:    
                        mapLoc = int(self.rainFallMap[i] * 10)
                        lineString += chr(mapLoc + 65)
                else:
                    if hm.isBelowSeaLevel(x,y):
                        lineString += '.'
                    elif self.rainFallMap[i] < 0.00001:
                        lineString += 'X'
                    else:
                        if self.rainFallMap[i] < 0.1:
                            mapLoc = int(self.rainFallMap[i] * 100)
                            lineString += chr(mapLoc + 48)
                        else:    
                            mapLoc = int(self.rainFallMap[i] * 10)
                            lineString += chr(mapLoc + 65)
            z = wz.GetZone(y)
            dx,dy = wz.GetWindDirectionsInZone(z)
            lineString += ' - '
            if dx < 0:
                lineString += '<'
            else:
                lineString += '>'
            if dy < 0:
                lineString += 'v'
            else:
                lineString += '^'
            lineString += ' ' + wz.GetZoneName(z)
            print lineString
        lineString = " "
        print lineString
    def printTempMap(self,tempMap):
        lineString = "Temp Map"
        print lineString
        wz = WindZones(mc.hmHeight,mc.topLatitude,mc.bottomLatitude)
        for y in range(mc.hmHeight - 1,-1,-1):
            lineString = ""
            for x in range(0,mc.hmWidth,1):
                i = GetHmIndex(x,y)
                mapLoc = int(tempMap[i] * 10)
                lineString += chr(mapLoc + 48)
            z = wz.GetZone(y)
            dx,dy = wz.GetWindDirectionsInZone(z)
            lineString += ' - '
            if dx < 0:
                lineString += '<'
            else:
                lineString += '>'
            if dy < 0:
                lineString += 'v'
            else:
                lineString += '^'
            lineString += ' ' + wz.GetZoneName(z)
            print lineString
        lineString = " "
        print lineString
        
class RainPlot :
    def __init__(self,x,y,order,uplift):
        self.x = x
        self.y = y
        self.order = order
        self.uplift = uplift
        
class WindZones :
    def __init__(self,mapHeight,topLat,botLat):
        self.NPOLAR = 0
        self.NTEMPERATE = 1
        self.NEQUATOR = 2
        self.SEQUATOR = 3
        self.STEMPERATE = 4
        self.SPOLAR = 5
        self.NOZONE = 99
        self.mapHeight = mapHeight
        self.topLat = topLat
        self.botLat = botLat
    def GetZone(self,y):
        if y < 0 or y >= self.mapHeight:
            return self.NOZONE
        lat = cm.getLatitude(y)
        if lat > mc.polarFrontLatitude:
            return self.NPOLAR
        elif lat > mc.horseLatitude:
            return self.NTEMPERATE
        elif lat > 0:
            return self.NEQUATOR
        elif lat > -mc.horseLatitude:
            return self.SEQUATOR
        elif lat > -mc.polarFrontLatitude:
            return self.STEMPERATE
        else:
            return self.SPOLAR
        return
    def GetZoneName(self,zone):
        if zone == self.NPOLAR:
            return "NPOLAR"
        elif zone == self.NTEMPERATE:
            return "NTEMPERATE"
        elif zone == self.NEQUATOR:
            return "NEQUATOR"
        elif zone == self.SEQUATOR:
            return "SEQUATOR"
        elif zone == self.STEMPERATE:
            return "STEMPERATE"
        else:
            return "SPOLAR"
        return
    def GetYFromZone(self,zone,bTop):
        if bTop:
            for y in range(self.mapHeight - 1,-1,-1):
                if zone == self.GetZone(y):
                    return y
        else:
            for y in range(self.mapHeight):
                if zone == self.GetZone(y):
                    return y
        return -1
    def GetZoneSize(self):
        latitudeRange = self.topLat - self.botLat
        degreesPerDY = float(latitudeRange)/float(self.mapHeight)
        size = 30.0/degreesPerDY
        return size
    def GetWindDirections(self,y):
        z = self.GetZone(y)
        #get x,y directions
        return self.GetWindDirectionsInZone(z)
    def GetWindDirectionsInZone(self,z):
        #get x,y directions
        if z == self.NPOLAR:
            return (-1,-1)
        elif z == self.NTEMPERATE:
            return (1,1)
        elif z == self.NEQUATOR:
            return (-1,-1)
        elif z == self.SEQUATOR:
            return (-1,1)
        elif z == self.STEMPERATE:
            return (1,-1)
        elif z == self.SPOLAR:
            return (-1,1)
        return (0,0)

def isSmallWaterMatch(x,y):
    return sm.isBelowSeaLevel(x,y)

class SmallMaps :
    def __init__(self):
        return
    def initialize(self):
        self.cropMaps()
        newHeightMap = ShrinkMap(hm.heightMap,mc.hmWidth ,mc.hmHeight,mc.width,mc.height)
        newRainFallMap = ShrinkMap(cm.rainFallMap,mc.hmWidth,mc.hmHeight,mc.width,mc.height)
        newAverageTempMap = ShrinkMap(cm.averageTempMap,mc.hmWidth,mc.hmHeight,mc.width,mc.height)

        self.heightMap = array('d')
        self.rainFallMap = array('d')
        self.averageTempMap = array('d')

        for y in range(mc.height):
            for x in range(mc.width):
                oldX = x
                i = GetIndexGeneral(oldX,y,mc.width,mc.height)
                if i != -1:
                    self.heightMap.append(newHeightMap[i])
                    self.rainFallMap.append(newRainFallMap[i])
                    self.averageTempMap.append(newAverageTempMap[i])
                else:
                    self.heightMap.append(hm.seaLevel - 0.000001)
                    self.rainFallMap.append(0.0)
                    self.averageTempMap.append(0.0)

        #Smooth coasts so there are fewer hills on coast
        for y in range(mc.height):
            for x in range(mc.width):
                if self.isBelowSeaLevel(x,y):
                    i = GetIndex(x,y)
                    self.heightMap[i] = hm.seaLevel - 0.000001
                    
        self.fillInLakes()

        self.createPlotMap()
        self.printPlotMap()
        self.createTerrainMap()
        continentMap.generateContinentMap()

    def fillInLakes(self):
        #smaller lakes need to be filled in again because the map
        #shrinker sometimes creates lakes.
        am = Areamap(mc.width,mc.height,True,True)
        am.defineAreas(isSmallWaterMatch)
##        am.PrintAreaMap()
        oceanID = am.getOceanID()
        for y in range(mc.height):
            for x in range(mc.width):
                i = GetIndex(x,y)
                if self.isBelowSeaLevel(x,y) and am.areaMap[i] != oceanID:
                    #check the size of this body of water, if too small,
                    #change to land
                    for a in am.areaList:
                        if a.ID == am.areaMap[i] and a.size < mc.minInlandSeaSize:
                            self.heightMap[i] = hm.seaLevel
        
        return
        
    def isBelowSeaLevel(self,x,y):
        i = GetIndex(x,y)
        if self.heightMap[i] < hm.seaLevel:
            return True
        return False
    
    ## This function returns altitude in relation to sea level with
    ## 0.0 being seaLevel and 1.0 being highest altitude
    def getAltitudeAboveSeaLevel(self,x,y):
        i = GetIndex(x,y)
        if i == -1:
            return 0.0
        altitude = self.heightMap[i]
        if altitude < hm.seaLevel:
            return 0.0
        altitude = 1.0/(1.0 - hm.seaLevel) * (altitude - hm.seaLevel)
        return altitude
    

    def createPlotMap(self):
        print "creating plot map"
        self.plotMap = array('i')
        #create height difference map to allow for tuning
        diffMap = array('d')
        for i in range(0,mc.height*mc.width):
            diffMap.append(0.0)
        #I tried using a deviation from surrounding average altitude
        #to determine hills and peaks but I didn't like the
        #results. Therefore I an using lowest neighbor
        for y in range(mc.height):
            for x in range(mc.width):
                i = GetIndex(x,y)
                myAlt = self.heightMap[i]
                minAlt = 1.0
                for direction in range(1,9,1):
                    xx,yy = GetXYFromDirection(x,y,direction)
                    ii = GetIndex(xx,yy)
                    if ii == -1:
                        continue
                    if self.heightMap[ii] < minAlt:
                        minAlt = self.heightMap[ii]
                diffMap[i] = myAlt - minAlt

        NormalizeMap(diffMap,mc.width,mc.height)

        #zero out water tiles so percent is percent of land
        for y in range(mc.height):
            for x in range(mc.width):
                i = GetIndex(x,y)
                if self.isBelowSeaLevel(x,y):
                    diffMap[i] = 0.0
                    
        peakHeight = FindValueFromPercent(diffMap,mc.width,mc.height,mc.PeakPercent,0.01,True)
        hillHeight = FindValueFromPercent(diffMap,mc.width,mc.height,mc.HillPercent,0.01,True)

        self.plotMap = array('i')
        #initialize map with 0CEAN
        for i in range(0,mc.height*mc.width):
            self.plotMap.append(mc.OCEAN)
        for y in range(mc.height):
            for x in range(mc.width):
                i = GetIndex(x,y)
                altDiff = diffMap[i]
                if self.heightMap[i] < hm.seaLevel:
                    self.plotMap[i] = mc.OCEAN
                elif altDiff < hillHeight:
                    self.plotMap[i] = mc.LAND
                elif altDiff < peakHeight:
                    self.plotMap[i] = mc.HILLS
                else:
                    self.plotMap[i] = mc.PEAK

        #Randomize high altitude areas
        for y in range(mc.height):
            for x in range(mc.width):
                i = GetIndex(x,y)
                if self.plotMap[i] == mc.LAND:
                    randomNum = PRand.random()
                    if randomNum < mc.PeakChanceAtOne * self.getAltitudeAboveSeaLevel(x,y):
                        self.plotMap[i] = mc.PEAK
                    elif randomNum < mc.HillChanceAtOne * self.getAltitudeAboveSeaLevel(x,y):
                        self.plotMap[i] = mc.HILLS

        #break up large clusters of hills and peaks
        for y in range(mc.height):
            for x in range(mc.width):
                i = GetIndex(x,y)
                if self.plotMap[i] == mc.HILLS:
                    allHills = True
                    for direction in range(1,9,1):
                        xx,yy = GetXYFromDirection(x,y,direction)
                        ii = GetIndex(xx,yy)
                        if self.plotMap[ii] != mc.HILLS:
                            allHills = False
                    if allHills == True:
                        self.plotMap[i] = mc.LAND
                if self.plotMap[i] == mc.PEAK:
                    allPeaks = True
                    peakCount = 0
                    nextToOcean = False
                    for direction in range(1,9,1):
                        xx,yy = GetXYFromDirection(x,y,direction)
                        ii = GetIndex(xx,yy)
                        if self.plotMap[ii] != mc.PEAK:
                            allPeaks = False
                        else:
                            peakCount += 1
                        if self.plotMap[ii] == mc.OCEAN:
                            nextToOcean = True
                    if allPeaks == True or peakCount>3 or nextToOcean == True:
                        self.plotMap[i] = mc.HILLS
        
        return
    def createTerrainMap(self):
        print "creating terrain map"
        self.terrainMap = array('i')
        #initialize terrainMap with OCEAN
        for i in range(0,mc.height*mc.width):
            self.terrainMap.append(mc.OCEAN)

        #Find minimum rainfall on land
        minRain = 10.0
        for i in range(mc.width*mc.height):
            if self.plotMap[i] != mc.OCEAN:
                if self.rainFallMap[i] < minRain:
                    minRain = self.rainFallMap[i]

        #zero water tiles to obtain percent of land            
        for y in range(mc.height):
            for x in range(mc.width):
                i = GetIndex(x,y)
                if self.isBelowSeaLevel(x,y):
                    self.rainFallMap[i] = 0.0
                    
        self.desertThreshold = FindValueFromPercent(self.rainFallMap,mc.width,mc.height,mc.DesertPercent,.001,False)
        self.plainsThreshold = FindValueFromPercent(self.rainFallMap,mc.width,mc.height,mc.PlainsPercent,.001,False)
        for y in range(mc.height):
            for x in range(mc.width):
                i = GetIndex(x,y)
                if self.plotMap[i] == mc.OCEAN:
                    for direction in range (1,9,1):
                        xx,yy = GetXYFromDirection(x,y,direction)
                        ii = GetIndex(xx,yy)
                        if ii == -1:
                            continue
                        if self.plotMap[ii] != mc.OCEAN:
                            self.terrainMap[i] = mc.COAST

                #instead of harsh thresholds, allow a random deviation chance
                #based on how close to the threshold the rainfall is
                elif self.rainFallMap[i] < self.desertThreshold:
                    if self.averageTempMap[i] < mc.SnowTemp:
                        self.terrainMap[i] = mc.SNOW
                    elif self.averageTempMap[i] < mc.TundraTemp:
                        self.terrainMap[i] = mc.TUNDRA
                    else:
                        if self.rainFallMap[i] < (PRand.random() * (self.desertThreshold - minRain) + self.desertThreshold - minRain)/2.0 + minRain:
                            self.terrainMap[i] = mc.DESERT
                        else:
                            self.terrainMap[i] = mc.PLAINS
                elif self.rainFallMap[i] < self.plainsThreshold:
                    if self.averageTempMap[i] < mc.SnowTemp:
                        self.terrainMap[i] = mc.SNOW
                    elif self.averageTempMap[i] < mc.TundraTemp:
                        self.terrainMap[i] = mc.TUNDRA
                    else:
                        if self.rainFallMap[i] < ((PRand.random() * (self.plainsThreshold - self.desertThreshold) + self.plainsThreshold - self.desertThreshold))/2.0 + self.desertThreshold: 
                            self.terrainMap[i] = mc.PLAINS
                        else:
                            self.terrainMap[i] = mc.GRASS
                else:
                    if self.averageTempMap[i] < mc.SnowTemp:
                        self.terrainMap[i] = mc.SNOW
                    elif self.averageTempMap[i] < mc.TundraTemp:
                        self.terrainMap[i] = mc.TUNDRA
                    else:
                        self.terrainMap[i] = mc.GRASS

        #Make sure ice is always higher than tundra, and tundra is always higher than
        #everything else. Also, desert does not blend well with these so change it.
        for y in range(mc.height):
            for x in range(mc.width):
                i = GetIndex(x,y)
                if self.terrainMap[i] == mc.OCEAN or self.terrainMap[i] == mc.COAST:
                    continue
                if self.terrainMap[i] == mc.SNOW:
                    lowerFound = False
                    for direction in range(1,9,1):
                        xx,yy = GetXYFromDirection(x,y,direction)
                        ii = GetIndex(xx,yy)
                        if ii == -1:
                            continue
                        if self.terrainMap[ii] != mc.OCEAN and self.terrainMap[ii] != mc.COAST \
                        and self.terrainMap[ii] != mc.SNOW:
                            lowerFound = True
                        if self.terrainMap[ii] != mc.TUNDRA and self.terrainMap[ii] != mc.SNOW and\
                        self.terrainMap[ii] != mc.OCEAN and self.terrainMap[ii] != mc.COAST:
                            self.terrainMap[i] = mc.TUNDRA
                        if self.terrainMap[ii] == mc.DESERT:
                            self.terrainMap[i] = mc.PLAINS
                    if lowerFound and self.plotMap[i] == mc.LAND:
                        self.plotMap[i] = mc.HILLS
                elif self.terrainMap[i] == mc.TUNDRA:
                    lowerFound = False
                    for direction in range(1,9,1):
                        xx,yy = GetXYFromDirection(x,y,direction)
                        ii = GetIndex(xx,yy)
                        if ii == -1:
                            continue
                        if self.terrainMap[ii] != mc.OCEAN and self.terrainMap[ii] != mc.COAST \
                        and self.terrainMap[ii] != mc.SNOW and self.terrainMap[ii] != mc.TUNDRA:
                            lowerFound = True
                        if self.terrainMap[ii] == mc.DESERT:
                            self.terrainMap[i] = mc.PLAINS
                    if lowerFound and self.plotMap[i] == mc.LAND:
                        if PRand.random() < 0.5:
                            self.plotMap[i] = mc.HILLS
                        else:
                            self.plotMap[i] = mc.PEAK
                else:
                    higherFound = False
                    for direction in range(1,9,1):
                        xx,yy = GetXYFromDirection(x,y,direction)
                        ii = GetIndex(xx,yy)
                        if self.terrainMap[ii] == mc.SNOW or self.terrainMap[ii] == mc.TUNDRA:
                            higherFound = True
                    if higherFound and self.plotMap[i] != mc.LAND:
                        self.plotMap[i] = mc.LAND
        return
    def cropMaps(self):
        hm.heightMap = CropMap(hm.heightMap)
        cm.averageTempMap = CropMap(cm.averageTempMap)
        cm.rainFallMap = CropMap(cm.rainFallMap)
        mc.hmWidth = mc.hmWidth - mc.westCrop - mc.eastCrop
        mc.hmHeight = mc.hmHeight - mc.northCrop - mc.southCrop

    def printHeightMap(self):
        lineString = "Height Map"
        print lineString
        for y in range(mc.height - 1,-1,-1):
            lineString = ""
            for x in range(0,mc.width,1):
                i = GetIndexGeneral(x,y,mc.width,mc.height)
                mapLoc = int((self.heightMap[i] - hm.seaLevel)/(1.0 - hm.seaLevel) * 10)
                #mapLoc = int(self.heightMap[i] * 10)
                if self.heightMap[i] < hm.seaLevel:
                    lineString += '.'
                else:
                    lineString += chr(mapLoc + 48)
            print lineString
        lineString = " "
        print lineString
        
    def printPlotMap(self):
        print "Plot Map"
        for y in range(mc.height - 1,-1,-1):
            lineString = ""
            for x in range(mc.width):
                mapLoc = self.plotMap[GetIndex(x,y)]
                if mapLoc == mc.PEAK:
                    lineString += 'A'
                elif mapLoc == mc.HILLS:
                    lineString += 'n'
                elif mapLoc == mc.LAND:
                    lineString += '+'
                else:
                    lineString += '.'
            print lineString
        lineString = " "
        print lineString
    def printTerrainMap(self):
        print "Terrain Map"
        wz = WindZones(mc.height,80,-80)
        for y in range(mc.height - 1,-1,-1):
            lineString = ""
            for x in range(mc.width):
                mapLoc = self.terrainMap[GetIndex(x,y)]
                if mapLoc == mc.OCEAN:
                    lineString += ','
                elif mapLoc == mc.COAST:
                    lineString += '.'
                elif mapLoc == mc.DESERT:
                    lineString += 'D'
                elif mapLoc == mc.GRASS:
                    lineString += '+'
                elif mapLoc == mc.MARSH:
                    lineString += 'M'
                elif mapLoc == mc.PLAINS:
                    lineString += 'P'
                elif mapLoc == mc.TUNDRA:
                    lineString += 'T'
                elif mapLoc == mc.SNOW:
                    lineString += 'I'
            lineString += "-" + wz.GetZoneName(wz.GetZone(y))
            print lineString
        lineString = " "
        print lineString

def isHmWaterMatch(x,y):
    i = GetHmIndex(x,y)
    if pb.distanceMap[i] > mc.minimumMeteorSize/3:
        return True
    return False

class PangaeaBreaker :
    def __init__(self):
        return
    def breakPangaeas(self):
        self.areaMap = Areamap(mc.hmWidth,mc.hmHeight,True,True)
        meteorThrown = False
        pangeaDetected = False
##        anotherPangaea = True
#        self.cm.PrintAreaMap()
##        while anotherPangaea:
##            NormalizeMap(hm.heightMap,mc.hmWidth,mc.hmHeight)
##            hm.calculateSeaLevel()
        self.createDistanceMap()
##        self.printDistanceMap()
        self.areaMap.defineAreas(isHmWaterMatch)
##        self.areaMap.PrintAreaMap()
        meteorCount = 0
        while not mc.AllowPangeas and self.isPangea() and meteorCount < mc.maximumMeteorCount:
            pangeaDetected = True
            x,y = self.getMeteorStrike()
            print "A meteor has struck the Earth at %(x)d, %(y)d!!" % {"x":x,"y":y}
            self.castMeteorUponTheEarth(x,y)
            meteorThrown = True
            meteorCount += 1
##            hm.printHeightMap()
            self.createDistanceMap()
##            self.printDistanceMap()
            self.areaMap.defineAreas(isHmWaterMatch)
##            self.areaMap.PrintAreaMap()
##            anotherPangaea = False
            
        if meteorThrown:
            print "The age of dinosours has come to a cataclysmic end."
        if meteorCount == 15:
            print "Maximum meteor count of %d has been reached. Pangaea may still exist." % meteorCount
        if mc.AllowPangeas:
            print "Pangeas are allowed on this map and will not be suppressed."
        elif pangeaDetected == False:
            print "No pangea detected on this map."
##        self.areaMap.PrintAreaMap()
    def isPangea(self):
##        starttime = time.clock()
        continentList = list()
        for a in self.areaMap.areaList:
            if a.water == False:
                continentList.append(a)

        totalLand = 0             
        for c in continentList:
            totalLand += c.size
            
