Font Problem

[code]:pnmtext(error): Unable to find font file phase_3/models/fonts/MickeyFont[/code]
the egg files contents in a text editor is:
[code]<CoordinateSystem> { Z-Up }

<Comment> {
  "bam2egg MickeyFont.bam MickeyFont.egg"
}
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        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 122 121 123 <Ref> { vpool } }
        }
      }
      <Group> {
        <PointLight> {
          <VertexRef> { 124 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 125 126 127 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 127 126 128 <Ref> { vpool } }
        }
      }
      <Group> {
        <PointLight> {
          <VertexRef> { 129 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 130 131 132 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 132 131 133 <Ref> { vpool } }
        }
      }
      <Group> {
        <PointLight> {
          <VertexRef> { 134 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 135 136 137 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 137 136 138 <Ref> { vpool } }
        }
      }
      <Group> {
        <PointLight> {
          <VertexRef> { 139 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 140 141 142 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 142 141 143 <Ref> { vpool } }
        }
      }
      <Group> {
        <PointLight> {
          <VertexRef> { 144 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 145 146 147 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 147 146 148 <Ref> { vpool } }
        }
      }
      <Group> {
        <PointLight> {
          <VertexRef> { 149 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 150 151 152 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 152 151 153 <Ref> { vpool } }
        }
      }
      <Group> {
        <PointLight> {
          <VertexRef> { 80 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 154 155 156 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 156 155 157 <Ref> { vpool } }
        }
      }
      <Group> {
        <PointLight> {
          <VertexRef> { 158 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 159 160 161 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 161 160 162 <Ref> { vpool } }
        }
      }
      <Group> {
        <PointLight> {
          <VertexRef> { 163 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 164 165 166 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 166 165 167 <Ref> { vpool } }
        }
      }
      <Group> {
        <PointLight> {
          <VertexRef> { 168 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 169 170 171 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 171 170 172 <Ref> { vpool } }
        }
      }
      <Group> {
        <PointLight> {
          <VertexRef> { 50 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 173 174 175 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 175 174 176 <Ref> { vpool } }
        }
      }
      <Group> {
        <PointLight> {
          <VertexRef> { 177 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 178 179 180 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 180 179 181 <Ref> { vpool } }
        }
      }
      <Group> {
        <PointLight> {
          <VertexRef> { 60 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 182 183 184 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 184 183 185 <Ref> { vpool } }
        }
      }
      <Group> {
        <PointLight> {
          <VertexRef> { 186 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 187 188 189 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 189 188 190 <Ref> { vpool } }
        }
      }
      <Group> {
        <PointLight> {
          <VertexRef> { 95 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 191 192 193 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 193 192 194 <Ref> { vpool } }
        }
      }
      <Group> {
        <PointLight> {
          <VertexRef> { 129 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 195 196 197 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 197 196 198 <Ref> { vpool } }
        }
      }
      <Group> {
        <PointLight> {
          <VertexRef> { 134 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 199 200 201 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 201 200 202 <Ref> { vpool } }
        }
      }
      <Group> {
        <PointLight> {
          <VertexRef> { 203 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 204 205 206 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 206 205 207 <Ref> { vpool } }
        }
      }
      <Group> {
        <PointLight> {
          <VertexRef> { 114 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 208 209 210 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 210 209 211 <Ref> { vpool } }
        }
      }
      <Group> {
        <PointLight> {
          <VertexRef> { 212 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 213 214 215 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 215 214 216 <Ref> { vpool } }
        }
      }
      <Group> {
        <PointLight> {
          <VertexRef> { 217 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 218 219 220 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 220 219 221 <Ref> { vpool } }
        }
      }
      <Group> {
        <PointLight> {
          <VertexRef> { 222 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 223 224 225 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 225 224 226 <Ref> { vpool } }
        }
      }
      <Group> {
        <PointLight> {
          <VertexRef> { 227 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_2 }
          <VertexRef> { 228 229 230 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_2 }
          <VertexRef> { 230 229 231 <Ref> { vpool } }
        }
      }
      <Group> {
        <PointLight> {
          <VertexRef> { 50 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 232 233 234 <Ref> { vpool } }
        }
        <Polygon> {
          <TRef> { phase_3_palette_2tmlc_1 }
          <VertexRef> { 234 233 235 <Ref> { vpool } }
        }
      }
    }
  }
}
[/code]
I've tried loading a ttf file, and it comes at me with the same thing. Unable to load font

