Goldbox64/game/nodes.py

from . import gbe
import pygame


class NodeOptions(gbe.nodes.Node2D):
    def __init__(self, name="Options", parent=None):
        try:
            gbe.nodes.Node2D.__init__(self, name, parent)
        except gbe.nodes.NodeError as e:
            raise e
        self._options = []
        self._oindex = 0
        self._color_select = (255,255,0)
        self._color_idle = (255,255,255)

    def add_option(self, font_src, size, text, event, params={}):
        nodeName = "OpText{}".format(len(self._options))
        nodeOption = gbe.nodes.NodeText(nodeName, self)
        nodeOption.font_src = font_src
        nodeOption.size = size
        nodeOption.text = text
        nodeOption.antialias = False

        if len(self._options) == 0:
            nodeOption.set_color(*self._color_select)
        else:
            nodeOption.set_color(*self._color_idle)
            li = len(self._options)-1
            lp = self._options[li][0].position
            ls = self._options[li][0].size
            nodeOption.position = (lp[0], lp[1] + ls + 1)

        self._options.append([nodeOption, event, params])

    def on_start(self):
        self.listen("KEYPRESSED", self.on_keypressed)

    def on_pause(self):
        self.unlisten("KEYPRESSED", self.on_keypressed)

    def on_keypressed(self, event, params):
        if params["key_name"] == "w":
            if self._oindex > 0:
                self._options[self._oindex][0].set_color(*self._color_idle)
                self._oindex -= 1
                self._options[self._oindex][0].set_color(*self._color_select)

        elif params["key_name"] == "s":
            if self._oindex < len(self._options) - 1:
                self._options[self._oindex][0].set_color(*self._color_idle)
                self._oindex += 1
                self._options[self._oindex][0].set_color(*self._color_select)

        elif params["key_name"] in ["enter", "return"]:
            if len(self._options) > 0:
                op = self._options[self._oindex]
                self.emit(op[1], op[2])

        elif params["key_name"] == "escape":
            self.emit("QUIT")



class NodeGameMap(gbe.nodes.Node2D):
    def __init__(self, name="GameMap", parent=None):
        try:
            gbe.nodes.Node2D.__init__(self, name, parent)
        except gbe.nodes.NodeError as e:
            raise e
        self._renderMode = 0 # 0 = Top-down | 1 = Perspective
        self._layer = {}
        self._currentLayer = ""
        self._res = {
            "env_src":"",
            "env":None,
            "h_index":0,
            "g_index":0,
            "wall_src":"",
            "walls":None,
            "wall_index":-1,
            "door_index":-1
        }
        self._topdown = {
            "size":8, # Pixels square
            "wall_color":pygame.Color(255, 255, 255),
            "blocked_color":pygame.Color(255, 0, 0)
        }
        self._cellpos = [0,0]
        self._orientation = "n"

    @property
    def environment_source(self):
        return self._res["env_src"]

    @property
    def wall_source(self):
        return self._res["wall_src"]

    @property
    def layer_count(self):
        return len(self._layer)

    @property
    def current_layer(self):
        return self._currentLayer

    @property
    def current_layer_width(self):
        if self._currentLayer != "":
            return self._layer[self._currentLayer]["w"]
        return 0

    @property
    def current_layer_height(self):
        if self._currentLayer != "":
            return self._layer[self._currentLayer]["h"]
        return 0

    @property
    def layer_names(self):
        names = []
        for key in self._layer:
            names.append(names)
        return names

    @property
    def orientation(self):
        return self._orientation

    @property
    def cell_position(self):
        return (self._cellpos[0], self._cellpos[1])

    def set_resources(self, env_src, wall_src):
        res = self.resource
        if env_src != "" and env_src != self._res["env_src"]:
            if res.is_valid("json", env_src):
                if not res.has("json", env_src):
                    res.store("json", env_src)
                e = res.get("json", env_src)
                if e is not None and e() is not None:
                    self._res["env_src"] = env_src
                    self._res["env"] = e
                    # NOTE: Making a lot of assumptions to the structural validity of the data file.
                    isrc1 = e().data["horizon"]["src"]
                    isrc2 = e().data["ground"]["src"]
                    if res.is_valid("graphic", isrc1) and res.is_valid("graphic", isrc2):
                        if not res.has("graphic", isrc1):
                            res.store("graphic", isrc1)
                        if not res.has("graphic", isrc2):
                            res.store("graphic", isrc2)
        if wall_src != "" and wall_src != self._res["wall_src"]:
            if res.is_valid("json", wall_src):
                if not res.has("json", wall_src):
                    print("Storing resource {}".format(wall_src))
                    res.store("json", wall_src)
                w = res.get("json", wall_src)
                if w is not None and w() is not None:
                    self._res["wall_src"] = wall_src
                    self._res["walls"] = w
                    # NOTE: I'm making a lot of assumptions to the structural validity of the data file, but...
                    imgsrc = w().data["src"]
                    if res.is_valid("graphic", imgsrc):
                        if not res.has("graphic", imgsrc):
                            res.store("graphic", imgsrc)
                else:
                    print("Failed to get JSON instance {}".format(wall_src))
            else:
                print("Invalid JSON {}".format(wall_src))


    def add_layer(self, name, w, h):
        if name == "" or name in self._layer:
            return
        self._layer[name] = {
            "w":w,
            "h":h,
            "cells":[]
        }
        for c in range(0, w*h):
            self._layer[name]["cells"].append({
                "h":0, # Horizon
                "g":0, # Ground
                "n":[-1, False, -1, None], # North Wall | [<graphic index, -1 = None>, <blocking>, <door index, -1 = None, 0 = closed, 1=open>, <door target>]
                "s":[-1, False, -1, None], # South Wall
                "e":[-1, False, -1, None], # East Wall
                "w":[-1, False, -1, None], # West Wall
            })
        if self._currentLayer == "":
            self._currentLayer = name