        #sort all the continents by size, largest first
        continentList.sort(lambda x,y:cmp(x.size,y.size))
        continentList.reverse()
        biggestSize = continentList[0].size
        if 0.70 < float(biggestSize)/float(totalLand):
##            endtime = time.clock()
##            elapsed = endtime - starttime
##            print "isPangea time = %(t)s" % {"t":str(elapsed)}
            return True
##        endtime = time.clock()
##        elapsed = endtime - starttime
##        print "isPangea time = "
##        print elapsed
##        print
        return False
    def getMeteorStrike(self):
##        starttime = time.clock()
        continentList = list()
        for a in self.areaMap.areaList:
            if a.water == False:
                continentList.append(a)
            
        #sort all the continents by size, largest first
        continentList.sort(lambda x,y:cmp(x.size,y.size))
        continentList.reverse()
        biggestContinentID = continentList[0].ID

        x,y = self.getHighestCentrality(biggestContinentID)

        return x,y
        
##        chokeList = list()
##        for y in range(mc.hmHeight):
##            for x in range(mc.hmWidth):
##                i = GetHmIndex(x,y)
##                if i == -1:
##                    continue
##                if self.areaMap.areaMap[i] == biggestContinentID and\
##                not hm.isBelowSeaLevel(x,y): #this helps narrow the search
##                    if self.isChokePoint(x,y,biggestContinentID):
####                        print "chokepoint area at %d,%d = %d" % (x,y,biggestContinentID)
##                        ap = AreaPlot(x,y)
##                        chokeList.append(ap)
##        #calculate distances to center
##        center = self.getContinentCenter(biggestContinentID)
##        xCenter,yCenter = center
##
##        for n in range(len(chokeList)):
##            distance = self.getDistance(chokeList[n].x,chokeList[n].y,xCenter,yCenter)
##            chokeList[n].avgDistance = distance
##            
##        #sort plotList for most avg distance and chokeList for least
##        #average distance
##        chokeList.sort(lambda x,y:cmp(x.avgDistance,y.avgDistance))
##
##        if len(chokeList) == 0:#return bad value if no chokepoints
####            endtime = time.clock()
####            elapsed = endtime - starttime
####            print "getMeteorStrike time = "
####            print elapsed
####            print
##            return -1,-1
##
####        endtime = time.clock()
####        elapsed = endtime - starttime
####        print "getMeteorStrike time = "
####        print elapsed
####        print
##        
##        return chokeList[0].x,chokeList[0].y
                
    def isChokePoint(self,x,y,biggestContinentID):
        circlePoints = self.getCirclePoints(x,y,mc.minimumMeteorSize)
        waterOpposite = False
        landOpposite = False
        for cp in circlePoints:
            if isHmWaterMatch(cp.x,cp.y):
                #Find opposite
                ox = x + (x - cp.x)
                oy = y + (y - cp.y)
                if isHmWaterMatch(ox,oy):
                    waterOpposite = True
            else:
                #Find opposite
                ox = x + (x - cp.x)
                oy = y + (y - cp.y)
                if not isHmWaterMatch(ox,oy):
                    landOpposite = True
        if landOpposite and waterOpposite:
            percent = self.getLandPercentInCircle(circlePoints,biggestContinentID)
            if percent >= mc.minimumLandInChoke:
                return True
        return False
    def getLandPercentInCircle(self,circlePoints,biggestContinentID):
        land = 0
        water = 0
        circlePoints.sort(lambda n,m:cmp(n.y,m.y))
        for n in range(0,len(circlePoints),2):
            cy = circlePoints[n].y
            if circlePoints[n].x < circlePoints[n + 1].x:
                x1 = circlePoints[n].x
                x2 = circlePoints[n + 1].x
            else:
                x2 = circlePoints[n].x
                x1 = circlePoints[n + 1].x
            landLine,waterLine = self.countCraterLine(x1,x2,cy,biggestContinentID)
            land += landLine
            water += waterLine
        percent = float(land)/float(land + water)
        return percent
            
    def countCraterLine(self,x1,x2,y,biggestContinentID):
        land = 0
        water = 0
        for x in range(x1,x2 + 1):
            i = GetHmIndex(x,y)
            if self.areaMap.areaMap[i] == biggestContinentID:
                land += 1
            else:
                water += 1
        return land,water
        
    def getContinentCenter(self,ID):
        IDCount = 0
        xTotal = 0
        yTotal = 0
        for y in range(mc.hmHeight):
            for x in range(mc.hmWidth):
                i = GetHmIndex(x,y)
                if self.areaMap.areaMap[i] == ID:
                    IDCount += 1
                    xTotal += x
                    yTotal += y
        xCenter = round(float(xTotal)/float(IDCount))
        yCenter = round(float(yTotal)/float(IDCount))
##        #first find center in x direction
##        changes = list()
##        yMin = mc.height
##        yMax = -1
##        meridianOverlap = False
##        onContinent = False
##        for x in range(mc.hmWidth):
##            continentFoundThisPass = False
##            for y in range(mc.hmHeight):
##                i = GetHmIndex(x,y)
##                if self.areaMap.areaMap[i] == ID:
##                    continentFoundThisPass = True
##                    if y < yMin:
##                        yMin = y
##                    elif y > yMax:
##                        yMax = y
##            if x == 0 and continentFoundThisPass:
##                meridianOverlap = True
##                onContinent = True
##            if onContinent and not continentFoundThisPass:
##                changes.append(x)
##                onContinent = False
##            elif not onContinent and continentFoundThisPass:
##                changes.append(x)
##                onContinent = True
##        changes.sort()
##        xCenter = -1
##        if len(changes) == 0: #continent is continuous
##            xCenter = -1
##        elif len(changes) == 1:#continent extends to map edge
##            if meridianOverlap:
##                xCenter = changes[0]/2
##            else:
##                xCenter = (mc.width - changes[0])/2 + changes[0]
##        else:
##            if meridianOverlap:
##                xCenter = ((changes[1] - changes[0])/2 + changes[0] + (mc.hmWidth/2)) % mc.hmWidth
##            else:
##                xCenter = (changes[1] - changes[0])/2 + changes[0]
##        yCenter = (yMax - yMin)/2 + yMin
        center = xCenter,yCenter
        return center
    
    def getDistance(self,x,y,dx,dy):
        xx = x - dx
        if abs(xx) > mc.hmWidth/2:
            xx = mc.hmWidth - abs(xx)
            
        distance = max(abs(xx),abs(y - dy))
        return distance
    def castMeteorUponTheEarth(self,x,y):
##        starttime = time.clock()
        radius = PRand.randint(mc.minimumMeteorSize,max(mc.minimumMeteorSize + 1,mc.hmWidth/16))
        circlePointList = self.getCirclePoints(x,y,radius)
##        print "circlePointList"
##        print circlePointList
        circlePointList.sort(lambda n,m:cmp(n.y,m.y))
        for n in range(0,len(circlePointList),2):
            cy = circlePointList[n].y
            if circlePointList[n].x < circlePointList[n + 1].x:
                x1 = circlePointList[n].x
                x2 = circlePointList[n + 1].x
            else:
                x2 = circlePointList[n].x
                x1 = circlePointList[n + 1].x
            self.drawCraterLine(x1,x2,cy)
            
##        for n in range(0,len(circlePointList),2): not needed since this is happening on heightmap only
##            cy = circlePointList[n].y
##            if circlePointList[n].x < circlePointList[n + 1].x:
##                x1 = circlePointList[n].x
##                x2 = circlePointList[n + 1].x
##            else:
##                x2 = circlePointList[n].x
##                x1 = circlePointList[n + 1].x
##            self.drawCraterCoastLine(x1,x2,cy)
        return
    
##    def drawCraterCoastLine(self,x1,x2,y): not needed since this is happening on heightmap only
##        if y < 0 or y >= mc.hmHeight:
##            return
##        for x in range(x1,x2 + 1):
##            if self.hasLandNeighbor(x,y):
##                i = GetHmIndex(x,y)
##                sm.terrainMap[i] = mc.COAST                   
##        return
    def drawCraterLine(self,x1,x2,y):
        if y < 0 or y >= mc.hmHeight:
            return
        for x in range(x1,x2 + 1):
            i = GetHmIndex(x,y)
##            sm.terrainMap[i] = mc.OCEAN
            hm.heightMap[i] = 0.0
##            sm.plotMap[i] = mc.OCEAN
        return
##    def hasLandNeighbor(self,x,y): not needed since this is happening on heightmap only
##        #y cannot be outside of map so I'm not testing for it
##        for yy in range(y - 1,y + 2):
##            for xx in range(x - 1,x + 2):
##                if yy == y and xx == x:
##                    continue
##                ii = GetHmIndex(xx,yy)
##                if sm.terrainMap[ii] != mc.COAST and sm.terrainMap[ii] != mc.OCEAN:
##                    return True
##        return False
    def getCirclePoints(self,xCenter,yCenter,radius):
        circlePointList = list()
        x = 0
        y = radius
        p = 1 - radius

        self.addCirclePoints(xCenter,yCenter,x,y,circlePointList)

        while (x < y):
            x += 1
            if p < 0:
                p += 2*x + 1
            else:
                y -= 1
                p += 2*(x - y) + 1
            self.addCirclePoints(xCenter,yCenter,x,y,circlePointList)
            
        return circlePointList
    
    def addCirclePoints(self,xCenter,yCenter,x,y,circlePointList):
        circlePointList.append(CirclePoint(xCenter + x,yCenter + y))
        circlePointList.append(CirclePoint(xCenter - x,yCenter + y))
        circlePointList.append(CirclePoint(xCenter + x,yCenter - y))
        circlePointList.append(CirclePoint(xCenter - x,yCenter - y))
        circlePointList.append(CirclePoint(xCenter + y,yCenter + x))
        circlePointList.append(CirclePoint(xCenter - y,yCenter + x))
        circlePointList.append(CirclePoint(xCenter + y,yCenter - x))
        circlePointList.append(CirclePoint(xCenter - y,yCenter - x))
        return
    
    def createDistanceMap(self):
        self.distanceMap = array('i')
        processQueue = []
        for y in range(mc.hmHeight):
            for x in range(mc.hmWidth):
                if hm.isBelowSeaLevel(x,y):
                    self.distanceMap.append(1000)
                else:
                    self.distanceMap.append(0)
                    processQueue.append((x,y))
                    
        while len(processQueue) > 0:
            x,y = processQueue[0]
            i = GetHmIndex(x,y)
            del processQueue[0]
            distanceToLand = self.distanceMap[i]
            for direction in range(1,9,1):
                xx,yy = GetXYFromDirection(x,y,direction)
                ii = GetHmIndex(xx,yy)
                neighborDistanceToLand = self.distanceMap[ii]
                if neighborDistanceToLand > distanceToLand + 1:
                    self.distanceMap[ii] = distanceToLand + 1
                    processQueue.append((xx,yy))
            
    def printDistanceMap(self):
        lineString = "Pangaea Breaker distance map"
        print lineString
        for y in range(mc.hmHeight - 1,-1,-1):
            lineString = ""
            for x in range(0,mc.hmWidth,1):
                i = GetHmIndex(x,y)
                mapLoc = int(self.distanceMap[i])
                #mapLoc = int(self.heightMap[i] * 10)
                if mapLoc > 9:
                    lineString += '.'
                else:
                    lineString += chr(mapLoc + 48)
            print lineString
        lineString = " "
        print lineString
        
    def getHighestCentrality(self,ID):
        C = self.createCentralityList(ID)
        C.sort(lambda x,y:cmp(x.centrality,y.centrality))
        C.reverse()
        return C[0].x,C[0].y
    def createContinentList(self,ID):
        C = []
        indexMap = []
        gap = 5
        n = 0
        for y in range(0,mc.hmHeight):
            for x in range(0,mc.hmWidth):
                i = GetHmIndex(x,y)
##                print "h %% gap = %d, w %% gap = %d" % (y % gap,y % gap)
                if y % gap == 0 and x % gap == 0 and \
                self.areaMap.areaMap[i] == ID:
                    C.append(CentralityScore(x,y))
                    indexMap.append(n)
                    n += 1
                else:
                    indexMap.append(-1)

        n = 0
        for s in C:
##            print "s at %d,%d index %d is neighbors with" % (s.x,s.y,n)
            #Check 4 nieghbors
            xx = s.x - gap
            if xx < 0:
                xx = mc.hmWidth/gap * gap
            i = GetHmIndex(xx,s.y)
            if i != -1 and self.areaMap.areaMap[i] == ID:
                s.neighborList.append(indexMap[i])
##                print "%d,%d index %d" % (xx,s.y,indexMap[i])
            xx = s.x + gap
            if xx >= mc.hmWidth:
                xx = 0
            i = GetHmIndex(xx,s.y)
            if i != -1 and self.areaMap.areaMap[i] == ID:
                s.neighborList.append(indexMap[i])
##                print "%d,%d index %d" % (xx,s.y,indexMap[i])
            yy = s.y - gap
            if yy < 0:
                yy = mc.hmHeight/gap * gap
            i = GetHmIndex(s.x,yy)
            if i != -1 and self.areaMap.areaMap[i] == ID:
                s.neighborList.append(indexMap[i])
##                print "%d,%d index %d" % (s.x,yy,indexMap[i])
            yy = s.y + gap
            if yy > mc.hmHeight:
                yy = 0
            i = GetHmIndex(s.x,yy)
            if i != -1 and self.areaMap.areaMap[i] == ID:
                s.neighborList.append(indexMap[i])
##                print "%d,%d index %d" % (s.x,yy,indexMap[i])

            n += 1

##        self.areaMap.PrintAreaMap()
##        self.printContinentList(ID,gap)

        return C
            
    def printContinentList(self,ID,gap):
        lineString = "Continent neighbor map"
        print lineString
        for y in range(mc.hmHeight - 1,-1,-1):
            lineString = ""
            for x in range(0,mc.hmWidth,1):
                i = GetHmIndex(x,y)
                if y % gap == 0 and x % gap == 0 and \
                self.areaMap.areaMap[i] == ID:
                    lineString += '@'
                elif self.areaMap.areaMap[i] == ID:
                    lineString += '*'
                else:
                    lineString += '.'
            print lineString
        lineString = " "
        print lineString
        
    
    def createCentralityList(self,ID):
        C = self.createContinentList(ID)
        
        for s in range(len(C)):
            S = []
            P = []
            sigma = []
            d = []
            delta = []
            for t in range(len(C)):
                sigma.append(0)
                d.append(-1)
                P.append([])
                delta.append(0)
            sigma[s] = 1
            d[s] = 0
            Q = []
            Q.append(s)
            while len(Q) > 0:
                v = Q.pop(0)
##                print len(Q)
                S.append(v)
                for w in C[v].neighborList:
                    if d[w] < 0:
                        Q.append(w)
#                            print len(Q)
                        d[w] = d[v] + 1
                    if d[w] == d[v] + 1:
                        sigma[w] = sigma[w] + sigma[v]
                        P[w].append(v)
            while len(S) > 0:
                w = S.pop()
                for v in P[w]:
                    delta[v] = delta[v] + (sigma[v]/sigma[w]) * (1 + delta[w])
                    if w != s:
                        C[w].centrality = C[w].centrality + delta[w]
##            print s
        
        return C
    
    def isNeighbor(self,x,y,xx,yy):
            #Check X for wrap
        if mc.WrapX == True:
            mx = xx % mc.hmWidth
        elif x < 0 or x >= mc.hmWidth:
            return False
        else:
            mx = xx
        #Check y for wrap
        if mc.WrapY == True:
            my = yy % mc.hmHeight
        elif y < 0 or y >= mc.hmHeight:
            return False
        else:
            my = yy

        if abs(x - mx) <= 1 and abs(y - my) <= 1:
            if x == mx and y == my:
                return False
            else:
                return True
        return False
            
                
                    
pb = PangaeaBreaker()

class CirclePoint :
    def __init__(self,x,y):
        self.x = x
        self.y = y
class CentralityScore :
    def __init__(self,x,y):
        self.x = x
        self.y = y
        self.centrality = 0
        self.neighborList = []
        
def isNonCoastWaterMatch(x,y):
    i = GetIndex(x,y)
    if sm.terrainMap[i] == mc.OCEAN:
        return True
    return False
        
class ContinentMap :
    def __init__(self):
        return
    def generateContinentMap(self):
        self.areaMap = Areamap(mc.width,mc.height,True,True)
        self.areaMap.defineAreas(isNonCoastWaterMatch)
##        self.areaMap.PrintAreaMap()
        self.newWorldID = self.getNewWorldID()
#        self.cm.PrintAreaMap()
        return
    def getNewWorldID(self):
        nID = 0
        continentList = list()
        for a in self.areaMap.areaList:
            if a.water == False:
                continentList.append(a)

        totalLand = 0             
        for c in continentList:
            totalLand += c.size
            
##        print totalLand

        #sort all the continents by size, largest first
#        continentList.sort(key=operator.attrgetter('size'),reverse=True)
        continentList.sort(lambda x,y:cmp(x.size,y.size))
        continentList.reverse()
        
        print ''
        print "All continents"
        print self.areaMap.PrintList(continentList)

        #now remove a percentage of the landmass to be considered 'Old World'
        oldWorldSize = 0
        #biggest continent is automatically 'Old World'
        oldWorldSize += continentList[0].size
        if mc.ShareContinentIndex == 2:
            oldWorldContinent = continentList[0]
        del continentList[0]

        #If this was the only continent than we have a pangaea. Oh well.
        if len(continentList) == 0:
            return -1
        
        #get the next largest continent and temporarily remove from list
        #add it back later and is automatically 'New World'
        biggestNewWorld = continentList[0]
        del continentList[0]
        
        #sort list by ID rather than size to make things
        #interesting and possibly bigger new worlds
#        continentList.sort(key=operator.attrgetter('ID'),reverse=True)
        continentList.sort(lambda x,y:cmp(x.ID,y.ID))
        continentList.reverse()
        
        for n in range(len(continentList)):
            oldWorldSize += continentList[0].size
            if mc.ShareContinent == False:
                del continentList[0]
            if float(oldWorldSize)/float(totalLand) > 0.60:
                break

        # add back the biggestNewWorld continent unless we're putting
        # everyone on the second biggest continent
        if mc.ShareContinentIndex != 2:
            continentList.append(biggestNewWorld)
        else:
            continentList.append(oldWorldContinent)
        
        #what remains in the list will be considered 'New World'
        print ''
        print "New World Continents"
        print self.areaMap.PrintList(continentList)