Also, the scripts loading the font in order.
ToontownLoader.py:
[code]# 2013.08.22 22:26:35 Pacific Daylight Time
# Embedded file name: toontown.toonbase.ToontownLoader
from pandac.PandaModules import *
from direct.directnotify.DirectNotifyGlobal import *
from direct.showbase import Loader
from toontown.toontowngui import ToontownLoadingScreen

class ToontownLoader(Loader.Loader):
    __module__ = __name__
    TickPeriod = 0.2

    def __init__(self, base):
        Loader.Loader.__init__(self, base)
        self.inBulkBlock = None
        self.blockName = None
        self.loadingScreen = ToontownLoadingScreen.ToontownLoadingScreen()
        return

    def destroy(self):
        self.loadingScreen.destroy()
        del self.loadingScreen
        Loader.Loader.destroy(self)

    def beginBulkLoad(self, name, label, range, gui, tipCategory):
        self._loadStartT = globalClock.getRealTime()
        Loader.Loader.notify.info("starting bulk load of block '%s'" % name)
        if self.inBulkBlock:
            Loader.Loader.notify.warning("Tried to start a block ('%s'), but am already in a block ('%s')" % (name, self.blockName))
            return None
        self.inBulkBlock = 1
        self._lastTickT = globalClock.getRealTime()
        self.blockName = name
        self.loadingScreen.begin(range, label, gui, tipCategory)
        return None

    def endBulkLoad(self, name):
        if not self.inBulkBlock:
            Loader.Loader.notify.warning("Tried to end a block ('%s'), but not in one" % name)
            return
        if name != self.blockName:
            Loader.Loader.notify.warning("Tried to end a block ('%s'), other then the current one ('%s')" % (name, self.blockName))
            return
        self.inBulkBlock = None
        expectedCount, loadedCount = self.loadingScreen.end()
        now = globalClock.getRealTime()
        Loader.Loader.notify.info("At end of block '%s', expected %s, loaded %s, duration=%s" % (self.blockName,
         expectedCount,
         loadedCount,
         now - self._loadStartT))
        return

    def abortBulkLoad(self):
        if self.inBulkBlock:
            Loader.Loader.notify.info("Aborting block ('%s')" % self.blockName)
            self.inBulkBlock = None
            self.loadingScreen.abort()
        return

    def tick(self):
        if self.inBulkBlock:
            now = globalClock.getRealTime()
            if now - self._lastTickT > self.TickPeriod:
                self._lastTickT += self.TickPeriod
                self.loadingScreen.tick()
                try:
                    base.cr.considerHeartbeat()
                except:
                    pass

    def loadModel(self, *args, **kw):
        ret = Loader.Loader.loadModel(self, *args, **kw)
        self.tick()
        return ret

    def loadFont(self, *args, **kw):
        ret = Loader.Loader.loadFont(self, *args, **kw)
        self.tick()
        return ret

    def loadTexture(self, texturePath, alphaPath = None, okMissing = False):
        ret = Loader.Loader.loadTexture(self, texturePath, alphaPath, okMissing=okMissing)
        self.tick()
        if alphaPath:
            self.tick()
        return ret

    def loadSfx(self, soundPath):
        ret = Loader.Loader.loadSfx(self, soundPath)
        self.tick()
        return ret

    def loadMusic(self, soundPath):
        ret = Loader.Loader.loadMusic(self, soundPath)
        self.tick()
        return ret

    def loadDNAFileAI(self, dnaStore, dnaFile):
        ret = loadDNAFileAI(dnaStore, dnaFile, CSDefault)
        self.tick()
        return ret

    def loadDNAFile(self, dnaStore, dnaFile):
        ret = loadDNAFile(dnaStore, dnaFile, CSDefault, 0)
        self.tick()
        return ret
# okay decompyling C:\Users\Maverick\Documents\Visual Studio 2010\Projects\Unfreezer\py2\toontown\toonbase\ToontownLoader.pyc
# decompiled 1 files: 1 okay, 0 failed, 0 verify failed
# 2013.08.22 22:26:35 Pacific Daylight Time
[/code]
###########################################################################################
###########################################################################################
Loader.py:
[code]"""Loader module: contains the Loader class"""

__all__ = ['Loader']

from panda3d.core import *
from panda3d.core import Loader as PandaLoader
from direct.directnotify.DirectNotifyGlobal import *
from direct.showbase.DirectObject import DirectObject
import types

# You can specify a phaseChecker callback to check
# a modelPath to see if it is being loaded in the correct
# phase
phaseChecker = None


class Loader(DirectObject):
    """
    Load models, textures, sounds, and code.
    """
    notify = directNotify.newCategory("Loader")
    loaderIndex = 0

    class Callback:
        def __init__(self, numObjects, gotList, callback, extraArgs):
            self.objects = [None] * numObjects
            self.gotList = gotList
            self.callback = callback
            self.extraArgs = extraArgs
            self.numRemaining = numObjects
            self.cancelled = False
            self.requests = {}

        def gotObject(self, index, object):
            self.objects[index] = object
            self.numRemaining -= 1

            if self.numRemaining == 0:
                if self.gotList:
                    self.callback(self.objects, *self.extraArgs)
                else:
                    self.callback(*(self.objects + self.extraArgs))