        #get ID for the next continent, we will use this ID for 'New World'
        #designation
        nID = continentList[0].ID
        del continentList[0] #delete to avoid unnecessary overwrite

        #now change all the remaining continents to also have nID as their ID
        for i in range(mc.height*mc.width):
            for c in continentList:
                if c.ID == self.areaMap.areaMap[i]:
                    self.areaMap.areaMap[i] = nID
 
        return nID
continentMap = ContinentMap()

class Areamap :
    def __init__(self,width,height,b8connected,bSwitch4Or8OnFalseMatch):
        self.mapWidth = width
        self.mapHeight = height
        self.areaMap = array('i')
        self.b8connected = b8connected
        self.bSwitch4Or8OnFalseMatch = bSwitch4Or8OnFalseMatch
        #initialize map with zeros
        for i in range(0,self.mapHeight*self.mapWidth):
            self.areaMap.append(0)
        return
    def defineAreas(self,matchFunction):
#        self.areaSizes = array('i')
##        starttime = time.clock()
        self.areaList = list()
        areaID = 0
        #make sure map is erased in case it is used multiple times
        for i in range(0,self.mapHeight*self.mapWidth):
            self.areaMap[i] = 0
#        for i in range(0,1):
        for i in range(0,self.mapHeight*self.mapWidth):
            if self.areaMap[i] == 0: #not assigned to an area yet
                areaID += 1
                areaSize,match = self.fillArea(i,areaID,matchFunction)
                area = Area(areaID,areaSize,match)
                self.areaList.append(area)

##        endtime = time.clock()
##        elapsed = endtime - starttime
##        print "defineAreas time ="
##        print elapsed
##        print

        return

##    def isWater(self,x,y,coastIsLand):
##        #coastIsLand = True means that we are trying to find continents that
##        #are not connected by coasts to the main landmasses, allowing us to
##        #find continents suitable as a 'New World'. Otherwise, we
##        #are just looking to fill in lakes and coast needs to be considered
##        #water in that case
##        ii = self.getIndex(x,y)
##        if ii == -1:
##            return False
##        if coastIsLand:
##            if hm.plotMap[ii] == hm.OCEAN and terr.terrainMap[ii] != terr.COAST:
##                return True
##            else:
##                return False
##        else:
##            if hm.isBelowSeaLevel(x,y):
##                return True
##            else:
##                return False
##            
##        return False
    def getAreaByID(self,areaID):
        for i in range(len(self.areaList)):
            if self.areaList[i].ID == areaID:
                return self.areaList[i]
        return None
    def getOceanID(self):
#        self.areaList.sort(key=operator.attrgetter('size'),reverse=True)
        self.areaList.sort(lambda x,y:cmp(x.size,y.size))
        self.areaList.reverse()
        for a in self.areaList:
            if a.water == True:
                return a.ID
                        
    def getIndex(self,x,y):
        #Check X for wrap
        if mc.WrapX == True:
            xx = x % self.mapWidth
        elif x < 0 or x >= self.mapWidth:
            return -1
        else:
            xx = x
        #Check y for wrap
        if mc.WrapY == True:
            yy = y % self.mapHeight
        elif y < 0 or y >= self.mapHeight:
            return -1
        else:
            yy = y

        i = yy * self.mapWidth + xx
        return i
    
    def fillArea(self,index,areaID,matchFunction):
        #first divide index into x and y
        y = index/self.mapWidth
        x = index%self.mapWidth
        #We check 8 neigbors for land,but 4 for water. This is because
        #the game connects land squares diagonally across water, but
        #water squares are not passable diagonally across land
        self.segStack = list()
        self.size = 0
        matchValue = matchFunction(x,y)
        #place seed on stack for both directions
        seg = LineSegment(y,x,x,1)
        self.segStack.append(seg) 
        seg = LineSegment(y+1,x,x,-1)
        self.segStack.append(seg) 
        while(len(self.segStack) > 0):
            seg = self.segStack.pop()
            self.scanAndFillLine(seg,areaID,matchValue,matchFunction)
##            if (seg.y < 8 and seg.y > 4) or (seg.y < 70 and seg.y > 64):
##            if (areaID == 4
##                PrintPlotMap(hm)
##                self.PrintAreaMap()
        
        return self.size,matchFunction(x,y)
    def scanAndFillLine(self,seg,areaID,matchValue,matchFunction):
        #check for y + dy being off map
        i = self.getIndex(seg.xLeft,seg.y + seg.dy)
        if i < 0:
##            print "scanLine off map ignoring",str(seg)
            return
        debugReport = False
##        if (seg.y < 8 and seg.y > 4) or (seg.y < 70 and seg.y > 64):
##        if (areaID == 4):
##            debugReport = True
        #for land tiles we must look one past the x extents to include
        #8-connected neighbors
        if self.b8connected:
            if self.bSwitch4Or8OnFalseMatch and matchValue:
                landOffset = 0
            else:
                landOffset = 1
        else:
            if self.bSwitch4Or8OnFalseMatch and matchValue:
                landOffset = 1
            else:
                landOffset = 0
        
        lineFound = False
        #first scan and fill any left overhang
        if debugReport:
            print ""
            print "areaID = %(a)4d" % {"a":areaID}
            print "matchValue = %(w)2d, landOffset = %(l)2d" % {"w":matchValue,"l":landOffset} 
            print str(seg)
            print "Going left"
        if mc.WrapX == True:
            xStop = 0 - (self.mapWidth*20)
        else:
            xStop = -1
        for xLeftExtreme in range(seg.xLeft - landOffset,xStop,-1):
            i = self.getIndex(xLeftExtreme,seg.y + seg.dy)
            if debugReport:
                print "xLeftExtreme = %(xl)4d" % {'xl':xLeftExtreme}
            if debugReport:
                print "i = %d, seg.y + seg.dy = %d" % (i,seg.y + seg.dy)
                print "areaMap[i] = %d, matchValue match = %d" % (self.areaMap[i],matchValue == matchFunction(xLeftExtreme,seg.y + seg.dy))
            if self.areaMap[i] == 0 and matchValue == matchFunction(xLeftExtreme,seg.y + seg.dy):
                self.areaMap[i] = areaID
                self.size += 1
                lineFound = True
            else:
                #if no line was found, then xLeftExtreme is fine, but if
                #a line was found going left, then we need to increment
                #xLeftExtreme to represent the inclusive end of the line
                if lineFound:
                    xLeftExtreme += 1
                break
        if debugReport:
            print "xLeftExtreme finally = %(xl)4d" % {'xl':xLeftExtreme}
            print "Going Right"
        #now scan right to find extreme right, place each found segment on stack
#        xRightExtreme = seg.xLeft - landOffset #needed sometimes? one time it was not initialized before use.
        xRightExtreme = seg.xLeft #needed sometimes? one time it was not initialized before use.
        if mc.WrapX == True:
            xStop = self.mapWidth*20
        else:
            xStop = self.mapWidth
        for xRightExtreme in range(seg.xLeft + lineFound - landOffset,xStop,1):
            if debugReport:            
                print "xRightExtreme = %(xr)4d" % {'xr':xRightExtreme}
            i = self.getIndex(xRightExtreme,seg.y + seg.dy)
            if debugReport:
                print "i = %d, seg.y + seg.dy = %d" % (i,seg.y + seg.dy)
                print "areaMap[i] = %d, matchValue match = %d" % (self.areaMap[i],matchValue == matchFunction(xRightExtreme,seg.y + seg.dy))
            if self.areaMap[i] == 0 and matchValue == matchFunction(xRightExtreme,seg.y + seg.dy):
                self.areaMap[i] = areaID
                self.size += 1
                if lineFound == False:
                    lineFound = True
                    xLeftExtreme = xRightExtreme #starting new line
                    if debugReport:
                        print "starting new line at xLeftExtreme= %(xl)4d" % {'xl':xLeftExtreme}
            elif lineFound == True: #found the right end of a line segment!                
                lineFound = False
                #put same direction on stack
                newSeg = LineSegment(seg.y + seg.dy,xLeftExtreme,xRightExtreme - 1,seg.dy)
                self.segStack.append(newSeg)
                if debugReport:
                    print "same direction to stack",str(newSeg)
                #determine if we must put reverse direction on stack
                if xLeftExtreme < seg.xLeft or xRightExtreme >= seg.xRight:
                    #out of shadow so put reverse direction on stack also
                    newSeg = LineSegment(seg.y + seg.dy,xLeftExtreme,xRightExtreme - 1,-seg.dy)
                    self.segStack.append(newSeg)
                    if debugReport:
                        print "opposite direction to stack",str(newSeg)
                if xRightExtreme >= seg.xRight + landOffset:
                    if debugReport:
                        print "finished with line"
                    break; #past the end of the parent line and this line ends
            elif lineFound == False and xRightExtreme >= seg.xRight + landOffset:
                if debugReport:
                    print "no additional lines found"
                break; #past the end of the parent line and no line found
            else:
                continue #keep looking for more line segments
        if lineFound == True: #still a line needing to be put on stack
            if debugReport:
                print "still needing to stack some segs"
            lineFound = False
            #put same direction on stack
            newSeg = LineSegment(seg.y + seg.dy,xLeftExtreme,xRightExtreme - 1,seg.dy)
            self.segStack.append(newSeg)
            if debugReport:
                print str(newSeg)
            #determine if we must put reverse direction on stack
            if xLeftExtreme < seg.xLeft or xRightExtreme - 1 > seg.xRight:
                #out of shadow so put reverse direction on stack also
                newSeg = LineSegment(seg.y + seg.dy,xLeftExtreme,xRightExtreme - 1,-seg.dy)
                self.segStack.append(newSeg)
                if debugReport:
                    print str(newSeg)
        
        return
    #for debugging
    def PrintAreaMap(self):
        
        print "Area Map"
        for y in range(self.mapHeight - 1,-1,-1):
            lineString = ""
            for x in range(self.mapWidth):
                mapLoc = self.areaMap[self.getIndex(x,y)]
                if mapLoc + 34 > 127:
                    mapLoc = 127 - 34
                lineString += chr(mapLoc + 34)
            lineString += "-" + str(y)
            print lineString
        oid = self.getOceanID()
        if oid == None or oid + 34 > 255:
            print "Ocean ID is unknown"
        else:
            print "Ocean ID is %(oid)4d or %(c)s" % {'oid':oid,'c':chr(oid + 34)}
        lineString = " "
        print lineString

        return
    def PrintList(self,s):
        for a in s:
            char = chr(a.ID + 34)
            lineString = str(a) + ' ' + char
            print lineString
            
class LineSegment :
    def __init__(self,y,xLeft,xRight,dy):
        self.y = y
        self.xLeft = xLeft
        self.xRight = xRight
        self.dy = dy
    def __str__ (self):
        string = "y = %(y)3d, xLeft = %(xl)3d, xRight = %(xr)3d, dy = %(dy)2d" % \
        {'y':self.y,'xl':self.xLeft,'xr':self.xRight,'dy':self.dy}
        return string
                       
class Area :
    def __init__(self,iD,size,water):
        self.ID = iD
        self.size = size
        self.water = water

    def __str__(self):
        string = "{ID = %(i)4d, size = %(s)4d, water = %(w)1d}" % \
        {'i':self.ID,'s':self.size,'w':self.water}
        return string
class AreaPlot :
    def __init__(self,x,y):
        self.x = x
        self.y = y
        self.avgDistance = -1
        
#OK! now that directions N,S,E,W are important, we have to keep in mind that
#the map plots are ordered from 0,0 in the SOUTH west corner! NOT the northwest
#corner! That means that Y increases as you go north.
class RiverMap :
    def __init__(self):
        #To provide global access without allocating alot of resources for
        #nothing, object initializer must be empty
        return
    def generateRiverMap(self):
        self.L = 0 #also denotes a 'pit' or 'flat'
        self.N = 1
        self.S = 2
        self.E = 3
        self.W = 4
        self.NE = 5
        self.NW = 6
        self.SE = 7
        self.SW = 8
        self.O = 5 #used for ocean or land without a river

        #averageHeightMap, flowMap, averageRainfallMap and drainageMap are offset from the other maps such that
        #each element coincides with a four tile intersection on the game map
        self.averageHeightMap = array('d')
        self.flowMap = array('i')
        self.averageRainfallMap = array('d')        
        self.drainageMap = array('d')
        self.riverMap = array('i')
        #initialize maps with zeros
        for i in range(0,mc.height*mc.width):
            self.averageHeightMap.append(0.0)
            self.flowMap.append(0)
            self.averageRainfallMap.append(0.0)
            self.drainageMap.append(0.0)
            self.riverMap.append(self.O)
        #Get highest intersection neighbor
        for y in range(mc.height):
            for x in range(mc.width):
                i = GetIndex(x,y)
                maxHeight = 0.0;
                for yy in range(y,y-2,-1):
                    for xx in range(x,x+2):
                        ii = GetIndex(xx,yy)
                        #use an average hight of <0 to denote an ocean border
                        #this will save processing time later
                        if(sm.plotMap[ii] == mc.OCEAN):
                            maxHeight = -100.0
                        elif maxHeight < sm.heightMap[ii] and maxHeight >= 0:
                            maxHeight = sm.heightMap[ii]
                self.averageHeightMap[i] = maxHeight
        #Now try to silt in any lakes
        self.siltifyLakes()
        self.createLakeDepressions()
        #create flowMap by checking for the lowest of each 4 connected
        #neighbor plus self       
        for y in range(mc.height):
            for x in range(mc.width):
                i = GetIndex(x,y)
                lowestAlt = self.averageHeightMap[i]
                if(lowestAlt < 0.0):
                    #if height is <0 then that means this intersection is
                    #adjacent to an ocean and has no flow
                    self.flowMap[i] = self.O
                else:
                    #First assume this place is lowest, like a 'pit'. Then
                    #for each place that is lower, add it to a list to be
                    #randomly chosen as the drainage path
                    drainList = list()
                    nonDrainList = list()
                    self.flowMap[i] = self.L 
                    ii = GetIndex(x,y+1)
                    #in the y direction, avoid wrapping
                    if(y > 0 and self.averageHeightMap[ii] < lowestAlt):
                        drainList.append(self.N)
                    else:
                        nonDrainList.append(self.N)
                    ii = GetIndex(x,y-1)
                    if(y < mc.height - 1 and self.averageHeightMap[ii] < lowestAlt):
                        drainList.append(self.S)
                    else:
                        nonDrainList.append(self.S)
                    ii = GetIndex(x-1,y)
                    if(self.averageHeightMap[ii] < lowestAlt):
                        drainList.append(self.W)
                    else:
                        nonDrainList.append(self.W)
                    ii = GetIndex(x+1,y)
                    if(self.averageHeightMap[ii] < lowestAlt):
                        drainList.append(self.E)
                    else:
                        nonDrainList.append(self.E)
                        
                    #never go straight when you have other choices
                    count = len(drainList)
                    if count == 3:
                        oppDir = GetOppositeDirection(nonDrainList[0])
                        for n in range(count):
                            if drainList[n] == oppDir:
                                del drainList[n]
                                break
                        count = len(drainList)
                            
                    if count > 0:
                        choice = int(PRand.random()*count)
#                        print count,choice
                        self.flowMap[i] = drainList[choice]
                  
        #Create average rainfall map so that each intersection is an average
        #of the rainfall from rm.rainMap
        for y in range(mc.height):
            for x in range(mc.width):
                i = GetIndex(x,y)
                avg = 0.0;
                for yy in range(y,y-2,-1):
                    for xx in range(x,x+2):
                        ii = GetIndex(xx,yy)
                        avg += sm.rainFallMap[ii]
                avg = avg/4.0
                self.averageRainfallMap[i] = avg
               
        #Now use the flowMap as a guide to distribute average rainfall.
        #Wherever the most rainfall ends up is where the rivers will be.
        print "Distributing rainfall"
        for y in range(mc.height):
            for x in range(mc.width):
                i = GetIndex(x,y)
                flow = self.flowMap[i]
                rainFall = self.averageRainfallMap[i]
                xx = x
                yy = y
                while(flow != self.L and flow != self.O):
                    if(flow == self.N):
                        yy += 1
                    elif(flow == self.S):
                        yy -= 1
                    elif(flow == self.W):
                        xx -= 1
                    elif(flow == self.E):
                        xx += 1
                    #wrap
                    if(xx < 0):
                        xx = mc.width - 1
                    elif(xx >= mc.width):
                        xx = 0
                    if(yy < 0):
                        yy = mc.height - 1
                    elif(yy >= mc.height):
                        yy = 0
                    #dump rainfall here
                    ii = GetIndex(xx,yy)
                    self.drainageMap[ii] += rainFall
                    #reset flow
                    flow = self.flowMap[ii]
                    
        
        riverThreshold = sm.plainsThreshold * mc.RiverThreshold
        for i in range(mc.height*mc.width):
            if(self.drainageMap[i] > riverThreshold):
##                    riverCount += 1
                self.riverMap[i] = self.flowMap[i]
            else:
                self.riverMap[i] = self.O