    # special methods
    def __init__(self, base):
        self.base = base
        self.loader = PandaLoader.getGlobalPtr()

        self.hook = "async_loader_%s" % (Loader.loaderIndex)
        Loader.loaderIndex += 1
        self.accept(self.hook, self.__gotAsyncObject)

    def destroy(self):
        self.ignore(self.hook)
        self.loader.stopThreads()
        del self.base
        del self.loader

    # model loading funcs
    def loadModel(self, modelPath, loaderOptions = None, noCache = None,
                  allowInstance = False, okMissing = None,
                  callback = None, extraArgs = [], priority = None):
        """
        Attempts to load a model or models from one or more relative
        pathnames.  If the input modelPath is a string (a single model
        pathname), the return value will be a NodePath to the model
        loaded if the load was successful, or None otherwise.  If the
        input modelPath is a list of pathnames, the return value will
        be a list of NodePaths and/or Nones.

        loaderOptions may optionally be passed in to control details
        about the way the model is searched and loaded.  See the
        LoaderOptions class for more.

        The default is to look in the ModelPool (RAM) cache first, and
        return a copy from that if the model can be found there.  If
        the bam cache is enabled (via the model-cache-dir config
        variable), then that will be consulted next, and if both
        caches fail, the file will be loaded from disk.  If noCache is
        True, then neither cache will be consulted or updated.

        If allowInstance is True, a shared instance may be returned
        from the ModelPool.  This is dangerous, since it is easy to
        accidentally modify the shared instance, and invalidate future
        load attempts of the same model.  Normally, you should leave
        allowInstance set to False, which will always return a unique
        copy.

        If okMissing is True, None is returned if the model is not
        found or cannot be read, and no error message is printed.
        Otherwise, an IOError is raised if the model is not found or
        cannot be read (similar to attempting to open a nonexistent
        file).  (If modelPath is a list of filenames, then IOError is
        raised if *any* of the models could not be loaded.)

        If callback is not None, then the model load will be performed
        asynchronously.  In this case, loadModel() will initiate a
        background load and return immediately.  The return value will
        be an object that may later be passed to
        loader.cancelRequest() to cancel the asynchronous request.  At
        some later point, when the requested model(s) have finished
        loading, the callback function will be invoked with the n
        loaded models passed as its parameter list.  It is possible
        that the callback will be invoked immediately, even before
        loadModel() returns.  If you use callback, you may also
        specify a priority, which specifies the relative importance
        over this model over all of the other asynchronous load
        requests (higher numbers are loaded first).

        True asynchronous model loading requires Panda to have been
        compiled with threading support enabled (you can test
        Thread.isThreadingSupported()).  In the absence of threading
        support, the asynchronous interface still exists and still
        behaves exactly as described, except that loadModel() might
        not return immediately.

        """

        assert Loader.notify.debug("Loading model: %s" % (modelPath))
        if loaderOptions == None:
            loaderOptions = LoaderOptions()
        else:
            loaderOptions = LoaderOptions(loaderOptions)

        if okMissing is not None:
            if okMissing:
                loaderOptions.setFlags(loaderOptions.getFlags() & ~LoaderOptions.LFReportErrors)
            else:
                loaderOptions.setFlags(loaderOptions.getFlags() | LoaderOptions.LFReportErrors)
        else:
            okMissing = ((loaderOptions.getFlags() & LoaderOptions.LFReportErrors) == 0)

        if noCache is not None:
            if noCache:
                loaderOptions.setFlags(loaderOptions.getFlags() | LoaderOptions.LFNoCache)
            else:
                loaderOptions.setFlags(loaderOptions.getFlags() & ~LoaderOptions.LFNoCache)

        if allowInstance:
            loaderOptions.setFlags(loaderOptions.getFlags() | LoaderOptions.LFAllowInstance)

        if isinstance(modelPath, types.StringTypes) or \
           isinstance(modelPath, Filename):
            # We were given a single model pathname.
            modelList = [modelPath]
            if phaseChecker:
                phaseChecker(modelPath, loaderOptions)

            gotList = False
        else:
            # Assume we were given a list of model pathnames.
            modelList = modelPath
            gotList = True

        if callback is None:
            # We got no callback, so it's a synchronous load.

            result = []
            for modelPath in modelList:
                node = self.loader.loadSync(Filename(modelPath), loaderOptions)
                if (node != None):
                    nodePath = NodePath(node)
                else:
                    nodePath = None

                result.append(nodePath)

            if not okMissing and None in result:
                message = 'Could not load model file(s): %s' % (modelList,)
                raise IOError, message

            if gotList:
                return result
            else:
                return result[0]

        else:
            # We got a callback, so we want an asynchronous (threaded)
            # load.  We'll return immediately, but when all of the
            # requested models have been loaded, we'll invoke the
            # callback (passing it the models on the parameter list).