        #at this point river should be in tolerance or close to it
        #riverMap is ready for use

    def rxFromPlot(self,x,y,direction):
        if direction == self.NE:
            return x,y + 1
        if direction == self.SW:
            return x - 1,y 
        if direction == self.SE:
            return x,y 
        raise ValueError,"rxFromPlot using bad direction input"
    
    def siltifyLakes(self):
        lakeList = []
        onQueueMap = array('i')
        for y in range(mc.height):
            for x in range(mc.width):
                onQueueMap.append(0)
                i = GetIndex(x,y)
                if self.isLake(x,y):
                    lakeList.append((x,y,1))
                    onQueueMap[i] = 1
##        print "initial lakes = %d" % (len(lakeList))
        largestLength = len(lakeList)
        while len(lakeList) > 0:
##            print "len = %d" % (len(lakeList))
            if len(lakeList) > largestLength:
                largestLength = len(lakeList)
            x,y,lakeSize = lakeList[0]
            del lakeList[0]
            i = GetIndex(x,y)
            onQueueMap[i] = 0

            if lakeSize > mc.maxSiltPanSize:
                continue
            lakeSize += 1
##            print x,y
            lowestNeighborAlt = self.getLowestNeighborAltitude(x,y)
            self.averageHeightMap[i] = lowestNeighborAlt + 0.005
            for direction in range(1,5,1):
                xx,yy = GetXYFromDirection(x,y,direction)
                ii = GetIndex(xx,yy)
                if ii == -1:
                    continue
                if self.isLake(xx,yy) and onQueueMap[ii] == 0:
##                    print "appending lake at %d,%d" % (xx,yy)
                    lakeList.append((xx,yy,lakeSize))
                    onQueueMap[ii] = 1
##        print "returning from siltify"
##        print "largest length of lakeList = %d" % largestLength
        return
    def isLake(self,x,y):
        i = GetIndex(x,y)
        alt = self.averageHeightMap[i]
        if alt < 0.0:
            return False
        for direction in range(1,5,1):
            xx,yy = GetXYFromDirection(x,y,direction)
            ii = GetIndex(xx,yy)
            if ii == -1:
                continue
            if self.averageHeightMap[ii] < alt:
                return False
        return True
    def getLowestNeighborAltitude(self,x,y):
        lowest = 1.0
        for direction in range(1,5,1):
            xx,yy = GetXYFromDirection(x,y,direction)
            ii = GetIndex(xx,yy)
            if ii == -1:
                continue
            if self.averageHeightMap[ii] < lowest:
                lowest = self.averageHeightMap[ii]
        return lowest
    def createLakeDepressions(self):
        lakeList = []
        for y in range(mc.height):
            for x in range(mc.width):
                i = GetIndex(x,y)
                if self.averageHeightMap[i] > mc.minLakeAltitude:
                    lakeList.append((x,y))
        lakeList = ShuffleList(lakeList)
        numLakes = int(mc.height * mc.width * mc.numberOfLakesPerPlot)
        for n in range(numLakes):
            x,y = lakeList[n]
            i = GetIndex(x,y)
            lowestAlt = self.getLowestNeighborAltitude(x,y)
            if lowestAlt < 0.0:
                continue
            self.averageHeightMap[i] = lowestAlt - 0.001
        
    
    def printRiverMap(self):
        print "River Map"
        wz = WindZones(mc.height,80,-80)
        for y in range(mc.height - 1,-1,-1):
            lineString = ""
            for x in range(mc.width):
                mapLoc = self.riverMap[GetIndex(x,y)]
                if mapLoc == self.O:
                    lineString += '.'
                elif mapLoc == self.L:
                    lineString += 'L'
                elif mapLoc == self.N:
                    lineString += 'N'
                elif mapLoc == self.S:
                    lineString += 'S'
                elif mapLoc == self.E:
                    lineString += 'E'
                elif mapLoc == self.W:
                    lineString += 'W'
            lineString += "-" + wz.GetZoneName(wz.GetZone(y))
            print lineString
        lineString = " "
        print lineString
            
    def printFlowMap(self):
        print "Flow Map"
        wz = WindZones(mc.height,80,-80)
        for y in range(mc.height - 1,-1,-1):
            lineString = ""
            for x in range(mc.width):
                mapLoc = self.flowMap[GetIndex(x,y)]
                if mapLoc == self.O:
                    lineString += '.'
                elif mapLoc == self.L:
                    lineString += 'L'
                elif mapLoc == self.N:
                    lineString += 'N'
                elif mapLoc == self.S:
                    lineString += 'S'
                elif mapLoc == self.E:
                    lineString += 'E'
                elif mapLoc == self.W:
                    lineString += 'W'
            lineString += "-" + wz.GetZoneName(wz.GetZone(y))
            print lineString
        lineString = " "
        print lineString
    def printRiverAndTerrainAlign(self):
        print "River Alignment Check"
        for y in range(mc.height - 1,-1,-1):
            lineString1 = ""
            lineString2 = ""
            for x in range(mc.width):
                mapLoc = sm.terrainMap[GetIndex(x,y)]
                if mapLoc == mc.OCEAN:
                    lineString1 += ',.'
                elif mapLoc == mc.COAST:
                    lineString1 += ',.'
                elif mapLoc == mc.DESERT:
                    lineString1 += 'D.'
                elif mapLoc == mc.GRASS:
                    lineString1 += 'R.'
                elif mapLoc == mc.PLAINS:
                    lineString1 += 'P.'
                elif mapLoc == mc.TUNDRA:
                    lineString1 += 'T.'
                elif mapLoc == mc.MARSH:
                    lineString1 += 'M.'
                elif mapLoc == mc.SNOW:
                    lineString1 += 'I.'
                mapLoc = rm.riverMap[GetIndex(x,y)]
                if mapLoc == rm.O:
                    lineString2 += '..'
                elif mapLoc == rm.L:
                    lineString2 += '.L'
                elif mapLoc == rm.N:
                    lineString2 += '.^'
                elif mapLoc == rm.S:
                    lineString2 += '.v'
                elif mapLoc == rm.E:
                    lineString2 += '.>'
                elif mapLoc == rm.W:
                    lineString2 += '.<'
##            lineString1 += "-" + wz.GetZoneName(wz.GetZone(y))
##            lineString2 += "-" + wz.GetZoneName(wz.GetZone(y))
            print lineString1
            print lineString2
        lineString1 = " "
        print lineString1
class EuropeMap :
    def __init__(self):
        return
    def initialize(self):
        self.europeMap = array('i')
        for i in range(mc.width*mc.height):
            self.europeMap.append(0)
            
class BonusPlacer :
    def __init__(self):
        return
    def AddBonuses(self):
        gc = CyGlobalContext()
        gameMap = CyMap()
        gameMap.recalculateAreas()
        self.AssignBonusAreas()
        numBonuses = gc.getNumBonusInfos()
        for order in range(numBonuses):
            placementList = []
            for i in range(numBonuses):
                bonusInfo = gc.getBonusInfo(self.bonusList[i].eBonus)
                if bonusInfo.getPlacementOrder() == order:
                    for n in range(self.bonusList[i].desiredBonusCount):
                        placementList.append(self.bonusList[i].eBonus)
                        
            #Create a list of map indices and shuffle them
            plotIndexList = []
            for i in range(mc.width*mc.height):
                plotIndexList.append(i)
            plotIndexList = ShuffleList(plotIndexList)
            
            if len(placementList) > 0:
                placementList = ShuffleList(placementList)
                for eBonus in placementList:
                    self.AddBonusType(eBonus,plotIndexList)                        
                

        #now check to see that all resources have been placed at least once, this
        #pass ignoring area rules
        for i in range(numBonuses):
            bonus = self.bonusList[i]
            if bonus.currentBonusCount == 0 and bonus.desiredBonusCount > 0:
                self.AddEmergencyBonus(bonus,False)

        #now check again to see that all resources have been placed at least once,
        #this time ignoring area rules and also class spacing
        for i in range(numBonuses):
            bonus = self.bonusList[i]
            if bonus.currentBonusCount == 0 and bonus.desiredBonusCount > 0:
                self.AddEmergencyBonus(bonus,True)                                       

        #now report resources that simply could not be placed
        for i in range(numBonuses):
            bonus = self.bonusList[i]
            if bonus.currentBonusCount == 0 and bonus.desiredBonusCount > 0:
                bonusInfo = gc.getBonusInfo(bonus.eBonus)
                print "No room at all found for %(bt)s!!!" % {"bt":bonusInfo.getType()} 
        return
    def AddEmergencyBonus(self,bonus,ignoreClass):
        gc = CyGlobalContext()
        gameMap = CyMap()
        featureForest = gc.getInfoTypeForString("FEATURE_FOREST")
        plotIndexList = list()
        for i in range(mc.width*mc.height):
            plotIndexList.append(i)
        plotIndexList = ShuffleList(plotIndexList)
        bonusInfo = gc.getBonusInfo(bonus.eBonus)
        for i in range(len(plotIndexList)):
            index = plotIndexList[i]
            plot = gameMap.plotByIndex(index)
            x = plot.getX()
            y = plot.getY()
            if (ignoreClass and self.PlotCanHaveBonus(plot,bonus.eBonus,False,True)) or \
            self.CanPlaceBonusAt(plot,bonus.eBonus,False,True):
                #temporarily remove any feature
                featureEnum = plot.getFeatureType()
                if featureEnum == featureForest:
                    featureVariety = plot.getFeatureVariety()
                    plot.setFeatureType(FeatureTypes.NO_FEATURE,-1)
                #place bonus
                plot.setBonusType(bonus.eBonus)
                bonus.currentBonusCount += 1
                #restore the feature if possible
                if featureEnum == featureForest:
                    if bonusInfo == None or bonusInfo.isFeature(featureEnum):
                        plot.setFeatureType(featureEnum,featureVariety)
                print "Emergency placement of 1 %(bt)s" % {"bt":bonusInfo.getType()} 
                break
         
        return
    def AddBonusType(self,eBonus,plotIndexList):
        gc = CyGlobalContext()
        gameMap = CyMap()
        featureForest = gc.getInfoTypeForString("FEATURE_FOREST")
        #first get bonus/area link
        for i in range(gc.getNumBonusInfos()):
            if self.bonusList[i].eBonus == eBonus:
                bonus = self.bonusList[i]
        bonusInfo = gc.getBonusInfo(eBonus)
        
        if bonus.currentBonusCount >= bonus.desiredBonusCount:
            return False

        bonusPlaced = False
        #now add bonuses
        for i in range(len(plotIndexList)):
            index = plotIndexList[i]
            plot = gameMap.plotByIndex(index)
            x = plot.getX()
            y = plot.getY()
            if self.CanPlaceBonusAt(plot,eBonus,False,False):
                #temporarily remove any feature
                featureEnum = plot.getFeatureType()
                if featureEnum == featureForest:
                    featureVariety = plot.getFeatureVariety()
                    plot.setFeatureType(FeatureTypes.NO_FEATURE,-1)
                #place bonus
                plot.setBonusType(eBonus)
                bonusPlaced = True
                bonus.currentBonusCount += 1
                #restore the feature if possible
                if featureEnum == featureForest:
                    if bonusInfo == None or bonusInfo.isFeature(featureEnum) or (bonusInfo.getTechReveal() != TechTypes.NO_TECH):
                        plot.setFeatureType(featureEnum,featureVariety)
                groupRange = bonusInfo.getGroupRange()
                for dx in range(-groupRange,groupRange + 1):
                    for dy in range(-groupRange,groupRange + 1):
                        if bonus.currentBonusCount < bonus.desiredBonusCount:
                            loopPlot = self.plotXY(x,y,dx,dy)
                            if loopPlot != None:
                                if loopPlot.getX() == -1:
                                    raise ValueError, "plotXY returns invalid plots plot= %(x)d, %(y)d" % {"x":x,"y":y}
                                if self.CanPlaceBonusAt(loopPlot,eBonus,False,False):
                                    if PRand.randint(0,99) < bonusInfo.getGroupRand():
                                        #temporarily remove any feature
                                        featureEnum = loopPlot.getFeatureType()
                                        if featureEnum == featureForest:
                                            featureVariety = loopPlot.getFeatureVariety()
                                            loopPlot.setFeatureType(FeatureTypes.NO_FEATURE,-1)
                                        #place bonus
                                        loopPlot.setBonusType(eBonus)
                                        bonus.currentBonusCount += 1
                                        #restore the feature if possible
                                        if featureEnum == featureForest:
                                            if bonusInfo == None or bonusInfo.isFeature(featureEnum) or (bonusInfo.getTechReveal() != TechTypes.NO_TECH):
                                                loopPlot.setFeatureType(featureEnum,featureVariety)
            if bonusPlaced:
                break
        return bonusPlaced
    
    def plotXY(self,x,y,dx,dy):
        gameMap = CyMap()
        #The one that civ uses will return junk so I have to make one
        #that will not
        x = (x + dx) % mc.width
        y = y + dy
        if y < 0 or y > mc.height - 1:
            return None
        return gameMap.plot(x,y)
        
    def AssignBonusAreas(self):
        gc = CyGlobalContext()
        self.areas = CvMapGeneratorUtil.getAreas()
        gameMap = CyMap()
        self.bonusList = list()
        #Create and shuffle the bonus list and keep tally on
        #one-area bonuses and find the smallest min area requirement
        #among those
        numUniqueBonuses = 0
        minLandAreaSize = -1
        for i in range(gc.getNumBonusInfos()):
            bonus = BonusArea()
            bonus.eBonus = i
            self.bonusList.append(bonus)
            bonusInfo = gc.getBonusInfo(i)
            if bonusInfo.isOneArea() == True:
                numUniqueBonuses += 1
                minAreaSize = bonusInfo.getMinAreaSize()
                if (minLandAreaSize == -1 or minLandAreaSize > minAreaSize) and \
                minAreaSize > 0:
                    minLandAreaSize = minAreaSize
        self.bonusList = ShuffleList(self.bonusList)
        numBonuses = gc.getNumBonusInfos()
        for i in range(numBonuses):
            self.bonusList[i].desiredBonusCount = self.CalculateNumBonusesToAdd(self.bonusList[i].eBonus)
            bonusInfo = gc.getBonusInfo(self.bonusList[i].eBonus)
            eBonus = self.bonusList[i].eBonus
            if bonusInfo.isOneArea() == False:
                continue #Only assign areas to area bonuses
##            print "Trying to find room for %(bt)s, desiredCount=%(dc)d" % {"bt":bonusInfo.getType(),"dc":self.bonusList[i].desiredBonusCount}
            areaSuitabilityList = list()
            for area in self.areas:
                if area.getNumTiles() >= minLandAreaSize:
                    aS = AreaSuitability(area.getID())
                    aS.suitability,aS.numPossible = self.CalculateAreaSuitability(area,eBonus)
                    areaSuitabilityList.append(aS)
##                    print "suitability on areaID=%(aid)d, size=%(s)d is %(r)f" % \
##                    {"aid":area.getID(),"s":area.getNumTiles(),"r":aS.suitability}
            #Calculate how many areas to assign (numUniqueBonuses will be > 0 if we get here)
##            areasPerBonus = (len(areaSuitabilityList)/numUniqueBonuses) + 1
            areasPerBonus =  1
            #Sort areaSuitabilityList best first
            areaSuitabilityList.sort(lambda x,y:cmp(x.numPossible,y.numPossible))
            areaSuitabilityList.reverse()
            #assign the best areas to this bonus
            for n in range(areasPerBonus):
                self.bonusList[i].areaList.append(areaSuitabilityList[n].areaID)
            #assign areas that have a high suitability also
            for n in range(areasPerBonus,len(areaSuitabilityList)):
                if areaSuitabilityList[n].suitability > 0.3:
                    self.bonusList[i].areaList.append(areaSuitabilityList[n].areaID)
        return
    def CanPlaceBonusAt(self,plot,eBonus,bIgnoreLatitude,bIgnoreArea):
        gc = CyGlobalContext()
        gameMap = CyMap()
        x = plot.getX()
        y = plot.getY()
        areaID = plot.getArea()
        if self.PlotCanHaveBonus(plot,eBonus,bIgnoreLatitude,bIgnoreArea) == False:
            return False
        for i in range(DirectionTypes.NUM_DIRECTION_TYPES):
            loopPlot = plotDirection(x,y,DirectionTypes(i))
            if loopPlot.getBonusType(TeamTypes.NO_TEAM) != BonusTypes.NO_BONUS and loopPlot.getBonusType(TeamTypes.NO_TEAM) != eBonus:
               return False

        bonusInfo = gc.getBonusInfo(eBonus)
        classInfo = gc.getBonusClassInfo(bonusInfo.getBonusClassType())
        if plot.isWater() == True:
            if gameMap.getNumBonusesOnLand(eBonus) * 100/(gameMap.getNumBonuses(eBonus) + 1) < bonusInfo.getMinLandPercent():
                return False
        #Make sure there are no bonuses of the same class (but a different type) nearby:
        if classInfo != None:
            try:
                iRange = classInfo.getUniqueRange()
            except:
                iRange = classInfo.getUniqueRange #<--attribute for vanilla
                
            iRange = max(0,int(iRange - (round(mc.BonusBonus) - 1)))
            
            for dx in range(-iRange,iRange+1):
                for dy in range(-iRange,iRange+1):
                    loopPlot = self.plotXY(x,y,dx,dy)
                    if loopPlot != None:
                        if areaID == loopPlot.getArea():
                            if plotDistance(x, y, loopPlot.getX(), loopPlot.getY()) <= iRange:
                                eOtherBonus = loopPlot.getBonusType(TeamTypes.NO_TEAM)
                                if eOtherBonus != BonusTypes.NO_BONUS:
                                    if gc.getBonusInfo(eOtherBonus).getBonusClassType() == bonusInfo.getBonusClassType():
                                        return False
        #Make sure there are no bonuses of the same type nearby:
        iRange = bonusInfo.getUniqueRange()
        iRange = max(0,int(iRange - (round(mc.BonusBonus) - 1)))
        for dx in range(-iRange,iRange+1):
            for dy in range(-iRange,iRange+1):
                loopPlot = self.plotXY(x,y,dx,dy)
                if loopPlot != None:
                    if areaID == loopPlot.getArea():
                        if plotDistance(x, y, loopPlot.getX(), loopPlot.getY()) <= iRange:
                            eOtherBonus = loopPlot.getBonusType(TeamTypes.NO_TEAM)
                            if eOtherBonus != BonusTypes.NO_BONUS:
                                if eOtherBonus == eBonus:
                                    return False
                           
                    
        return True
    def PlotCanHaveBonus(self,plot,eBonus,bIgnoreLatitude,bIgnoreArea):
        #This function is like CvPlot::canHaveBonus but will
        #ignore blocking features and checks for a valid area. 
        gc = CyGlobalContext()
        featureForest = gc.getInfoTypeForString("FEATURE_FOREST")
        if eBonus == BonusTypes.NO_BONUS:
            return True
        if plot.getBonusType(TeamTypes.NO_TEAM) != BonusTypes.NO_BONUS:
            return False
        if plot.isPeak() == True:
            return False
        bonusInfo = gc.getBonusInfo(eBonus)
        #Here is the change from canHaveBonus. Forest does not block bonus
        requiresForest = bonusInfo.isFeature(featureForest)
        plotIsForest = plot.getFeatureType() == featureForest
        #To avoid silk and spices on ice/tundra
        if plotIsForest and requiresForest:
            if bonusInfo.isFeatureTerrain(plot.getTerrainType()) == False:
                return False
        #now that bonuses that require forest are dealt with, count forest
        #as no feature
        else:
            if plot.getFeatureType() != FeatureTypes.NO_FEATURE and not plotIsForest:
                if bonusInfo.isFeature(plot.getFeatureType()) == False:
                    return False           
                if bonusInfo.isFeatureTerrain(plot.getTerrainType()) == False:
                    return False              
            else:
                if bonusInfo.isTerrain(plot.getTerrainType()) == False:
                    return False
                
        if plot.isHills() == True:
            if bonusInfo.isHills() == False:
                return False
        if plot.isFlatlands() == True:
            if bonusInfo.isFlatlands() == False:
                return False
        if bonusInfo.isNoRiverSide() == True:
            if plot.isRiverSide() == True:
                return False
        if bonusInfo.getMinAreaSize() != -1:
            if plot.area().getNumTiles() < bonusInfo.getMinAreaSize():
                return False
        if bIgnoreLatitude == False:
            if plot.getLatitude() > bonusInfo.getMaxLatitude():
                return False
            if plot.getLatitude() < bonusInfo.getMinLatitude():
                return False
        if plot.isPotentialCityWork() == False:
            return False
        
        if (bIgnoreArea == False and bonusInfo.isOneArea() == True and
                 mc.spreadResources == False):
            areaID = plot.getArea()
            areaFound = False
            for i in range(len(self.bonusList)):
                if self.bonusList[i].eBonus == eBonus:
                    areaList = self.bonusList[i].areaList
                    for n in range(len(areaList)):
                        if areaList[n] == areaID:
                            areaFound = True
                            break
                    if areaFound == True:
                        break
            if areaFound == False:
                return False
                        
        return True
    def CalculateNumBonusesToAdd(self,eBonus):
        #This is like the function in CvMapGenerator except it uses
        #self.PlotCanHaveBonus instead of CvPlot::canHaveBonus
        gc = CyGlobalContext()
        gameMap = CyMap()
        game = CyGame()
        bonusInfo = gc.getBonusInfo(eBonus)
        rand1 = PRand.randint(0,bonusInfo.getRandAppearance1())
        rand2 = PRand.randint(0,bonusInfo.getRandAppearance2())
        rand3 = PRand.randint(0,bonusInfo.getRandAppearance3())
        rand4 = PRand.randint(0,bonusInfo.getRandAppearance4())
        baseCount = bonusInfo.getConstAppearance() + rand1 + rand2 + rand3 + rand4

        bIgnoreLatitude = False
        bIgnoreArea = True
        landTiles = 0
        numPossible = 0
        if bonusInfo.getTilesPer() > 0:
            for i in range(mc.width*mc.height):
                plot = gameMap.plotByIndex(i)
                if self.PlotCanHaveBonus(plot,eBonus,bIgnoreLatitude,bIgnoreArea):
                    numPossible += 1
            landTiles += numPossible/bonusInfo.getTilesPer()
        players = game.countCivPlayersAlive() * bonusInfo.getPercentPerPlayer()/100
        bonusCount = baseCount * (landTiles + players)/100
        bonusCount = max(1,int(bonusCount * mc.BonusBonus))
##        print "Calculating bonus amount for %(bt)s" % {"bt":bonusInfo.getType()}
##        print "baseCount=%(bc)d, numPossible=%(np)d, landTiles=%(lt)d, players=%(p)d" % \
##        {"bc":baseCount,"np":numPossible,"lt":landTiles,"p":players}
##        print ""
        return bonusCount
    
    def GetUniqueBonusTypeCountInArea(self,area):
        gc = CyGlobalContext()
        areaID = area.getID()
        uniqueBonusCount = 0
        for i in range(len(self.bonusList)):
            areaList = self.bonusList[i].areaList
            bonusInfo = gc.getBonusInfo(self.bonusList[i].eBonus)
            if bonusInfo.isOneArea() == False:
                continue
            for n in range(len(areaList)):
                if areaList[n] == areaID:
                    uniqueBonusCount += 1
                    break

        return uniqueBonusCount 
    
    def GetSameClassTypeCountInArea(self,area,eBonus):
        gc = CyGlobalContext()
        areaID = area.getID()
        uniqueBonusCount = 0
        bonusInfo = gc.getBonusInfo(eBonus)
        eClass = bonusInfo.getBonusClassType()
        if eClass == BonusClassTypes.NO_BONUSCLASS:
            return 0
        classInfo = gc.getBonusClassInfo(eClass)
        if classInfo == None:
            return 0

        try:
            uRange = classInfo.getUniqueRange()
        except:
            uRange = classInfo.getUniqueRange #<--vanilla Civ4

        uRange = max(0,int(uRange - (round(mc.BonusBonus) - 1)))
                        
        for i in range(len(self.bonusList)):
            areaList = self.bonusList[i].areaList
            bonusInfo = gc.getBonusInfo(self.bonusList[i].eBonus)
            if bonusInfo.isOneArea() == False:
                continue
            if bonusInfo.getBonusClassType() != eClass:
                continue
            for n in range(len(areaList)):
                if areaList[n] == areaID:
                    uniqueBonusCount += 1
                    break
        #Same class types tend to really crowd out any bonus
        #types that are placed later. A single cow can block
        #5 * 5 squares of pig territory for example. Probably
        #shouldn't place them on the same area at all, but
        #sometimes it might be necessary.
        return uniqueBonusCount * uRange * uRange
   
    def CalculateAreaSuitability(self,area,eBonus):
        gc = CyGlobalContext()
        gameMap = CyMap()
        areaID = area.getID()
        uniqueTypesInArea = self.GetUniqueBonusTypeCountInArea(area)
        sameClassTypesInArea = self.GetSameClassTypeCountInArea(area,eBonus)
        #Get the raw number of suitable tiles
        numPossible = 0
        for i in range(mc.width*mc.height):
            plot = gameMap.plotByIndex(i)
            if plot.getArea() == areaID:
                if self.PlotCanHaveBonus(plot,eBonus,False,True):
                    numPossible += 1
        numPossible = numPossible/(uniqueTypesInArea + sameClassTypesInArea + 1)
        suitability = float(numPossible)/float(area.getNumTiles())
        return suitability,numPossible
#Global Access
bp = BonusPlacer()

class BonusArea :
    def __init__(self):
        self.eBonus = -1
        self.desiredBonusCount = -1
        self.currentBonusCount = 0
        self.areaList = list()
            
class AreaSuitability :
    def __init__(self,areaID):
        self.areaID = areaID
        self.suitability = 0
        self.numPossible = 0
        
class StartingPlotFinder :
    def __init__(self):
        return
    def SetStartingPlots(self):
        try:
            gc = CyGlobalContext()
            gameMap = CyMap()
            iPlayers = gc.getGame().countCivPlayersEverAlive()
            gameMap.recalculateAreas()
            areas = CvMapGeneratorUtil.getAreas()

            #get old/new world status
            areaOldWorld = self.setupOldWorldAreaList()
            
            print "len(areaOldWorld) = %d" % len(areaOldWorld)
            
            #Shuffle players so the same player doesn't always get the first pick.
            #lifted from Highlands.py that ships with Civ.
            player_list = []
            for plrCheckLoop in range(gc.getMAX_CIV_PLAYERS()):
                    if CyGlobalContext().getPlayer(plrCheckLoop).isEverAlive():
                            player_list.append(plrCheckLoop)
            shuffledPlayers = []
            for playerLoop in range(iPlayers):
                    iChoosePlayer = PRand.randint(0,len(player_list)-1)
                    shuffledPlayers.append(player_list[iChoosePlayer])
                    del player_list[iChoosePlayer]

            self.startingAreaList = list()
            for i in range(len(areas)):
                if areaOldWorld[i] == True and areas[i].getNumTiles() > 5:
                    startArea = StartingArea(areas[i].getID())
                    self.startingAreaList.append(startArea)

            #Get the value of the whole old world
            oldWorldValue = 0
            for i in range(len(self.startingAreaList)):
                oldWorldValue += self.startingAreaList[i].rawValue

            #calulate value per player of old world
            oldWorldValuePerPlayer = oldWorldValue/len(shuffledPlayers)

            #Sort startingAreaList by rawValue
            self.startingAreaList.sort(lambda x, y: cmp(x.rawValue, y.rawValue))

            #Get rid of areas that have less value than oldWorldValuePerPlayer
            #as they are too small to put a player on, however leave at least
            #half as many continents as there are players, just in case the
            #continents are *all* quite small. 
            numAreas = max(1,len(self.startingAreaList) - len(shuffledPlayers)/2)
            for i in range(numAreas):
                if self.startingAreaList[0].rawValue < oldWorldValuePerPlayer:
                    del self.startingAreaList[0]
                else:
                    break #All remaining should be big enough
                
            #Recalculate the value of the whole old world
            oldWorldValue = 0
            for i in range(len(self.startingAreaList)):
                oldWorldValue += self.startingAreaList[i].rawValue

            #Recalulate value per player of old world so we are starting more
            #accurately
            oldWorldValuePerPlayer = oldWorldValue/len(shuffledPlayers)

            #Record the ideal number of players for each continent
            for startingArea in self.startingAreaList:
                startingArea.idealNumberOfPlayers = int(round(float(startingArea.rawValue)/float(oldWorldValuePerPlayer)))

            #Now we want best first
            self.startingAreaList.reverse()
            print "number of starting areas is %(s)3d" % {"s":len(self.startingAreaList)}

            iterations = 0
            while True:
                iterations += 1
                if iterations > 20:
                    raise ValueError, "Too many iterations in starting area choosing loop."
                chosenStartingAreas = list()
                playersPlaced = 0
                #add up idealNumbers
                idealNumbers = 0
                for startingArea in self.startingAreaList:
                    idealNumbers += startingArea.idealNumberOfPlayers
                if idealNumbers < len(shuffledPlayers):
                    self.startingAreaList[0].idealNumberOfPlayers += 1
                elif idealNumbers > len(shuffledPlayers):
                    self.startingAreaList[0].idealNumberOfPlayers -= 1

                #Choose areas
                for startingArea in self.startingAreaList:
                    if startingArea.idealNumberOfPlayers + playersPlaced <= len(shuffledPlayers):
                        chosenStartingAreas.append(startingArea)
                        playersPlaced += startingArea.idealNumberOfPlayers
                        
                #add up idealNumbers again
                idealNumbers = 0
                for startingArea in chosenStartingAreas:
                    idealNumbers += startingArea.idealNumberOfPlayers
                if idealNumbers == len(shuffledPlayers):
                    break
                
            for startingArea in chosenStartingAreas:
                for i in range(startingArea.idealNumberOfPlayers):
                    startingArea.playerList.append(shuffledPlayers[0])
                    del shuffledPlayers[0]
                startingArea.FindStartingPlots()
                            
            if len(shuffledPlayers) > 0:
                raise ValueError,"Some players not placed in starting plot finder!"

            #Now set up for normalization
            self.plotList = list()
            for startingArea in self.startingAreaList:
                for i in range(len(startingArea.plotList)):
    ##                print len(startingArea.plotList)
                    self.plotList.append(startingArea.plotList[i])
                    
            #Remove bad features. (Jungle in the case of standard game)
            #also ensure minimum hills
            for i in range(len(self.plotList)):
                if self.plotList[i].vacant == True:
                    continue
                             
                self.ensureMinimumHills(self.plotList[i].x,self.plotList[i].y)
            
                            
            #find the best totalValue
            self.plotList.sort(lambda x,y:cmp(x.totalValue,y.totalValue))
            self.plotList.reverse()
            bestTotalValue = self.plotList[0].totalValue
            print "bestTotalValue = %(b)6d" % {"b":bestTotalValue}
            for i in range(len(self.plotList)):
                if self.plotList[i].vacant == True:
                    continue
                currentTotalValue = self.plotList[i].totalValue
                percentLacking = 1.0 - (float(currentTotalValue)/float(bestTotalValue))
                if percentLacking > 0:
                    bonuses = min(5,int(percentLacking/0.2))
                    print "boosting plot by %(bv)d" % \
                    {"bv":bonuses}
                    self.boostCityPlotValue(self.plotList[i].x,self.plotList[i].y,bonuses,self.plotList[i].isCoast())

            #add bonuses due to player difficulty settings        
            self.addHandicapBonus()

        except Exception, e:
            errorPopUp("PerfectWorld's starting plot finder has failed due to a rarely occuring bug, and this map likely has unfair starting locations. You may wish to quit this game and generate a new map.")
            raise Exception, e            
        return
    
    def setupOldWorldAreaList(self):
        gc = CyGlobalContext()
        gameMap = CyMap()
        #get official areas and make corresponding lists that determines old
        #world vs. new and also the pre-settled value.
        areas = CvMapGeneratorUtil.getAreas()
        areaOldWorld = list()

        print "number of map areas = %d" % len(areas)
        for i in range(len(areas)):
            for pI in range(mc.height*mc.width):
                plot = gameMap.plotByIndex(pI)
                if plot.getArea() == areas[i].getID():
                    if mc.AllowNewWorld and continentMap.areaMap.areaMap[pI] == continentMap.newWorldID:
                        areaOldWorld.append(False)#new world true = old world false
                    else:
                        areaOldWorld.append(True)
                    break

            
        return areaOldWorld
    def getCityPotentialValue(self,x,y):
        gc = CyGlobalContext()
        gameMap = CyMap()
#        game.gc.getGame()
        totalValue = 0
        totalFood = 0
        plot = gameMap.plot(x,y)
        if plot.isWater() == True:
            return 0,0
        if plot.isImpassable() == True:
            return 0,0
        cityPlotList = list()
        #The StartPlot class has a nifty function to determine
        #salt water vs. fresh
        start = plot
        sPlot = StartPlot(x,y,0)
        for i in range(gc.getNUM_CITY_PLOTS()):
            plot = plotCity(x,y,i)
            if not plot.isWater() and plot.getArea() != start.getArea():
                food,value = 0,0
            else:
                food,value = self.getPlotPotentialValue(plot.getX(),plot.getY(),sPlot.isCoast())
            totalFood += food
            cPlot = CityPlot(food,value)
            cityPlotList.append(cPlot)
        usablePlots = totalFood/gc.getFOOD_CONSUMPTION_PER_POPULATION()
        cityPlotList.sort(lambda x,y:cmp(x.value,y.value))
        cityPlotList.reverse()
        #value is obviously limited to available food
        if usablePlots > gc.getNUM_CITY_PLOTS():
            usablePlots = gc.getNUM_CITY_PLOTS()
        for i in range(usablePlots):
            cPlot = cityPlotList[i]
            totalValue += cPlot.value
        #The StartPlot class has a nifty function to determine
        #salt water vs. fresh
        sPlot = StartPlot(x,y,0)
        if sPlot.isCoast() == True:
            totalValue = int(float(totalValue) * mc.CoastalCityValueBonus)
        if sPlot.isRiverSide() == True:
            totalValue = int(float(totalValue) * mc.RiverCityValueBonus)
                
        return totalFood,totalValue
    def getPlotPotentialValue(self,x,y,coastalCity):
        gc = CyGlobalContext()
        gameMap = CyMap()
        game = gc.getGame()
        debugOut = False
        value = 0
        commerce = 0
        food = 0
        production = 0
        plot = gameMap.plot(x,y)
        if debugOut: print "Evaluating plot x = %(x)d, y = %(y)d" % {"x":x,"y":y}
        commerce += plot.calculateBestNatureYield(YieldTypes.YIELD_COMMERCE,TeamTypes.NO_TEAM)
        food += plot.calculateBestNatureYield(YieldTypes.YIELD_FOOD,TeamTypes.NO_TEAM)
        production += plot.calculateBestNatureYield(YieldTypes.YIELD_PRODUCTION,TeamTypes.NO_TEAM)
        if debugOut: print "Natural yields. Food=%(f)d, Production=%(p)d, Commerce=%(c)d" % \
        {"f":food,"p":production,"c":commerce}
        #Get best bonus improvement score. Test tachnology era of bonus
        #first, then test each improvement
        bestImp = None
        bonusEnum = plot.getBonusType(TeamTypes.NO_TEAM) 
        bonusInfo = gc.getBonusInfo(bonusEnum)
        if bonusInfo != None and (gc.getTechInfo(bonusInfo.getTechCityTrade()) == None or \
        gc.getTechInfo(bonusInfo.getTechCityTrade()).getEra() <= game.getStartEra()) and \
        (gc.getTechInfo(bonusInfo.getTechReveal()) == None or \
        gc.getTechInfo(bonusInfo.getTechReveal()).getEra() <= game.getStartEra()): 
            if bonusInfo == None:
                if debugOut: print "Bonus Type = None"
            else:
                if debugOut: print "Bonus Type = %(b)s <------------------------------------------------------------" % {"b":bonusInfo.getType()}
            commerce += bonusInfo.getYieldChange(YieldTypes.YIELD_COMMERCE)
            food += bonusInfo.getYieldChange(YieldTypes.YIELD_FOOD)
            production += bonusInfo.getYieldChange(YieldTypes.YIELD_PRODUCTION)
            if debugOut: print "Bonus yields. Food=%(f)d, Production=%(p)d, Commerce=%(c)d" % \
            {"f":food,"p":production,"c":commerce}
        else:
            bonusEnum = -1
            bonusInfo = None
        improvementList = list()
        for n in range(gc.getNumBuildInfos()):
            #Test for improvement validity
            buildInfo = gc.getBuildInfo(n)
            impEnum = buildInfo.getImprovement()
            impInfo = gc.getImprovementInfo(impEnum)
            if impInfo == None:
                continue
            #some mods use improvements for other things, so if there's no tech requirement we still don't want it factored in.
            if buildInfo.getTechPrereq() == TechTypes.NO_TECH or gc.getTechInfo(buildInfo.getTechPrereq()).getEra() > game.getStartEra():
                if debugOut: print "Tech era not high enough for %(s)s" % {"s":impInfo.getType()}
                continue
            else:
                if debugOut: print "Tech is high enough for %(s)s" % {"s":impInfo.getType()}
            if plot.canHaveImprovement(impEnum,TeamTypes.NO_TEAM,True) == True:
                if debugOut: print "Plot can have %(s)s" % {"s":impInfo.getType()}
                #This function will not find bonus yield changes for NO_PLAYER much to my annoyance
                impCommerce = plot.calculateImprovementYieldChange(impEnum,YieldTypes.YIELD_COMMERCE,PlayerTypes.NO_PLAYER,False)
                impFood = plot.calculateImprovementYieldChange(impEnum,YieldTypes.YIELD_FOOD,PlayerTypes.NO_PLAYER,False)
                impProduction = plot.calculateImprovementYieldChange(impEnum,YieldTypes.YIELD_PRODUCTION,PlayerTypes.NO_PLAYER,False)

                if bonusEnum != -1:
                    impCommerce += impInfo.getImprovementBonusYield(bonusEnum,YieldTypes.YIELD_COMMERCE)
                    impFood += impInfo.getImprovementBonusYield(bonusEnum,YieldTypes.YIELD_FOOD)
                    impProduction += impInfo.getImprovementBonusYield(bonusEnum,YieldTypes.YIELD_PRODUCTION)
                #See if feature is removed, if so we must subtract the added yield
                #from that feature
                featureEnum = plot.getFeatureType()
                if featureEnum != -1 and buildInfo.isFeatureRemove(featureEnum) == True:
                    featureInfo = gc.getFeatureInfo(featureEnum)
                    if debugOut: print "Removing feature %(s)s" % {"s":featureInfo.getType()}
                    impCommerce -= (featureInfo.getYieldChange(YieldTypes.YIELD_COMMERCE) + \
                    featureInfo.getRiverYieldChange(YieldTypes.YIELD_COMMERCE) + \
                    featureInfo.getHillsYieldChange(YieldTypes.YIELD_COMMERCE))
                    
                    impFood -= (featureInfo.getYieldChange(YieldTypes.YIELD_FOOD) + \
                    featureInfo.getRiverYieldChange(YieldTypes.YIELD_FOOD) + \
                    featureInfo.getHillsYieldChange(YieldTypes.YIELD_FOOD))
                    
                    impProduction -= (featureInfo.getYieldChange(YieldTypes.YIELD_PRODUCTION) + \
                    featureInfo.getRiverYieldChange(YieldTypes.YIELD_PRODUCTION) + \
                    featureInfo.getHillsYieldChange(YieldTypes.YIELD_PRODUCTION))
                
                imp = Improvement(impEnum,impFood,impProduction,impCommerce,0)
                improvementList.append(imp)
                if debugOut: print "Improv yields. Food=%(f)d, Production=%(p)d, Commerce=%(c)d" % \
                {"f":impFood,"p":impProduction,"c":impCommerce}
            else:
                if debugOut: print "Plot can not have %(s)s" % {"s":impInfo.getType()}
                            
        for i in range(len(improvementList)):
            impCommerce = improvementList[i].commerce + commerce
            impFood = improvementList[i].food + food
            impProduction = improvementList[i].production + production
            impValue = impCommerce * mc.CommerceValue + impFood * mc.FoodValue + impProduction * mc.ProductionValue
            #Food surplus makes the square much more valueable than if there
            #is no food here.
            if food >= gc.getFOOD_CONSUMPTION_PER_POPULATION():
                impValue *= 4
            elif food == gc.getFOOD_CONSUMPTION_PER_POPULATION() - 1:
                impValue *= 2
            improvementList[i].value = impValue
        if len(improvementList) > 0:
            #sort all allowed improvement values to find the best
            improvementList.sort(lambda x,y:cmp(x.value,y.value))
            improvementList.reverse()
            bestImp = improvementList[0]
            if debugOut: print "bestImp.value=%(b)d" % {"b":bestImp.value}    
            commerce += bestImp.commerce
            food += bestImp.food
            production += bestImp.production
        else:
            if debugOut: print "no improvement possible here"
        value = commerce * mc.CommerceValue + food * mc.FoodValue + production * mc.ProductionValue
        if debugOut: print "Evaluating. Food=%(f)d, Production=%(p)d, Commerce=%(c)d" % \
        {"f":food,"p":production,"c":commerce}
        #Try to avoid included water food resources for non-coastal starts. It confuses the AI.
        if not coastalCity and plot.isWater():
            value = 0
        #Food surplus makes the square much more valueable than if there
        #is no food here.
        if food >= gc.getFOOD_CONSUMPTION_PER_POPULATION():
            value *= 4
        elif food == gc.getFOOD_CONSUMPTION_PER_POPULATION() - 1:
            value *= 2
        if food + commerce + production < 3:
            value = 0
        if debugOut: print "Final Value = %(v)d" % {"v":value}
        if debugOut: print "****************************************************************"
            
        return food,value
    def boostCityPlotValue(self,x,y,bonuses,isCoastalCity):
        mapGen = CyMapGenerator()
        food,value = self.getCityPotentialValue(x,y)
        debugOut = False
        if debugOut: print "Value before boost = %(v)d" % {"v":value}
        gc = CyGlobalContext()
        gameMap = CyMap()
        game = gc.getGame()
        #Shuffle the bonus order so that different cities have different preferences
        #for bonuses
        bonusList = list()
        numBonuses = gc.getNumBonusInfos()
        for i in range(numBonuses):
            bonusList.append(i)
        shuffledBonuses = list()
        for i in range(numBonuses):
            n = PRand.randint(0,len(bonusList) - 1)
            shuffledBonuses.append(bonusList[n])
            del bonusList[n]

        if len(shuffledBonuses) != numBonuses:
            raise ValueError, "Bad bonus shuffle. Learn 2 shuffle."