            cb = Loader.Callback(len(modelList), gotList, callback, extraArgs)
            i=0
            for modelPath in modelList:
                request = self.loader.makeAsyncRequest(Filename(modelPath), loaderOptions)
                if priority is not None:
                    request.setPriority(priority)
                request.setDoneEvent(self.hook)
                request.setPythonObject((cb, i))
                i+=1
                self.loader.loadAsync(request)
                cb.requests[request] = True
            return cb

    def cancelRequest(self, cb):
        """Cancels an aysynchronous loading or flatten request issued
        earlier.  The callback associated with the request will not be
        called after cancelRequest() has been performed. """

        if not cb.cancelled:
            cb.cancelled = True
            for request in cb.requests:
                self.loader.remove(request)
            cb.requests = None

    def isRequestPending(self, cb):
        """ Returns true if an asynchronous loading or flatten request
        issued earlier is still pending, or false if it has completed or
        been cancelled. """

        return bool(cb.requests)

    def loadModelOnce(self, modelPath):
        """
        modelPath is a string.

        Attempt to load a model from modelPool, if not present
        then attempt to load it from disk. Return a nodepath to
        the model if successful or None otherwise
        """
        Loader.notify.info("loader.loadModelOnce() is deprecated; use loader.loadModel() instead.")

        return self.loadModel(modelPath, noCache = False)

    def loadModelCopy(self, modelPath, loaderOptions = None):
        """loadModelCopy(self, string)
        NOTE: This method is deprecated and should not be used.
        Attempt to load a model from modelPool, if not present
        then attempt to load it from disk. Return a nodepath to
        a copy of the model if successful or None otherwise
        """
        Loader.notify.info("loader.loadModelCopy() is deprecated; use loader.loadModel() instead.")

        return self.loadModel(modelPath, loaderOptions = loaderOptions, noCache = False)

    def loadModelNode(self, modelPath):
        """
        modelPath is a string.

        This is like loadModelOnce in that it loads a model from the
        modelPool, but it does not then instance it to hidden and it
        returns a Node instead of a NodePath.  This is particularly
        useful for special models like fonts that you don't care about
        where they're parented to, and you don't want a NodePath
        anyway--it prevents accumulation of instances of the font
        model under hidden.

        However, if you're loading a font, see loadFont(), below.
        """
        Loader.notify.info("loader.loadModelNode() is deprecated; use loader.loadModel() instead.")

        model = self.loadModel(modelPath, noCache = False)
        if model is not None:
            model = model.node()

        return model

    def unloadModel(self, model):
        """
        model is the return value of loadModel().  For backward
        compatibility, it may also be the filename that was passed to
        loadModel(), though this requires a disk search.
        """
        if isinstance(model, NodePath):
            # Maybe we were given a NodePath
            modelNode = model.node()

        elif isinstance(model, ModelNode):
            # Maybe we were given a node
            modelNode = model

        elif isinstance(model, types.StringTypes) or \
             isinstance(model, Filename):
            # If we were given a filename, we have to ask the loader
            # to resolve it for us.
            options = LoaderOptions(LoaderOptions.LFSearch | LoaderOptions.LFNoDiskCache | LoaderOptions.LFCacheOnly)
            modelNode = self.loader.loadSync(Filename(model), options)
            if modelNode == None:
                # Model not found.
                assert Loader.notify.debug("Unloading model not loaded: %s" % (model))
                return

            assert Loader.notify.debug("%s resolves to %s" % (model, modelNode.getFullpath()))

        else:
            raise 'Invalid parameter to unloadModel: %s' % (model)

        assert Loader.notify.debug("Unloading model: %s" % (modelNode.getFullpath()))
        ModelPool.releaseModel(modelNode)


    # font loading funcs
    def loadFont(self, modelPath,
                 spaceAdvance = None, lineHeight = None,
                 pointSize = None,
                 pixelsPerUnit = None, scaleFactor = None,
                 textureMargin = None, polyMargin = None,
                 minFilter = None, magFilter = None,
                 anisotropicDegree = None,
                 color = None,
                 outlineWidth = None,
                 outlineFeather = 0.1,
                 outlineColor = VBase4(0, 0, 0, 1),
                 renderMode = None,
                 okMissing = False):
        """
        modelPath is a string.

        This loads a special model as a TextFont object, for rendering
        text with a TextNode.  A font file must be either a special
        egg file (or bam file) generated with egg-mkfont, which is
        considered a static font, or a standard font file (like a TTF
        file) that is supported by FreeType, which is considered a
        dynamic font.

        okMissing should be True to indicate the method should return
        None if the font file is not found.  If it is False, the
        method will raise an exception if the font file is not found
        or cannot be loaded.

        Most font-customization parameters accepted by this method
        (except lineHeight and spaceAdvance) may only be specified for
        dynamic font files like TTF files, not for static egg files.

        lineHeight specifies the vertical distance between consecutive
        lines, in Panda units.  If unspecified, it is taken from the
        font information.  This parameter may be specified for static
        as well as dynamic fonts.

        spaceAdvance specifies the width of a space character (ascii
        32), in Panda units.  If unspecified, it is taken from the
        font information.  This may be specified for static as well as
        dynamic fonts.