        bonusCount = 0
        
        #Do this process in 3 passes for each yield type, then an extra production pass
        yields = []
        yields.append(YieldTypes.YIELD_PRODUCTION)
        yields.append(YieldTypes.YIELD_COMMERCE)
        yields.append(YieldTypes.YIELD_FOOD)
        yields.append(YieldTypes.YIELD_PRODUCTION)

        for n in range(len(yields)):
            for i in range(gc.getNUM_CITY_PLOTS()):
                food,value = self.getCityPotentialValue(x,y)
                
                #switch to food if food is needed
                usablePlots = food/gc.getFOOD_CONSUMPTION_PER_POPULATION()
                if usablePlots <= gc.getNUM_CITY_PLOTS()/2:
                    yields[n] = YieldTypes.YIELD_FOOD
                    
                if debugOut: print "value now at %(v)d" % {"v":value}
                if bonusCount >= bonuses:
                    if debugOut: print "Placed all bonuses."
                    if debugOut: print "****************************************************"
                    return
                plot = plotCity(x,y,i)
                if plot.getX() == x and plot.getY() == y:
                    continue
                if plot.isWater() and not isCoastalCity:
                    continue
                if not plot.isWater() and gameMap.plot(x,y).getArea() != plot.getArea():
                    continue
                if plot.getBonusType(TeamTypes.NO_TEAM) != BonusTypes.NO_BONUS:
                    continue
                #temporarily remove any feature
                featureEnum = plot.getFeatureType()
                if featureEnum != FeatureTypes.NO_FEATURE:
                    featureVariety = plot.getFeatureVariety()
                    plot.setFeatureType(FeatureTypes.NO_FEATURE,-1)
                for b in range(gc.getNumBonusInfos()):
                    bonusEnum = shuffledBonuses[b]
                    bonusInfo = gc.getBonusInfo(bonusEnum)
                    if bonusInfo.isNormalize() == False:
                        continue
                    if bonusInfo.getYieldChange(yields[n]) < 1:
                        continue
                    if bonusInfo.getTechCityTrade() == TechTypes.NO_TECH or \
                    gc.getTechInfo(bonusInfo.getTechCityTrade()).getEra() <= game.getStartEra():
                        if bp.PlotCanHaveBonus(plot,bonusEnum,False,False) == False:
                            if debugOut: print "Plot can't have %(b)s" % {"b":bonusInfo.getType()}
                            continue
                        if debugOut: print "Setting bonus type at %(x)d,%(y)d to %(b)s" % \
                        {"x":plot.getX(),"y":plot.getY(),"b":bonusInfo.getType()}
                        plot.setBonusType(bonusEnum)
                        bonusCount += 1
                        break
                #restore the feature if possible
                if featureEnum != FeatureTypes.NO_FEATURE:
                    bonusInfo = gc.getBonusInfo(plot.getBonusType(TeamTypes.NO_TEAM))
                    if bonusInfo == None or bonusInfo.isFeature(featureEnum):
                        plot.setFeatureType(featureEnum,featureVariety)                             
                
        if debugOut: print "Failed to boost city value. value= %(v)d" % {"v":value}
        if debugOut: print "****************************************************"
        return
    def ensureMinimumHills(self,x,y):
        gc = CyGlobalContext()
        gameMap = CyMap()
        hillsFound = 0
        peaksFound = 0
        badFeaturesFound = 0
        plotList = []
        for i in range(gc.getNUM_CITY_PLOTS()):
            plot = plotCity(x,y,i)
            featureInfo = gc.getFeatureInfo(plot.getFeatureType())
            if plot.getX() == x and plot.getY() == y:
                #remove bad feature on start but don't count it.
                if featureInfo != None:
                    totalYield = 0
                    for yi in range(YieldTypes.NUM_YIELD_TYPES):
                        totalYield += featureInfo.getYieldChange(YieldTypes(yi))
                    if totalYield <= 0:#bad feature
                        plot.setFeatureType(FeatureTypes.NO_FEATURE,-1)
                continue
            if plot.getPlotType() == PlotTypes.PLOT_HILLS and gameMap.plot(x,y).getArea() == plot.getArea():
                hillsFound += 1
            if plot.getPlotType() == PlotTypes.PLOT_PEAK:
                peaksFound += 1
            if featureInfo != None:
                #now count the bad features
                totalYield = 0
                for yi in range(YieldTypes.NUM_YIELD_TYPES):
                    totalYield += featureInfo.getYieldChange(YieldTypes(yi))
                if totalYield <= 0:#bad feature
                    badFeaturesFound += 1
            if plot.isWater():
                continue
            if plot.getBonusType(TeamTypes.NO_TEAM) != BonusTypes.NO_BONUS:
                continue
            plotList.append(plot)
        print "badFeaturesFound=%d" % badFeaturesFound
        plotList = ShuffleList(plotList)
        #ensure maximum number of peaks
        if peaksFound > mc.MaxPeaksInFC:
            for plot in plotList:
                if peaksFound == mc.MaxPeaksInFC:
                    break
                if plot.getPlotType() == PlotTypes.PLOT_PEAK:
                    plot.setPlotType(PlotTypes.PLOT_HILLS,True,True)
                    if plot.getArea() == gameMap.plot(x,y).getArea():
                        hillsFound += 1
                    peaksFound -= 1
                    
        #ensure maximum number of bad features
        if badFeaturesFound > mc.MaxBadFeaturesInFC:
            #first loop for hill tiles, then...
            for plot in plotList:
                featureInfo = gc.getFeatureInfo(plot.getFeatureType())
                if badFeaturesFound == mc.MaxBadFeaturesInFC/2: #truncation on this operation will prefer to remove on flats, which is desirable
                    break
                if featureInfo != None and plot.getPlotType() == PlotTypes.PLOT_HILLS:
                    totalYield = 0
                    for yi in range(YieldTypes.NUM_YIELD_TYPES):
                        totalYield += featureInfo.getYieldChange(YieldTypes(yi))
                    if totalYield <= 0:#bad feature
                        badFeaturesFound -= 1
                        print "clearing bad feature from hill"
                        plot.setFeatureType(FeatureTypes.NO_FEATURE,-1)
                        
            #loop for flat tiles, this way land is cleared on both hills and flats in FC
            for plot in plotList:
                featureInfo = gc.getFeatureInfo(plot.getFeatureType())
                if badFeaturesFound == mc.MaxBadFeaturesInFC:
                    break
                if featureInfo != None and plot.getPlotType() == PlotTypes.PLOT_LAND:
                    totalYield = 0
                    for yi in range(YieldTypes.NUM_YIELD_TYPES):
                        totalYield += featureInfo.getYieldChange(YieldTypes(yi))
                    if totalYield <= 0:#bad feature
                        badFeaturesFound -= 1
                        print "clearing bad feature from flat land"
                        plot.setFeatureType(FeatureTypes.NO_FEATURE,-1)
        
        #Ensure minimum number of hills
        plotList = ShuffleList(plotList) #need to re-shuffle so that hills are not the same as removed bad features
        hillsNeeded = mc.MinHillsInFC - hillsFound
        print "hills found = %d, hills needed = %d" % (hillsFound,hillsNeeded)
        if hillsNeeded > 0:
            for plot in plotList:
                if hillsNeeded <= 0:
                    break
                featureInfo = gc.getFeatureInfo(plot.getFeatureType())
                bonusInfo = gc.getBonusInfo(plot.getBonusType(TeamTypes.NO_TEAM))
                if plot.getPlotType() != PlotTypes.PLOT_HILLS and \
                plot.getArea() == gameMap.plot(x,y).getArea() and \
                (featureInfo == None or not featureInfo.isRequiresFlatlands()) and \
                (bonusInfo == None or not bonusInfo.isRequiresFlatlands()):
                    plot.setPlotType(PlotTypes.PLOT_HILLS,True,True)
                    hillsNeeded -= 1
                    print "adding hill"
            if hillsNeeded > 0:
                print "failed to add minimum hills!!!!!!!!!!"

    def addHandicapBonus(self):
        gc = CyGlobalContext()
        for ePlayer in range(gc.getMAX_CIV_PLAYERS()):
            player = gc.getPlayer(ePlayer)
            if player.isEverAlive() and player.isHuman():
                eHandicap = player.getHandicapType()
                startPlot = player.getStartingPlot()
                sPlot = StartPlot(startPlot.getX(),startPlot.getY(),0)
                if eHandicap == gc.getInfoTypeForString("HANDICAP_SETTLER"):
                    if mc.SettlerBonus > 0:
                        print "Human player at Settler difficulty, adding %d resources" % mc.SettlerBonus
                        self.boostCityPlotValue(startPlot.getX(),startPlot.getY(),mc.SettlerBonus,sPlot.isCoast())
                elif eHandicap ==  gc.getInfoTypeForString("HANDICAP_CHIEFTAIN"):       
                    if mc.ChieftainBonus > 0:
                        print "Human player at Chieftain difficulty, adding %d resources" % mc.ChieftainBonus
                        self.boostCityPlotValue(startPlot.getX(),startPlot.getY(),mc.ChieftainBonus,sPlot.isCoast())
                elif eHandicap ==  gc.getInfoTypeForString("HANDICAP_WARLORD"):       
                    if mc.WarlordBonus > 0:
                        print "Human player at Warlord difficulty, adding %d resources" % mc.WarlordBonus
                        self.boostCityPlotValue(startPlot.getX(),startPlot.getY(),mc.WarlordBonus,sPlot.isCoast())
                elif eHandicap ==  gc.getInfoTypeForString("HANDICAP_NOBLE"):       
                    if mc.NobleBonus > 0:
                        print "Human player at Noble difficulty, adding %d resources" % mc.NobleBonus
                        self.boostCityPlotValue(startPlot.getX(),startPlot.getY(),mc.NobleBonus,sPlot.isCoast())
                elif eHandicap ==  gc.getInfoTypeForString("HANDICAP_PRINCE"):       
                    if mc.PrinceBonus > 0:
                        print "Human player at Prince difficulty, adding %d resources" % mc.PrinceBonus
                        self.boostCityPlotValue(startPlot.getX(),startPlot.getY(),mc.PrinceBonus,sPlot.isCoast())
                elif eHandicap ==  gc.getInfoTypeForString("HANDICAP_MONARCH"):       
                    if mc.MonarchBonus > 0:
                        print "Human player at Monarch difficulty, adding %d resources" % mc.MonarchBonus
                        self.boostCityPlotValue(startPlot.getX(),startPlot.getY(),mc.MonarchBonus,sPlot.isCoast())
                elif eHandicap ==  gc.getInfoTypeForString("HANDICAP_EMPEROR"):       
                    if mc.EmperorBonus > 0:
                        print "Human player at Emperor difficulty, adding %d resources" % mc.EmperorBonus
                        self.boostCityPlotValue(startPlot.getX(),startPlot.getY(),mc.EmperorBonus,sPlot.isCoast())
                elif eHandicap ==  gc.getInfoTypeForString("HANDICAP_IMMORTAL"):       
                    if mc.ImmortalBonus > 0:
                        print "Human player at Immortal difficulty, adding %d resources" % mc.ImmortalBonus
                        self.boostCityPlotValue(startPlot.getX(),startPlot.getY(),mc.ImmortalBonus,sPlot.isCoast())
                elif eHandicap ==  gc.getInfoTypeForString("HANDICAP_DEITY"):       
                    if mc.DeityBonus > 0:
                        print "Human player at Deity Difficulty, adding %d resources" % mc.DeityBonus
                        self.boostCityPlotValue(startPlot.getX(),startPlot.getY(),mc.DeityBonus,sPlot.isCoast())
                    
 
#Global access
spf = StartingPlotFinder()
class CityPlot :
    def __init__(self,food,value):
        self.food = food
        self.value = value
class Improvement :
    def __init__(self,e,food,production,commerce,value):
        self.e = e
        self.food = food
        self.production = production
        self.commerce = commerce
        self.value = value

class StartingArea :
    def __init__(self,areaID):
        self.areaID = areaID
        self.playerList = list()
        self.plotList = list()
        self.distanceTable = array('i')
        self.rawValue = 0
        self.CalculatePlotList()
        self.idealNumberOfPlayers = 0
        return
    def CalculatePlotList(self):
        gc = CyGlobalContext()
        gameMap = CyMap()
        
        for y in range(mc.height):
            for x in range(mc.width):
                plot = gameMap.plot(x,y)
                if plot.getArea() == self.areaID:
                    #don't place a city on top of a bonus
                    if plot.getBonusType(TeamTypes.NO_TEAM) != BonusTypes.NO_BONUS:
                        continue
                    food,value = spf.getCityPotentialValue(x,y)
                    if value > 0:
                        startPlot = StartPlot(x,y,value)
                        if plot.isWater() == True:
                            raise ValueError, "potential start plot is water!"
                        self.plotList.append(startPlot)
        #Sort plots by local value
        self.plotList.sort(lambda x, y: cmp(x.localValue, y.localValue))
        
        #To save time and space let's get rid of some of the lesser plots
        cull = (len(self.plotList) * 2) / 3
        for i in range(cull):
            del self.plotList[0]
            
        #You now should be able to eliminate more plots by sorting high to low
        #and having the best plot eat plots within 3 squares, then same for next,
        #etc.
        self.plotList.reverse()
##        print "number of initial plots in areaID = %(a)3d is %(p)5d" % {"a":self.areaID,"p":len(self.plotList)}
        numPlots = len(self.plotList)
        for n in range(numPlots):
            #At some point the length of plot list will be much shorter than at
            #the beginning of the loop, so it can never end normally
            if n >= len(self.plotList) - 1:
                break
            y = self.plotList[n].y
            x = self.plotList[n].x
            for yy in range(y - 3,y + 4):
                for xx in range(x - 3,x + 4):
                    if yy < 0 or yy >= mc.height:
                        continue
                    xx = xx % mc.width#wrap xx
                    if xx < 0:
                        raise ValueError, "xx value not wrapping properly in StartingArea.CalculatePlotList"
                    for m in range(n,len(self.plotList)):
                        #At some point the length of plot list will be much shorter than at
                        #the beginning of the loop, so it can never end normally
                        if m >= len(self.plotList) - 1:
                            break
##                        print "m = %(m)3d, n = %(n)3d" % {"m":m,"n":n}
                        if self.plotList[m] != self.plotList[n]:
                            if self.plotList[m].x == xx and self.plotList[m].y == yy:
##                                print "deleting m = %(m)3d" % {"m":m}
                                del self.plotList[m]
##                                print "length of plotList now %(len)4d" % {"len":len(self.plotList)}
                                 
##        print "number of final plots in areaID = %(a)3d is %(p)5d" % {"a":self.areaID,"p":len(self.plotList)}
                                
        #At this point we should have a list of the very best places
        #to build cities on this continent. Now we need a table with
        #the distance from each city to every other city

        #Create distance table
        for i in range(len(self.plotList)*len(self.plotList)):
            self.distanceTable.append(-11)
        #Fill distance table
        for n in range(len(self.plotList)):
            #While were already looping lets calculate the raw value
            self.rawValue += self.plotList[n].localValue
            avgDistance = 0
            for m in range(n,len(self.plotList)):
                nPlot = gameMap.plot(self.plotList[n].x,self.plotList[n].y)
                mPlot = gameMap.plot(self.plotList[m].x,self.plotList[m].y)
                gameMap.resetPathDistance()
                distance = gameMap.calculatePathDistance(nPlot,mPlot)
#               distance = self.getDistance(nPlot.getX(),nPlot.getY(),mPlot.getX(),mPlot.getY())
                #If path fails try reversing it
##                gameMap.resetPathDistance()
##                newDistance = gameMap.calculatePathDistance(mPlot,nPlot)
##                if distance != newDistance:
##                    print "distance between n=%(n)d nx=%(nx)d,ny=%(ny)d and m=%(m)d mx=%(mx)d,my=%(my)d is %(d)d or %(nd)d" % \
##                    {"n":n,"nx":nPlot.getX(),"ny":nPlot.getY(),"m":m,"mx":mPlot.getX(),"my":mPlot.getY(),"d":distance,"nd":newDistance}
                self.distanceTable[n*len(self.plotList) + m] = distance
                self.distanceTable[m*len(self.plotList) + n] = distance
                avgDistance += distance
            self.plotList[n].avgDistance = avgDistance
 
        return
    def FindStartingPlots(self):
        gc = CyGlobalContext()
        gameMap = CyMap()
        numPlayers = len(self.playerList)
        if numPlayers <= 0:
            return

        avgDistanceList = list()
        for i in range(len(self.plotList)):
            avgDistanceList.append(self.plotList[i])
            
        #Make sure first guy starts on the end and not in the middle,
        #otherwise if there are two players one will start on the middle
        #and the other on the end
        avgDistanceList.sort(lambda x,y:cmp(x.avgDistance,y.avgDistance))
        avgDistanceList.reverse()
        #First place players as far as possible away from each other
        #Place the first player
        avgDistanceList[0].vacant = False
        for i in range(1,numPlayers):
            distanceList = list()
            for n in range(len(self.plotList)):
                if self.plotList[n].vacant == True:
                    minDistance = -1
                    for m in range(len(self.plotList)):
                        if self.plotList[m].vacant == False:
                            ii = n * len(self.plotList) + m
                            distance = self.distanceTable[ii]
                            if minDistance == -1 or minDistance > distance:
                                minDistance = distance
                    self.plotList[n].nearestStart = minDistance
                    distanceList.append(self.plotList[n])
            #Find biggest nearestStart and place a start there
            distanceList.sort(lambda x,y:cmp(x.nearestStart,y.nearestStart))
            distanceList.reverse()
            distanceList[0].vacant = False
##            print "Placing start at x=%(x)d, y=%(y)d nearestDistance to city is %(n)d" % \
##            {"x":distanceList[0].x,"y":distanceList[0].y,"n":distanceList[0].nearestStart}
                
        self.CalculateStartingPlotValues()
                