        The remaining parameters may only be specified for dynamic
        fonts.

        pixelsPerUnit controls the visual quality of the rendered text
        characters.  It specifies the number of texture pixels per
        each Panda unit of character height.  Increasing this number
        increases the amount of detail that can be represented in the
        characters, at the expense of texture memory.

        scaleFactor also controls the visual quality of the rendered
        text characters.  It is the amount by which the characters are
        rendered bigger out of Freetype, and then downscaled to fit
        within the texture.  Increasing this number may reduce some
        artifacts of very small font characters, at a small cost of
        processing time to generate the characters initially.

        textureMargin specifies the number of pixels of the texture to
        leave between adjacent characters.  It may be a floating-point
        number.  This helps reduce bleed-through from nearby
        characters within the texture space.  Increasing this number
        reduces artifacts at the edges of the character cells
        (especially for very small text scales), at the expense of
        texture memory.

        polyMargin specifies the amount of additional buffer to create
        in the polygon that represents each character, in Panda units.
        It is similar to textureMargin, but it controls the polygon
        buffer, not the texture buffer.  Increasing this number
        reduces artifacts from letters getting chopped off at the
        edges (especially for very small text scales), with some
        increasing risk of adjacent letters overlapping and obscuring
        each other.

        minFilter, magFilter, and anisotropicDegree specify the
        texture filter modes that should be applied to the textures
        that are created to hold the font characters.

        If color is not None, it should be a VBase4 specifying the
        foreground color of the font.  Specifying this option breaks
        TextNode.setColor(), so you almost never want to use this
        option; the default (white) is the most appropriate for a
        font, as it allows text to have any arbitrary color assigned
        at generation time.  However, if you want to use a colored
        outline (below) with a different color for the interior, for
        instance a yellow letter with a blue outline, then you need
        this option, and then *all* text generated with this font will
        have to be yellow and blue.

        If outlineWidth is nonzero, an outline will be created at
        runtime for the letters, and outlineWidth will be the desired
        width of the outline, in points (most fonts are 10 points
        high, so 0.5 is often a good choice).  If you specify
        outlineWidth, you can also specify outlineFeather (0.0 .. 1.0)
        and outlineColor.  You may need to increase pixelsPerUnit to
        get the best results.

        if renderMode is not None, it may be one of the following
        symbols to specify a geometry-based font:

            TextFont.RMTexture - this is the default.  Font characters
              are rendered into a texture and applied to a polygon.
              This gives the best general-purpose results.

            TextFont.RMWireframe - Font characters are rendered as a
              sequence of one-pixel lines.  Consider enabling line or
              multisample antialiasing for best results.

            TextFont.RMPolygon - Font characters are rendered as a
              flat polygon.  This works best for very large
              characters, and generally requires polygon or
              multisample antialiasing to be enabled for best results.

            TextFont.RMExtruded - Font characters are rendered with a
              3-D outline made of polygons, like a cookie cutter.
              This is appropriate for a 3-D scene, but may be
              completely invisible when assigned to a 2-D scene and
              viewed normally from the front, since polygons are
              infinitely thin.

            TextFont.RMSolid - A combination of RMPolygon and
              RMExtruded: a flat polygon in front with a solid
              three-dimensional edge.  This is best for letters that
              will be tumbling in 3-D space.

        If the texture mode is other than RMTexture, most of the above
        parameters do not apply, though pixelsPerUnit still does apply
        and roughly controls the tightness of the curve approximation
        (and the number of vertices generated).

        """
        assert Loader.notify.debug("Loading font: %s" % (modelPath))
        if phaseChecker:
            loaderOptions = LoaderOptions()
            if(okMissing):
                loaderOptions.setFlags(loaderOptions.getFlags() & ~LoaderOptions.LFReportErrors)
            phaseChecker(modelPath, loaderOptions)

        font = FontPool.loadFont(modelPath)
        if font == None:
            if not okMissing:
                message = 'Could not load font file: %s' % (modelPath)
                raise IOError, message
            # If we couldn't load the model, at least return an
            # empty font.
            font = StaticTextFont(PandaNode("empty"))

        # The following properties may only be set for dynamic fonts.
        if hasattr(font, "setPointSize"):
            if pointSize != None:
                font.setPointSize(pointSize)
            if pixelsPerUnit != None:
                font.setPixelsPerUnit(pixelsPerUnit)
            if scaleFactor != None:
                font.setScaleFactor(scaleFactor)
            if textureMargin != None:
                font.setTextureMargin(textureMargin)
            if polyMargin != None:
                font.setPolyMargin(polyMargin)
            if minFilter != None:
                font.setMinfilter(minFilter)
            if magFilter != None:
                font.setMagfilter(magFilter)
            if anisotropicDegree != None:
                font.setAnisotropicDegree(anisotropicDegree)
            if color:
                font.setFg(color)
                # This means we want the background to match the
                # foreground color, but transparent.
                font.setBg(VBase4(color[0], color[1], color[2], 0.0))
            if outlineWidth:
                font.setOutline(outlineColor, outlineWidth, outlineFeather)

                # This means we want the background to match the
                # outline color, but transparent.
                font.setBg(VBase4(outlineColor[0], outlineColor[1], outlineColor[2], 0.0))
            if renderMode:
                font.setRenderMode(renderMode)

        if lineHeight is not None:
            # If the line height is specified, it overrides whatever
            # the font itself thinks the line height should be.  This
            # and spaceAdvance should be set last, since some of the
            # other parameters can cause these to be reset to their
            # default.
            font.setLineHeight(lineHeight)

        if spaceAdvance is not None:
            font.setSpaceAdvance(spaceAdvance)

        return font

    # texture loading funcs
    def loadTexture(self, texturePath, alphaPath = None,
                    readMipmaps = False, okMissing = False,
                    minfilter = None, magfilter = None,
                    anisotropicDegree = None, loaderOptions = None,
                    multiview = None):
        """
        texturePath is a string.

        Attempt to load a texture from the given file path using
        TexturePool class.

        okMissing should be True to indicate the method should return
        None if the texture file is not found.  If it is False, the
        method will raise an exception if the texture file is not
        found or cannot be loaded.

        If alphaPath is not None, it is the name of a grayscale image
        that is applied as the texture's alpha channel.

        If readMipmaps is True, then the filename string must contain
        a sequence of hash characters ('#') that are filled in with
        the mipmap index number, and n images will be loaded
        individually which define the n mipmap levels of the texture.
        The base level is mipmap level 0, and this defines the size of
        the texture and the number of expected mipmap images.

        If minfilter or magfilter is not None, they should be a symbol
        like Texture.FTLinear or Texture.FTNearest.  (minfilter may be
        further one of the Mipmap filter type symbols.)  These specify
        the filter mode that will automatically be applied to the
        texture when it is loaded.  Note that this setting may
        override the texture's existing settings, even if it has
        already been loaded.  See egg-texture-cards for a more robust
        way to apply per-texture filter types and settings.

        If anisotropicDegree is not None, it specifies the anisotropic degree
        to apply to the texture when it is loaded.  Like minfilter and
        magfilter, egg-texture-cards may be a more robust way to apply
        this setting.

        If multiview is true, it indicates to load a multiview or
        stereo texture.  In this case, the filename should contain a
        hash character ('#') that will be replaced with '0' for the
        left image and '1' for the right image.  Larger numbers are
        also allowed if you need more than two views.
        """
        if loaderOptions == None:
            loaderOptions = LoaderOptions()
        else:
            loaderOptions = LoaderOptions(loaderOptions)
        if multiview is not None:
            flags = loaderOptions.getTextureFlags()
            if multiview:
                flags |= LoaderOptions.TFMultiview
            else:
                flags &= ~LoaderOptions.TFMultiview
            loaderOptions.setTextureFlags(flags)

        if alphaPath is None:
            assert Loader.notify.debug("Loading texture: %s" % (texturePath))
            texture = TexturePool.loadTexture(texturePath, 0, readMipmaps, loaderOptions)
        else:
            assert Loader.notify.debug("Loading texture: %s %s" % (texturePath, alphaPath))
            texture = TexturePool.loadTexture(texturePath, alphaPath, 0, 0, readMipmaps, loaderOptions)
        if not texture and not okMissing:
            message = 'Could not load texture: %s' % (texturePath)
            raise IOError, message

        if minfilter is not None:
            texture.setMinfilter(minfilter)
        if magfilter is not None:
            texture.setMagfilter(magfilter)
        if anisotropicDegree is not None:
            texture.setAnisotropicDegree(anisotropicDegree)

        return texture

    def load3DTexture(self, texturePattern, readMipmaps = False, okMissing = False,
                      minfilter = None, magfilter = None, anisotropicDegree = None,
                      loaderOptions = None, multiview = None, numViews = 2):
        """
        texturePattern is a string that contains a sequence of one or
        more hash characters ('#'), which will be filled in with the
        z-height number.  Returns a 3-D Texture object, suitable for
        rendering volumetric textures.

        okMissing should be True to indicate the method should return
        None if the texture file is not found.  If it is False, the
        method will raise an exception if the texture file is not
        found or cannot be loaded.

        If readMipmaps is True, then the filename string must contain
        two sequences of hash characters; the first group is filled in
        with the z-height number, and the second group with the mipmap
        index number.