##        self.PrintPlotMap()
##        self.PrintPlotList()
##        self.PrintDistanceTable()
      
        #Now place all starting positions
        n = 0
        for m in range(len(self.plotList)):
            if self.plotList[m].vacant == False:
                sPlot = gameMap.plot(self.plotList[m].x,self.plotList[m].y)
                if sPlot.isWater() == True:
                    raise ValueError, "Start plot is water!"
                sPlot.setImprovementType(gc.getInfoTypeForString("NO_IMPROVEMENT"))
                playerID = self.playerList[n]
                player = gc.getPlayer(playerID)
                sPlot.setStartingPlot(True)
                player.setStartingPlot(sPlot,True)
                n += 1

            
        return
    def CalculateStartingPlotValues(self):
        gameMap = CyMap()
        numPlots = len(self.plotList)
        
        for n in range(numPlots):
            self.plotList[n].owner = -1
            self.plotList[n].totalValue = 0
            
        for n in range(numPlots):
            if self.plotList[n].vacant == True:
                continue
            self.plotList[n].totalValue = 0
            self.plotList[n].numberOfOwnedCities = 0
            for m in range(numPlots):
                i = n * numPlots + m
                nDistance = self.distanceTable[i]
                if nDistance == -1:
                    leastDistance = False
                else:
                    leastDistance = True #Being optimistic, prove me wrong
                for p in range(numPlots):
                    if p == n or self.plotList[p].vacant == True:
                        continue
                    ii = p * numPlots + m
                    pDistance = self.distanceTable[ii]
##                    print "n= %(n)3d, m = %(m)3d, p = %(p)3d, nDistance = %(nd)3d, pDistance = %(pd)3d" %\
##                    {"n":n,"m":m,"p":p,"nd":nDistance,"pd":pDistance}
                    if pDistance > -1 and pDistance <= nDistance:
                        leastDistance = False #Proven wrong
                        break
                    
                if leastDistance == True:
                    self.plotList[n].totalValue += self.plotList[m].localValue
#                    print "m = %(m)3d owner change from %(mo)3d to %(n)3d" % {"m":m,"mo":self.plotList[m].owner,"n":n}
                    self.plotList[m].owner = self.plotList[n]
                    self.plotList[m].distanceToOwner = nDistance
                    self.plotList[n].numberOfOwnedCities += 1
                    
        return
    def getDistance(self,x,y,dx,dy):
        xx = x - dx
        if abs(xx) > mc.width/2:
            xx = mc.width - abs(xx)
            
        distance = max(abs(xx),abs(y - dy))
        return distance
    def PrintPlotMap(self):
        gameMap = CyMap()
        print "Starting Plot Map"
        for y in range(hm.mapHeight - 1,-1,-1):
            lineString = ""
            for x in range(hm.mapWidth):
                inList = False
                for n in range(len(self.plotList)):
                    if self.plotList[n].x == x and self.plotList[n].y == y:
                        if self.plotList[n].plot().isWater() == True:
                            if self.plotList[n].vacant == True:
                                lineString += 'VV'
                            else:
                                lineString += 'OO'
                        else:
                            if self.plotList[n].vacant == True:
                                lineString += 'vv'
                            else:
                                lineString += 'oo'
                        inList = True
                        break
                if inList == False:
                    plot = gameMap.plot(x,y)
                    if plot.isWater() == True:
                        lineString += '.;'
                    else:
                        lineString += '[]'

            lineString += "-" + str(y)
            print lineString
            
        lineString = " "
        print lineString

        return
    def PrintPlotList(self):
        for n in range(len(self.plotList)):
            print str(n) + ' ' + str(self.plotList[n])
        return
    
    def PrintDistanceTable(self):
        print "Distance Table"
        lineString = "%(n)05d" % {"n":0} + ' '
        for n in range(len(self.plotList)):
            lineString += "%(n)05d" % {"n":n} + ' '
        print lineString
        lineString = ""
        for n in range(len(self.plotList)):
            lineString = "%(n)05d" % {"n":n} + ' '
            for m in range(len(self.plotList)):
                i = n * len(self.plotList) + m
                lineString += "%(d)05d" % {"d":self.distanceTable[i]} + ' '
            print lineString    
        return

class StartPlot :
    def __init__(self,x,y,localValue):
        self.x = x
        self.y = y
        self.localValue = localValue
        self.totalValue = 0
        self.numberOfOwnedCities = 0
        self.distanceToOwner = -1
        self.nearestStart = -1
        self.vacant = True
        self.owner = None
        self.avgDistance = 0
        return
    def isCoast(self):
        gameMap = CyMap()
        plot = gameMap.plot(self.x,self.y)
        waterArea = plot.waterArea()
        if waterArea.isNone() == True or waterArea.isLake() == True: 
            return False
        return True
    
    def isRiverSide(self):
        gameMap = CyMap()
        plot = gameMap.plot(self.x,self.y)
        return plot.isRiverSide()        

    def plot(self):
        gameMap = CyMap()
        return gameMap.plot(self.x,self.y)
    def copy(self):
        cp = StartPlot(self.x,self.y,self.localValue)
        cp.totalValue = self.totalValue
        cp.numberOfOwnedCities = self.numberOfOwnedCities
        cp.distanceToOwner = self.distanceToOwner
        cp.nearestStart = self.nearestStart
        cp.vacant = self.vacant
        cp.owner = self.owner
        cp.avgDistance = self.avgDistance
        return cp
    def __str__(self):
        linestring = "x=%(x)3d,y=%(y)3d,localValue=%(lv)6d,totalValue =%(tv)6d, nearestStart=%(ad)6d, coastalCity=%(cc)d" % \
        {"x":self.x,"y":self.y,"lv":self.localValue,"tv":self.totalValue,"ad":self.nearestStart,"cc":self.isCoast()}
        return linestring
        
hm = HeightMap()
cm = ClimateMap()
sm = SmallMaps()
rm = RiverMap()
em = EuropeMap()
###############################################################################     
#functions that civ is looking for
###############################################################################
def getDescription():
	"""
	A map's Description is displayed in the main menu when players go to begin a game.
	For no description return an empty string.
	"""
	return "Random map that simulates earth-like plate tectonics, " +\
        "geostrophic and monsoon winds and rainfall."
def getWrapX():
	return mc.WrapX
	
def getWrapY():
    print "mc.WrapY == %d at getWrapY" % mc.WrapY
    return mc.WrapY
    
def getNumCustomMapOptions():
    """
    Number of different user-defined options for this map
    Return an integer
    """
    mc.initialize()
    return 6
	
def getCustomMapOptionName(argsList):
        """
        Returns name of specified option
        argsList[0] is Option ID (int)
        Return a Unicode string
        """
        optionID = argsList[0]
        if optionID == 0:
            return "New World Rules"
        elif optionID == 1:
            return "Pangaea Rules"
        elif optionID == 2:
            return "Wrap Option"
        elif optionID == 3:
            return "Resources"
        elif optionID == 4:
            return "Have bigger maps"
        elif optionID == 5:
            return "Map seed"

        return u""
	
def getNumCustomMapOptionValues(argsList):
        """
        Number of different choices for a particular setting
        argsList[0] is Option ID (int)
        Return an integer
        """
        optionID = argsList[0]
        if optionID == 0:
            return 4
        elif optionID == 1:
            return 2
        elif optionID == 2:
            return 3
        elif optionID == 3:
            return 3
        elif optionID == 4:
            return 3
        elif optionID == 5:
            return 2
        return 0
	
def getCustomMapOptionDescAt(argsList):
    """
    Returns name of value of option at specified row
    argsList[0] is Option ID (int)
    argsList[1] is Selection Value ID (int)
    Return a Unicode string
    """
    optionID = argsList[0]
    selectionID = argsList[1]
    if optionID == 0:
        if selectionID == 0:
            if mc.AllowNewWorld:
                return "Start in Old World"
            else:
                return "Start Anywhere"
        elif selectionID == 1:
            if mc.AllowNewWorld:
                return "Start Anywhere"
            else:
                return "Start in Old World"
        elif selectionID == 2:
            return "Everyone on largest landmass"
        elif selectionID == 3:
            return "Everyone on 2nd largest land"
    elif optionID == 1:
        if selectionID == 0:
            if mc.AllowPangeas:
                return "Allow Pangaeas"
            else:
                return "Break Pangaeas"
        elif selectionID == 1:
            if mc.AllowPangeas:
                return "Break Pangaeas"
            else:
                return "Allow Pangaeas"
    elif optionID == 2:
        if selectionID == 0:
            return "Cylindrical"
        elif selectionID == 1:
            return "Toroidal"
        elif selectionID == 2:
            return "Flat"
    elif optionID == 3:
        if selectionID == 0:
            return "Full of resources"
        elif selectionID == 1:
            return "Resources evenly spread"
        elif selectionID == 2:
            return "Like Perfect World"
    elif optionID == 4:
        if selectionID == 0:
            return "Standard size"
        elif selectionID == 1:
            return "Big maps"
        elif selectionID == 2:
            return "Small maps"
    elif optionID == 5:
        if selectionID == 0:
            return "Random"
        elif selectionID == 1:
            return "Fixed seed"
    return u""
	
def getCustomMapOptionDefault(argsList):
	"""
	Returns default value of specified option
	argsList[0] is Option ID (int)
	Return an integer
	"""
	#Always zero in this case
	return 0
    
def isRandomCustomMapOption(argsList):
	"""
	Returns a flag indicating whether a random option should be provided
	argsList[0] is Option ID (int)
	Return a bool
	"""
	return False
    
#This doesn't work with my river system so it is disabled. Some civs
#might start without a river. Boo hoo.
def normalizeAddRiver():
    return
def normalizeAddLakes():
    return
def normalizeAddGoodTerrain():
    return
def normalizeRemoveBadTerrain():
    return
def normalizeRemoveBadFeatures():
    return
def normalizeAddFoodBonuses():
    return
def normalizeAddExtras():
    return
def normalizeRemovePeaks():
    return
def isAdvancedMap():
	"""
	Advanced maps only show up in the map script pulldown on the advanced menu.
	Return 0 if you want your map to show up in the simple singleplayer menu
	"""
	return 0
def isClimateMap():
	"""
	Uses the Climate options
	"""
	return 1
	
def isSeaLevelMap():
	"""
	Uses the Sea Level options
	"""
	return 0
    
def getTopLatitude():
	"Default is 90. 75 is past the Arctic Circle"
	return 90

def getBottomLatitude():
	"Default is -90. -75 is past the Antartic Circle"
	return -90
    
def getGridSize(argsList):
    grid_sizes = {
		WorldSizeTypes.WORLDSIZE_DUEL:		(11,7),
		WorldSizeTypes.WORLDSIZE_TINY:		(15,10),
		WorldSizeTypes.WORLDSIZE_SMALL:		(20,13),
		WorldSizeTypes.WORLDSIZE_STANDARD:	(24,16),
		WorldSizeTypes.WORLDSIZE_LARGE:		(30,20),
		WorldSizeTypes.WORLDSIZE_HUGE:		(36,24)
    }
    # Scale if they want a bigger or smaller world
    [eWorldSize] = argsList
    (sizex, sizey) = grid_sizes[eWorldSize]
    gc = CyGlobalContext()
    mmap = gc.getMap()
    if mmap.getCustomMapOption(4) == 1: # Big maps
        sizex = sizex + int(sizex / 3) 
        sizey = sizey + int(sizey / 3) 
    elif mmap.getCustomMapOption(4) == 2: # Small maps
        sizex = sizex - int(sizex / 3) 
        sizey = sizey - int(sizey / 3) 

    if (argsList[0] == -1): # (-1,) is passed to function on loads
            return []
    return (sizex, sizey)

def generatePlotTypes():
    gc = CyGlobalContext()
    mmap = gc.getMap()
    mc.width = mmap.getGridWidth()
    mc.height = mmap.getGridHeight()
    mc.minimumMeteorSize = (1 + int(round(float(mc.hmWidth)/float(mc.width)))) * 3
    PRand.seed()
    hm.performTectonics()
    hm.generateHeightMap()
    hm.combineMaps()
    hm.calculateSeaLevel()
    hm.fillInLakes()
    pb.breakPangaeas()
##    hm.Erode()
##    hm.printHeightMap()
    hm.addWaterBands()
##    hm.printHeightMap()
    cm.createClimateMaps()
    sm.initialize()
    rm.generateRiverMap()
    plotTypes = [PlotTypes.PLOT_OCEAN] * (mc.width*mc.height)

    for i in range(mc.width*mc.height):
        mapLoc = sm.plotMap[i]
        if mapLoc == mc.PEAK:
            plotTypes[i] = PlotTypes.PLOT_PEAK
        elif mapLoc == mc.HILLS:
            plotTypes[i] = PlotTypes.PLOT_HILLS
        elif mapLoc == mc.LAND:
            plotTypes[i] = PlotTypes.PLOT_LAND
        else:
            plotTypes[i] = PlotTypes.PLOT_OCEAN
    print "Finished generating plot types."         
    return plotTypes
def generateTerrainTypes():
    NiTextOut("Generating Terrain  ...")
    print "Adding Terrain"
    gc = CyGlobalContext()
    terrainDesert = gc.getInfoTypeForString("TERRAIN_DESERT")
    terrainPlains = gc.getInfoTypeForString("TERRAIN_PLAINS")
    terrainIce = gc.getInfoTypeForString("TERRAIN_SNOW")
    terrainTundra = gc.getInfoTypeForString("TERRAIN_TUNDRA")
    terrainGrass = gc.getInfoTypeForString("TERRAIN_GRASS")
    terrainHill = gc.getInfoTypeForString("TERRAIN_HILL")
    terrainCoast = gc.getInfoTypeForString("TERRAIN_COAST")
    terrainOcean = gc.getInfoTypeForString("TERRAIN_OCEAN")
    terrainPeak = gc.getInfoTypeForString("TERRAIN_PEAK")
    
    terrainTypes = [0]*(mc.width*mc.height)
    for i in range(mc.width*mc.height):
        if sm.terrainMap[i] == mc.OCEAN:
            terrainTypes[i] = terrainOcean
        elif sm.terrainMap[i] == mc.COAST:
            terrainTypes[i] = terrainCoast
        elif sm.terrainMap[i] == mc.DESERT:
            terrainTypes[i] = terrainDesert
        elif sm.terrainMap[i] == mc.PLAINS:
            terrainTypes[i] = terrainPlains
        elif sm.terrainMap[i] == mc.GRASS:
            terrainTypes[i] = terrainGrass
        elif sm.terrainMap[i] == mc.TUNDRA:
            terrainTypes[i] = terrainTundra
        elif sm.terrainMap[i] == mc.SNOW:
            terrainTypes[i] = terrainIce
    print "Finished generating terrain types."
    return terrainTypes

def addRivers():
    NiTextOut("Adding Rivers....")
    print "Adding Rivers"
    gc = CyGlobalContext()
    pmap = gc.getMap()
    for y in range(mc.height):
        for x in range(mc.width):
            placeRiversInPlot(x,y)

##    rm.printRiverAndTerrainAlign()
            
    #peaks and rivers don't always mix well graphically, so lets eliminate
    #these potential glitches. Basically if there are adjacent peaks on both
    #sides of a river, either in a cardinal direction or diagonally, they
    #will look bad.
    for y in range(mc.height):
        for x in range(mc.width):
            plot = pmap.plot(x,y)
            if plot.isPeak() == True:
                if plot.isNOfRiver() == True:
                    for xx in range(x - 1,x + 2,1):
                        yy = y - 1
                        if yy < 0:
                            break
                        #wrap in x direction
                        if xx == -1:
                            xx = mc.width - 1
                        elif xx == mc.width:
                            xx = 0
                        newPlot = pmap.plot(xx,yy)
                        ii = GetIndex(xx,yy)
                        if newPlot.isPeak():
                            plot.setPlotType(PlotTypes.PLOT_HILLS,True,True)
                            sm.plotMap[ii] = mc.HILLS
                            break
            #possibly changed so checked again
            if plot.isPeak() == True:
                if plot.isWOfRiver() == True:
                    for yy in range(y - 1,y + 2,1):
                        xx = x + 1
                        if xx == mc.width:
                            xx = 0
                        #do not wrap in y direction
                        if yy == -1:
                            continue
                        elif yy == mc.height:
                            continue
                        newPlot = pmap.plot(xx,yy)
                        ii = GetIndex(xx,yy)
                        if newPlot.isPeak():
                            plot.setPlotType(PlotTypes.PLOT_HILLS,True,True)
                            sm.plotMap[ii] = mc.HILLS
                            break
    
def placeRiversInPlot(x,y):
    gc = CyGlobalContext()
    pmap = gc.getMap()
    plot = pmap.plot(x,y)
    #NE
    xx,yy = rm.rxFromPlot(x,y,rm.NE)
    ii = GetIndex(xx,yy)
    if ii != -1:
        if rm.riverMap[ii] == rm.S:
            plot.setWOfRiver(True,CardinalDirectionTypes.CARDINALDIRECTION_SOUTH)
    #SW
    xx,yy = rm.rxFromPlot(x,y,rm.SW)
    ii = GetIndex(xx,yy)
    if ii != -1:
        if rm.riverMap[ii] == rm.E:
            plot.setNOfRiver(True,CardinalDirectionTypes.CARDINALDIRECTION_EAST)
    #SE
    xx,yy = rm.rxFromPlot(x,y,rm.SE)
    ii = GetIndex(xx,yy)
    if ii != -1:
        if rm.riverMap[ii] == rm.N:
            plot.setWOfRiver(True,CardinalDirectionTypes.CARDINALDIRECTION_NORTH)
        elif rm.riverMap[ii] == rm.W:
            plot.setNOfRiver(True,CardinalDirectionTypes.CARDINALDIRECTION_WEST)
'''
This function examines a lake area and removes ugly surrounding rivers. Any
river that is flowing away from the lake, or alongside the lake will be
removed. This function also returns a list of riverID's that flow into the
lake.
'''
def cleanUpLake(x,y):
    gc = CyGlobalContext()
    mmap = gc.getMap()
    riversIntoLake = list()
    plot = mmap.plot(x,y+1)#North
    if plot != 0 and plot.isNOfRiver() == True:
        plot.setNOfRiver(False,CardinalDirectionTypes.NO_CARDINALDIRECTION)
    if plot != 0 and plot.isWOfRiver() == True:
        if plot.getRiverNSDirection() == CardinalDirectionTypes.CARDINALDIRECTION_SOUTH:
            riversIntoLake.append(plot.getRiverID())
        else:
            plot.setWOfRiver(False,CardinalDirectionTypes.NO_CARDINALDIRECTION)
    plot = mmap.plot(x - 1,y)#West
    if plot != 0 and plot.isWOfRiver() == True:
        plot.setWOfRiver(False,CardinalDirectionTypes.NO_CARDINALDIRECTION)
    if plot != 0 and plot.isNOfRiver() == True:
        if plot.getRiverWEDirection() == CardinalDirectionTypes.CARDINALDIRECTION_EAST:
            riversIntoLake.append(plot.getRiverID())
        else:
            plot.setNOfRiver(False,CardinalDirectionTypes.NO_CARDINALDIRECTION)
    plot = mmap.plot(x + 1,y)#East
    if plot != 0 and plot.isNOfRiver() == True:
        if plot.getRiverWEDirection() == CardinalDirectionTypes.CARDINALDIRECTION_WEST:
            riversIntoLake.append(plot.getRiverID())
        else:
            plot.setNOfRiver(False,CardinalDirectionTypes.NO_CARDINALDIRECTION)
    plot = mmap.plot(x,y-1)#South
    if plot != 0 and plot.isWOfRiver() == True:
        if plot.getRiverNSDirection() == CardinalDirectionTypes.CARDINALDIRECTION_NORTH:
            riversIntoLake.append(plot.getRiverID())
        else:
            plot.setWOfRiver(False,CardinalDirectionTypes.NO_CARDINALDIRECTION)
    plot = mmap.plot(x-1,y+1)#Northwest
    if plot != 0 and plot.isWOfRiver() == True:
        if plot.getRiverNSDirection() == CardinalDirectionTypes.CARDINALDIRECTION_SOUTH:
            riversIntoLake.append(plot.getRiverID())
        else:
            plot.setWOfRiver(False,CardinalDirectionTypes.NO_CARDINALDIRECTION)
    if plot != 0 and plot.isNOfRiver() == True:
        if plot.getRiverWEDirection() == CardinalDirectionTypes.CARDINALDIRECTION_EAST:
            riversIntoLake.append(plot.getRiverID())
        else:
            plot.setNOfRiver(False,CardinalDirectionTypes.NO_CARDINALDIRECTION)
    plot = mmap.plot(x+1,y+1)#Northeast
    if plot != 0 and plot.isNOfRiver() == True:
        if plot.getRiverWEDirection() == CardinalDirectionTypes.CARDINALDIRECTION_WEST:
            riversIntoLake.append(plot.getRiverID())
        else:
            plot.setNOfRiver(False,CardinalDirectionTypes.NO_CARDINALDIRECTION)
    plot = mmap.plot(x-1,y-1)#Southhwest
    if plot != 0 and plot.isWOfRiver() == True:
        if plot.getRiverNSDirection() == CardinalDirectionTypes.CARDINALDIRECTION_NORTH:
            riversIntoLake.append(plot.getRiverID())
        else:
            plot.setWOfRiver(False,CardinalDirectionTypes.NO_CARDINALDIRECTION)
    #Southeast plot is not relevant 
            