        If multiview is true, it indicates to load a multiview or
        stereo texture.  In this case, numViews should also be
        specified (the default is 2), and the sequence of texture
        images will be divided into numViews views.  The total
        z-height will be (numImages / numViews).  For instance, if you
        read 16 images with numViews = 2, then you have created a
        stereo multiview image, with z = 8.  In this example, images
        numbered 0 - 7 will be part of the left eye view, and images
        numbered 8 - 15 will be part of the right eye view.
        """
        assert Loader.notify.debug("Loading 3-D texture: %s" % (texturePattern))
        if loaderOptions == None:
            loaderOptions = LoaderOptions()
        else:
            loaderOptions = LoaderOptions(loaderOptions)
        if multiview is not None:
            flags = loaderOptions.getTextureFlags()
            if multiview:
                flags |= LoaderOptions.TFMultiview
            else:
                flags &= ~LoaderOptions.TFMultiview
            loaderOptions.setTextureFlags(flags)
            loaderOptions.setTextureNumViews(numViews)

        texture = TexturePool.load3dTexture(texturePattern, readMipmaps, loaderOptions)
        if not texture and not okMissing:
            message = 'Could not load 3-D texture: %s' % (texturePattern)
            raise IOError, message

        if minfilter is not None:
            texture.setMinfilter(minfilter)
        if magfilter is not None:
            texture.setMagfilter(magfilter)
        if anisotropicDegree is not None:
            texture.setAnisotropicDegree(anisotropicDegree)

        return texture

    def loadCubeMap(self, texturePattern, readMipmaps = False, okMissing = False,
                    minfilter = None, magfilter = None, anisotropicDegree = None,
                    loaderOptions = None, multiview = None):
        """
        texturePattern is a string that contains a sequence of one or
        more hash characters ('#'), which will be filled in with the
        face index number (0 through 6).  Returns a six-face cube map
        Texture object.

        okMissing should be True to indicate the method should return
        None if the texture file is not found.  If it is False, the
        method will raise an exception if the texture file is not
        found or cannot be loaded.

        If readMipmaps is True, then the filename string must contain
        two sequences of hash characters; the first group is filled in
        with the face index number, and the second group with the
        mipmap index number.

        If multiview is true, it indicates to load a multiview or
        stereo cube map.  For a stereo cube map, 12 images will be
        loaded--images numbered 0 - 5 will become the left eye view,
        and images 6 - 11 will become the right eye view.  In general,
        the number of images found on disk must be a multiple of six,
        and each six images will define a new view.
        """
        assert Loader.notify.debug("Loading cube map: %s" % (texturePattern))
        if loaderOptions == None:
            loaderOptions = LoaderOptions()
        else:
            loaderOptions = LoaderOptions(loaderOptions)
        if multiview is not None:
            flags = loaderOptions.getTextureFlags()
            if multiview:
                flags |= LoaderOptions.TFMultiview
            else:
                flags &= ~LoaderOptions.TFMultiview
            loaderOptions.setTextureFlags(flags)

        texture = TexturePool.loadCubeMap(texturePattern, readMipmaps, loaderOptions)
        if not texture and not okMissing:
            message = 'Could not load cube map: %s' % (texturePattern)
            raise IOError, message

        if minfilter is not None:
            texture.setMinfilter(minfilter)
        if magfilter is not None:
            texture.setMagfilter(magfilter)
        if anisotropicDegree is not None:
            texture.setAnisotropicDegree(anisotropicDegree)

        return texture

    def unloadTexture(self, texture):

        """
        Removes the previously-loaded texture from the cache, so
        that when the last reference to it is gone, it will be
        released.  This also means that the next time the same texture
        is loaded, it will be re-read from disk (and duplicated in
        texture memory if there are still outstanding references to
        it).

        The texture parameter may be the return value of any previous
        call to loadTexture(), load3DTexture(), or loadCubeMap().
        """
        assert Loader.notify.debug("Unloading texture: %s" % (texture))
        TexturePool.releaseTexture(texture)

    # sound loading funcs
    def loadSfx(self, *args, **kw):
        """Loads one or more sound files, specifically designated as a
        "sound effect" file (that is, uses the sfxManager to load the
        sound).  There is no distinction between sound effect files
        and music files other than the particular AudioManager used to
        load the sound file, but this distinction allows the sound
        effects and/or the music files to be adjusted as a group,
        independently of the other group."""

        # showbase-created sfxManager should always be at front of list
        if(self.base.sfxManagerList):
            return self.loadSound(self.base.sfxManagerList[0], *args, **kw)
        return None

    def loadMusic(self, *args, **kw):
        """Loads one or more sound files, specifically designated as a
        "music" file (that is, uses the musicManager to load the
        sound).  There is no distinction between sound effect files
        and music files other than the particular AudioManager used to
        load the sound file, but this distinction allows the sound
        effects and/or the music files to be adjusted as a group,
        independently of the other group."""
        if(self.base.musicManager):
            return self.loadSound(self.base.musicManager, *args, **kw)
        else:
            return None

    def loadSound(self, manager, soundPath, positional = False,
                  callback = None, extraArgs = []):