    return riversIntoLake
'''
This function replaces rivers to update the river crossings after a lake or
channel is placed at X,Y. There had been a long standing problem where water tiles
added after a river were causing graphical glitches and incorrect river rules
due to not updating the river crossings.
'''
def replaceRivers(x,y):
    gc = CyGlobalContext()
    mmap = gc.getMap()
    plot = mmap.plot(x,y+1)#North
    if plot != 0 and plot.isWOfRiver() == True:
        if plot.getRiverNSDirection() == CardinalDirectionTypes.CARDINALDIRECTION_SOUTH:
            #setting the river to what it already is will be ignored by the dll,
            #so it must be unset and then set again.
            plot.setWOfRiver(False,CardinalDirectionTypes.NO_CARDINALDIRECTION)
            plot.setWOfRiver(True,CardinalDirectionTypes.CARDINALDIRECTION_SOUTH)
    plot = mmap.plot(x - 1,y)#West
    if plot != 0 and plot.isNOfRiver() == True:
        if plot.getRiverWEDirection() == CardinalDirectionTypes.CARDINALDIRECTION_EAST:
            plot.setNOfRiver(False,CardinalDirectionTypes.NO_CARDINALDIRECTION)
            plot.setNOfRiver(True,CardinalDirectionTypes.CARDINALDIRECTION_EAST)
    plot = mmap.plot(x + 1,y)#East
    if plot != 0 and plot.isNOfRiver() == True:
        if plot.getRiverWEDirection() == CardinalDirectionTypes.CARDINALDIRECTION_WEST:
            plot.setNOfRiver(False,CardinalDirectionTypes.NO_CARDINALDIRECTION)
            plot.setNOfRiver(True,CardinalDirectionTypes.CARDINALDIRECTION_WEST)
    plot = mmap.plot(x,y-1)#South
    if plot != 0 and plot.isWOfRiver() == True:
        if plot.getRiverNSDirection() == CardinalDirectionTypes.CARDINALDIRECTION_NORTH:
            plot.setWOfRiver(False,CardinalDirectionTypes.NO_CARDINALDIRECTION)
            plot.setWOfRiver(True,CardinalDirectionTypes.CARDINALDIRECTION_NORTH)
    plot = mmap.plot(x-1,y+1)#Northwest
    if plot != 0 and plot.isWOfRiver() == True:
        if plot.getRiverNSDirection() == CardinalDirectionTypes.CARDINALDIRECTION_SOUTH:
            plot.setWOfRiver(False,CardinalDirectionTypes.NO_CARDINALDIRECTION)
            plot.setWOfRiver(True,CardinalDirectionTypes.CARDINALDIRECTION_SOUTH)
    if plot != 0 and plot.isNOfRiver() == True:
        if plot.getRiverWEDirection() == CardinalDirectionTypes.CARDINALDIRECTION_EAST:
            plot.setNOfRiver(False,CardinalDirectionTypes.NO_CARDINALDIRECTION)
            plot.setNOfRiver(True,CardinalDirectionTypes.CARDINALDIRECTION_EAST)
    plot = mmap.plot(x+1,y+1)#Northeast
    if plot != 0 and plot.isNOfRiver() == True:
        if plot.getRiverWEDirection() == CardinalDirectionTypes.CARDINALDIRECTION_WEST:
            plot.setNOfRiver(False,CardinalDirectionTypes.NO_CARDINALDIRECTION)
            plot.setNOfRiver(True,CardinalDirectionTypes.CARDINALDIRECTION_WEST)
    plot = mmap.plot(x-1,y-1)#Southhwest
    if plot != 0 and plot.isWOfRiver() == True:
        if plot.getRiverNSDirection() == CardinalDirectionTypes.CARDINALDIRECTION_NORTH:
            plot.setWOfRiver(False,CardinalDirectionTypes.NO_CARDINALDIRECTION)
            plot.setWOfRiver(True,CardinalDirectionTypes.CARDINALDIRECTION_NORTH)
    #Southeast plot is not relevant 
            
    return

'''
It looks bad to have a lake, fed by a river, sitting right next to the coast.
This function tries to minimize that occurance by replacing it with a
natural harbor, which looks much better.
'''
def makeHarbor(x,y,oceanMap):
    oceanID = oceanMap.getOceanID()
    i = oceanMap.getIndex(x,y)
    if oceanMap.areaMap[i] != oceanID:
        return
    #N
    xx = x
    yy = y + 2
    ii = oceanMap.getIndex(xx,yy)
    if ii > -1 and \
    oceanMap.getAreaByID(oceanMap.areaMap[ii]).water == True and \
    oceanMap.areaMap[ii] != oceanID:
        makeChannel(x,y + 1)
        oceanMap.defineAreas(isSmallWaterMatch)
        oceanID = oceanMap.getOceanID()
    #S
    xx = x
    yy = y - 2
    ii = oceanMap.getIndex(xx,yy)
    if ii > -1 and \
    oceanMap.getAreaByID(oceanMap.areaMap[ii]).water == True and \
    oceanMap.areaMap[ii] != oceanID:
        makeChannel(x,y - 1)
        oceanMap.defineAreas(isSmallWaterMatch)
        oceanID = oceanMap.getOceanID()
    #E
    xx = x + 2
    yy = y 
    ii = oceanMap.getIndex(xx,yy)
    if ii > -1 and \
    oceanMap.getAreaByID(oceanMap.areaMap[ii]).water == True and \
    oceanMap.areaMap[ii] != oceanID:
        makeChannel(x + 1,y)
        oceanMap.defineAreas(isSmallWaterMatch)
        oceanID = oceanMap.getOceanID()
    #W
    xx = x - 2
    yy = y 
    ii = oceanMap.getIndex(xx,yy)
    if ii > -1 and \
    oceanMap.getAreaByID(oceanMap.areaMap[ii]).water == True and \
    oceanMap.areaMap[ii] != oceanID:
        makeChannel(x - 1,y)
        oceanMap.defineAreas(isSmallWaterMatch)
        oceanID = oceanMap.getOceanID()
    #NW
    xx = x - 1
    yy = y + 1
    ii = oceanMap.getIndex(xx,yy)
    if ii > -1 and \
    oceanMap.getAreaByID(oceanMap.areaMap[ii]).water == True and \
    oceanMap.areaMap[ii] != oceanID:
        makeChannel(x - 1,y)
        oceanMap.defineAreas(isSmallWaterMatch)
        oceanID = oceanMap.getOceanID()
    #NE
    xx = x + 1
    yy = y + 1
    ii = oceanMap.getIndex(xx,yy)
    if ii > -1 and \
    oceanMap.getAreaByID(oceanMap.areaMap[ii]).water == True and \
    oceanMap.areaMap[ii] != oceanID:
        makeChannel(x + 1,y)
        oceanMap.defineAreas(isSmallWaterMatch)
        oceanID = oceanMap.getOceanID()
    #SW
    xx = x - 1
    yy = y - 1
    ii = oceanMap.getIndex(xx,yy)
    if ii > -1 and \
    oceanMap.getAreaByID(oceanMap.areaMap[ii]).water == True and \
    oceanMap.areaMap[ii] != oceanID:
        makeChannel(x ,y - 1)
        oceanMap.defineAreas(isSmallWaterMatch)
        oceanID = oceanMap.getOceanID()
    #NW
    xx = x - 1
    yy = y + 1
    ii = oceanMap.getIndex(xx,yy)
    if ii > -1 and \
    oceanMap.getAreaByID(oceanMap.areaMap[ii]).water == True and \
    oceanMap.areaMap[ii] != oceanID:
        makeChannel(x,y + 1)
        oceanMap.defineAreas(isSmallWaterMatch)
        oceanID = oceanMap.getOceanID()
    return
def makeChannel(x,y):
    gc = CyGlobalContext()
    mmap = gc.getMap()
    terrainCoast = gc.getInfoTypeForString("TERRAIN_COAST")
    plot = mmap.plot(x,y)
    cleanUpLake(x,y)
    plot.setTerrainType(terrainCoast,True,True)
    plot.setRiverID(-1)
    plot.setNOfRiver(False,CardinalDirectionTypes.NO_CARDINALDIRECTION)
    plot.setWOfRiver(False,CardinalDirectionTypes.NO_CARDINALDIRECTION)
    replaceRivers(x,y)
    i = GetIndex(x,y)
    sm.plotMap[i] = mc.OCEAN
    return
def expandLake(x,y,riversIntoLake,oceanMap):
    class LakePlot :
        def __init__(self,x,y,altitude):
            self.x = x
            self.y = y
            self.altitude = altitude
    gc = CyGlobalContext()
    mmap = gc.getMap()
    terrainCoast = gc.getInfoTypeForString("TERRAIN_COAST")
    lakePlots = list()
    lakeNeighbors = list()
    i = oceanMap.getIndex(x,y)
    desertModifier = 1.0
    if sm.terrainMap[i] == mc.DESERT:
        desertModifier = mc.DesertLakeModifier
    drainage = rm.drainageMap[i]
    lakeSize = max(3,int(drainage * mc.LakeSizePerDrainage * desertModifier ))
    start = LakePlot(x,y,sm.heightMap[i])
    lakeNeighbors.append(start)
#    print "lakeSize",lakeSize
    while lakeSize > 0 and len(lakeNeighbors) > 0:
#        lakeNeighbors.sort(key=operator.attrgetter('altitude'),reverse=False)
        lakeNeighbors.sort(lambda x,y:cmp(x.altitude,y.altitude))
        currentLakePlot = lakeNeighbors[0]
        del lakeNeighbors[0]
        lakePlots.append(currentLakePlot)
        plot = mmap.plot(currentLakePlot.x,currentLakePlot.y)
        #if you are erasing a river to make a lake, make the lake smaller
        if plot.isNOfRiver() == True or plot.isWOfRiver() == True:
            lakeSize -= 1
        makeChannel(currentLakePlot.x,currentLakePlot.y)
        #Add valid neighbors to lakeNeighbors
        for n in range(4):
            if n == 0:#N
                xx = currentLakePlot.x
                yy = currentLakePlot.y + 1
                ii = oceanMap.getIndex(xx,yy)
            elif n == 1:#S
                xx = currentLakePlot.x
                yy = currentLakePlot.y - 1
                ii = oceanMap.getIndex(xx,yy)
            elif n == 2:#E
                xx = currentLakePlot.x + 1
                yy = currentLakePlot.y
                ii = oceanMap.getIndex(xx,yy)
            elif n == 3:#W
                xx = currentLakePlot.x - 1
                yy = currentLakePlot.y 
                ii = oceanMap.getIndex(xx,yy)
            else:
                raise ValueError, "too many cardinal directions"
            if ii != -1:
                #if this neighbor is in water area, then quit
                areaID = oceanMap.areaMap[ii]
                if areaID == 0:
                    raise ValueError, "areaID = 0 while generating lakes. This is a bug"
                for n in range(len(oceanMap.areaList)):
                    if oceanMap.areaList[n].ID == areaID:
                        if oceanMap.areaList[n].water == True:
#                            print "lake touched waterID = %(id)3d with %(ls)3d squares unused" % {'id':areaID,'ls':lakeSize}
#                            print "n = %(n)3d" % {"n":n}
#                            print str(oceanMap.areaList[n])
                            return
                if rm.riverMap[ii] != rm.L and mmap.plot(xx,yy).isWater() == False:
                    lakeNeighbors.append(LakePlot(xx,yy,sm.heightMap[ii]))
        
        lakeSize -= 1
#    print "lake finished normally at %(x)2d,%(y)2d" % {"x":x,"y":y}
    return
            
def addLakes():
    print "Adding Lakes"
    gc = CyGlobalContext()
    mmap = gc.getMap()
    terrainCoast = gc.getInfoTypeForString("TERRAIN_COAST")
#    PrintFlowMap()
    oceanMap = Areamap(mc.width,mc.height,True,True)
    oceanMap.defineAreas(isSmallWaterMatch)
##    oceanMap.PrintList(oceanMap.areaList)
##    oceanMap.PrintAreaMap()
    for y in range(mc.height):
        for x in range(mc.width):
            i = GetIndex(x,y)
            if rm.flowMap[i] == rm.L:
                riversIntoLake = cleanUpLake(x,y)
                plot = mmap.plot(x,y)
                if len(riversIntoLake) > 0:
##                    plot.setRiverID(-1)
##                    plot.setNOfRiver(False,CardinalDirectionTypes.NO_CARDINALDIRECTION)
##                    plot.setWOfRiver(False,CardinalDirectionTypes.NO_CARDINALDIRECTION)
##                    #plot.setPlotType(PlotTypes.PLOT_OCEAN,True,True) setTerrain handles this already
##                    plot.setTerrainType(terrainCoast,True,True)
                    expandLake(x,y,riversIntoLake,oceanMap)
                else:
                    #no lake here, but in that case there should be no rivers either
                    plot.setRiverID(-1)
                    plot.setNOfRiver(False,CardinalDirectionTypes.NO_CARDINALDIRECTION)
                    plot.setWOfRiver(False,CardinalDirectionTypes.NO_CARDINALDIRECTION)
    oceanMap.defineAreas(isSmallWaterMatch)
##    oceanMap.PrintList(oceanMap.areaList)
##    oceanMap.PrintAreaMap()
    for y in range(mc.height):
        for x in range(mc.width):
            i = GetIndex(x,y)
            makeHarbor(x,y,oceanMap)
    return
        
def addFeatures():
    NiTextOut("Generating Features  ...")
    print "Adding Features"
    gc = CyGlobalContext()
    mmap = gc.getMap()
    featureIce = gc.getInfoTypeForString("FEATURE_ICE")
    featureJungle = gc.getInfoTypeForString("FEATURE_JUNGLE")
    featureForest = gc.getInfoTypeForString("FEATURE_FOREST")
    featureOasis = gc.getInfoTypeForString("FEATURE_OASIS")
    featureFloodPlains = gc.getInfoTypeForString("FEATURE_FLOOD_PLAINS")
    FORESTLEAFY = 0
    FORESTEVERGREEN = 1
    FORESTSNOWY = 2

    createIce()
    #Now plant forest or jungle
##    PrintTempMap(tm,tm.tempMap)
##    PrintRainMap(rm,rm.rainMap,False)
    for y in range(mc.height):
        for x in range(mc.width):
            i = GetIndex(x,y)
            plot = mmap.plot(x,y)
            #forest and jungle
            if plot.isWater() == False and sm.terrainMap[i] != mc.DESERT and\
            plot.isPeak() == False:
                if sm.rainFallMap[i] > sm.plainsThreshold * mc.TreeFactor and\
                PRand.random() < mc.MaxTreeChance:#jungle
                    if sm.averageTempMap[i] > mc.JungleTemp:
                        if sm.terrainMap[i] == mc.PLAINS:
                            plot.setFeatureType(featureForest,FORESTLEAFY)
                        else:
                            plot.setFeatureType(featureJungle,0)
                    elif sm.averageTempMap[i] > mc.ForestTemp:
                        plot.setFeatureType(featureForest,FORESTLEAFY)
                    elif sm.averageTempMap[i] > mc.TundraTemp:
                        plot.setFeatureType(featureForest,FORESTEVERGREEN)
                    elif sm.averageTempMap[i] > mc.SnowTemp:
                        plot.setFeatureType(featureForest,FORESTSNOWY)
                elif sm.rainFallMap[i] > sm.desertThreshold:#forest
                    if sm.rainFallMap[i] > PRand.random() * sm.plainsThreshold * mc.TreeFactor / mc.MaxTreeChance:
                        if sm.averageTempMap[i] > mc.ForestTemp:
                           plot.setFeatureType(featureForest,FORESTLEAFY)
                        elif sm.averageTempMap[i] > mc.TundraTemp:
                            plot.setFeatureType(featureForest,FORESTEVERGREEN)
                        elif sm.averageTempMap[i] > mc.SnowTemp * 0.8:
                            plot.setFeatureType(featureForest,FORESTSNOWY)                
            #floodplains and Oasis
            elif sm.terrainMap[i] == mc.DESERT and sm.plotMap[i] != mc.HILLS and\
            sm.plotMap[i] != mc.PEAK and plot.isWater() == False:
                if plot.isRiver() == True:
                    plot.setFeatureType(featureFloodPlains,0)
                else:
                    #is this square surrounded by desert?
                    foundNonDesert = False
                    #print "trying to place oasis"
                    for yy in range(y - 1,y + 2):
                        for xx in range(x - 1,x + 2):
                            ii = GetIndex(xx,yy)
                            surPlot = mmap.plot(xx,yy)
                            if (sm.terrainMap[ii] != mc.DESERT and \
                            sm.plotMap[ii] != mc.PEAK):
                                #print "non desert neighbor"
                                foundNonDesert = True
                            elif surPlot == 0:
                                #print "neighbor off map"
                                foundNonDesert = True
                            elif surPlot.isWater() == True:
                                #print "water neighbor"
                                foundNonDesert = True
                            elif surPlot.getFeatureType() == featureOasis:
                                #print "oasis neighbor"
                                foundNonDesert = True
                    if foundNonDesert == False:
                        if PRand.random() < mc.OasisChance:
                            #print "placing oasis"
                            plot.setFeatureType(featureOasis,0)
                       # else:
                            #print "oasis failed random check"
            
    return
   
def createIce():
    gc = CyGlobalContext()
    mmap = gc.getMap()
    signadded = 0
    featureIce = gc.getInfoTypeForString("FEATURE_ICE")
    iceChance = mc.iceChance
    iceRange = mc.iceRange
    iceSlope = mc.iceSlope
    for y in range(iceRange):
        for x in range(mc.width):
            plot = mmap.plot(x,y)
            if plot != 0 and plot.isWater() == True and PRand.random() < iceChance:
                plot.setFeatureType(featureIce,0)
        iceChance *= iceSlope
    iceChance = mc.iceChance
    for y in range(mc.height - 1,mc.height - 1 - iceRange,-1):
        for x in range(mc.width):
            plot = mmap.plot(x,y)
            if plot != 0 and plot.isWater() == True and PRand.random() < iceChance:
                plot.setFeatureType(featureIce,0)
                if signadded == 0:
                    CyEngine().addSign(plot, -1, str(mc.randomSeed))
                    signadded = 1
        iceChance *= iceSlope
    if signadded == 0:
        CyEngine().addSign(plot, -1, str(mc.randomSeed))
        signadded = 1
        
def addBonuses():
    bp.AddBonuses()
    return
def assignStartingPlots():
    gc = CyGlobalContext()
    gameMap = CyMap()
    iPlayers = gc.getGame().countCivPlayersEverAlive()
    spf.SetStartingPlots()
def beforeInit():
    print "Initializing Custom Map Options"
    mc.initialize()
    mc.initInGameOptions()

##mc.initialize()
##PRand.seed()
##hm.performTectonics()
##hm.generateHeightMap()
##hm.combineMaps()
##hm.calculateSeaLevel()
####hm.printHeightMap()
##hm.fillInLakes()
##pb.breakPangaeas()
####hm.printHeightMap()
####hm.Erode()
##hm.printHeightMap()
##hm.addWaterBands()
##cm.createClimateMaps()
##cm.printTempMap(cm.summerTempsMap)
##cm.printTempMap(cm.winterTempsMap)
##cm.printTempMap(cm.averageTempMap)
##cm.printRainFallMap(False)
##cm.printRainFallMap(True)
##sm.initialize()
##rm.generateRiverMap()
####sm.printHeightMap()
####rm.printRiverMap()
####sm.printPlotMap()
##sm.printTerrainMap()
##rm.printFlowMap()
##rm.printRiverMap()
##rm.printRiverAndTerrainAlign()

##sm.printHeightMap()