        """Loads one or more sound files, specifying the particular
        AudioManager that should be used to load them.  The soundPath
        may be either a single filename, or a list of filenames.  If a
        callback is specified, the loading happens in the background,
        just as in loadModel(); otherwise, the loading happens before
        loadSound() returns."""

        if isinstance(soundPath, types.StringTypes) or \
           isinstance(soundPath, Filename):
            # We were given a single sound pathname.
            soundList = [soundPath]
            gotList = False
        elif isinstance(soundPath, MovieAudio):
            soundList = [soundPath]
            gotList = False
        else:
            # Assume we were given a list of sound pathnames.
            soundList = soundPath
            gotList = True

        if callback is None:
            # We got no callback, so it's a synchronous load.

            result = []
            for soundPath in soundList:
                # should return a valid sound obj even if musicMgr is invalid
                sound = manager.getSound(soundPath)
                result.append(sound)

            if gotList:
                return result
            else:
                return result[0]

        else:
            # We got a callback, so we want an asynchronous (threaded)
            # load.  We'll return immediately, but when all of the
            # requested sounds have been loaded, we'll invoke the
            # callback (passing it the sounds on the parameter list).

            cb = Loader.Callback(len(soundList), gotList, callback, extraArgs)
            for i in range(len(soundList)):
                soundPath = soundList[i]
                request = AudioLoadRequest(manager, soundPath, positional)
                request.setDoneEvent(self.hook)
                request.setPythonObject((cb, i))
                self.loader.loadAsync(request)
                cb.requests[request] = True
            return cb

    def unloadSfx (self, sfx):
        if (sfx):
            if(self.base.sfxManagerList):
                self.base.sfxManagerList[0].uncacheSound (sfx.getName())

##     def makeNodeNamesUnique(self, nodePath, nodeCount):
##         if nodeCount == 0:
##             Loader.modelCount += 1
##         nodePath.setName(nodePath.getName() +
##                          ('_%d_%d' % (Loader.modelCount, nodeCount)))
##         for i in range(nodePath.getNumChildren()):
##             nodeCount += 1
##             self.makeNodeNamesUnique(nodePath.getChild(i), nodeCount)

    def loadShader (self, shaderPath, okMissing = False):
        shader = ShaderPool.loadShader (shaderPath)
        if not shader and not okMissing:
            message = 'Could not shader file: %s' % (shaderPath)
            raise IOError, message
        return shader

    def unloadShader(self, shaderPath):
        if (shaderPath != None):
            ShaderPool.releaseShader(shaderPath)

    def asyncFlattenStrong(self, model, inPlace = True,
                           callback = None, extraArgs = []):
        """ Performs a model.flattenStrong() operation in a sub-thread
        (if threading is compiled into Panda).  The model may be a
        single NodePath, or it may be a list of NodePaths.

        Each model is duplicated and flattened in the sub-thread.

        If inPlace is True, then when the flatten operation completes,
        the newly flattened copies are automatically dropped into the
        scene graph, in place the original models.

        If a callback is specified, then it is called after the
        operation is finished, receiving the flattened model (or a
        list of flattened models)."""

        if isinstance(model, NodePath):
            # We were given a single model.
            modelList = [model]
            gotList = False
        else:
            # Assume we were given a list of models.
            modelList = model
            gotList = True

        if inPlace:
            extraArgs = [gotList, callback, modelList, extraArgs]
            callback = self.__asyncFlattenDone
            gotList = True

        cb = Loader.Callback(len(modelList), gotList, callback, extraArgs)
        i=0
        for model in modelList:
            request = ModelFlattenRequest(model.node())
            request.setDoneEvent(self.hook)
            request.setPythonObject((cb, i))
            i+=1
            self.loader.loadAsync(request)
            cb.requests[request] = True
        return cb

    def __asyncFlattenDone(self, models,
                           gotList, callback, origModelList, extraArgs):
        """ The asynchronous flatten operation has completed; quietly
        drop in the new models. """
        self.notify.debug("asyncFlattenDone: %s" % (models,))
        assert(len(models) == len(origModelList))
        for i in range(len(models)):
            origModelList[i].getChildren().detach()
            orig = origModelList[i].node()
            flat = models[i].node()
            orig.copyAllProperties(flat)
            orig.replaceNode(flat)

        if callback:
            if gotList:
                callback(origModelList, *extraArgs)
            else:
                callback(*(origModelList + extraArgs))

    def __gotAsyncObject(self, request):
        """A model or sound file or some such thing has just been
        loaded asynchronously by the sub-thread.  Add it to the list
        of loaded objects, and call the appropriate callback when it's
        time."""

        cb, i = request.getPythonObject()
        if cb.cancelled:
            return

        del cb.requests[request]

        object = None
        if hasattr(request, "getModel"):
            node = request.getModel()
            if (node != None):
                object = NodePath(node)

        elif hasattr(request, "getSound"):
            object = request.getSound()

        cb.gotObject(i, object)
[/code]