    def set_active_layer(self, name, x=0, y=0):
        if name == "" or not (name in self._layers):
            return
        layer = self._layers[name]
        if x >= 0 and x < layer["w"] and y >= 0 and y < layer["h"]:
            self._currentLayer = name
            self._cellpos = [x,y]

    def set_cell_env(self, x, y, ceiling=-1, ground=-1):
        if self._currentLayer == "":
            return
        layer = self._layer[self._currentLayer]
        if x >= 0 and x < layer["w"] and y >= 0 and y < layer["h"]:
            index = (y * layer["w"]) + x
            cell = layer["cells"]
            if ceiling >= 0:
                cell[index]["c"] = ceiling
            if ground >= 0:
                cell[index]["g"] = ground

    def fill_cell_env(self, x1, y1, x2, y2, ceiling=-1, ground=-1):
        if self._currentLayer == "":
            return
        for y in range(y1, y2+1):
            for x in range(x1, x2+1):
                self.set_cell_env(x, y, ceiling, ground)

    def set_cell_face(self, x, y, face, gi=-2, blocking=None):
        if self._currentLayer == "" or not (face == "n" or face == "s" or face == "w" or face == "e"):
            return
        layer = self._layer[self._currentLayer]
        if x >= 0 and x < layer["w"] and y >= 0 and y < layer["h"]:
            index = (y * layer["w"]) + x
            cell = layer["cells"]
            if gi <= -2:
                gi = self._res["wall_index"]
            if gi >= -1:
                cell[index][face][0] = gi
                if blocking is not None:
                    cell[index][face][1] = (blocking == True)
                else:
                    if gi == -1: # If gi = -1, there is no wall, so, by default, there is no blocking.
                        cell[index][face][1] = False
                    else: # Otherwise, blocking is assumed :)
                        cell[index][face][1] = True
            elif blocking is not None:
                blocking = (blocking == True) # Forcing a boolean
                cell[index][face][1] = blocking  

    def next_wall(self):
        if self._res["walls"] is not None:
            w = self._res["walls"]()
            if w is not None:
                windex = self._res["wall_index"] + 1
                if windex >= len(w.data["walls"]):
                    windex = -1
                self._res["wall_index"] = windex
                print("Next Wall Index: {}".format(windex))

    def prev_wall(self):
        if self._res["walls"] is not None:
            w = self._res["walls"]()
            if w is not None:
                windex = self._res["wall_index"] - 1
                if windex < -1:
                    windex = len(w.data["walls"]) - 1
                self._res["wall_index"] = windex
                print("Prev Wall Index: {}".format(windex))

    def turn_left(self):
        onum = self._d_s2n(self._orientation)
        onum -= 1
        if onum < 0:
            onum = 3
        self._orientation = self._d_n2s(onum)

    def turn_right(self):
        onum = self._d_s2n(self._orientation)
        onum += 1
        if onum > 3:
            onum = 0
        self._orientation = self._d_n2s(onum)

    def move_to(self, x, y):
        if x >= 0 and x < self.current_layer_width and y >= 0 and y < self.current_layer_height:
            self._cellpos = [x, y]

    def move_forward(self, ignore_passible=False):
        if ignore_passible or self.is_passible(self._cellpos[0], self._cellpos[1], self._orientation):
            x = self._cellpos[0]
            y = self._cellpos[1]
            if self._orientation == "n":
                y -= 1
            elif self._orientation == "e":
                x += 1
            elif self._orientation == "s":
                y += 1
            elif self._orientation == "w":
                x -= 1
            self.move_to(x, y)

    def move_backward(self, ignore_passible=False):
        orient = self._orientation
        if self._orientation == "n":
            self._orientation = "s"
        elif self._orientation == "s":
            self._orientation = "n"
        elif self._orientation == "e":
            self._orientation = "w"
        elif self._orientation == "w":
            self._orientation = "e"
        self.move_forward(ignore_passible)
        self._orientation = orient

    def is_passible(self, x, y, d):
        """
        Returns true if it's possible to move forward from the x, y map position in the direction given.
        d - 0 = North, 1 = East, 2 = South, 3 = West
        """
        if self._currentLayer == "" or d < 0 or d >= 4:
            return False
        layer = self._layer[self._currentLayer]
        if x >= 0 and x < layer["w"] and y >= 0 and y < layer["h"]:
            index = (y * layer["w"]) + x
            d = self._d_n2s(d)
            return not layer["cells"][index][d][1]
        return False


    def toggle_render_mode(self):
        if self._renderMode == 0:
            self._renderMode = 1
        else:
            self._renderMode = 0

    def set_render_mode(self, mode):
        if mode <= 0:
            self._renderMode = 0
        else:
            self._renderMode = 1

    def get_render_mode(self):
        return self._renderMode

    def _d_n2s(self, d): # _(d)irection_(n)umber_to_(s)tring
        if d == 0:
            return "n"
        elif d == 1:
            return "e"
        elif d == 2:
            return "s"
        elif d == 3:
            return "w"
        return ""

    def _d_s2n(self, d):
        if d == "n":
            return 0
        elif d == "e":
            return 1
        elif d == "s":
            return 2
        elif d == "w":
            return 3
        return -1

    def _indexFromPos(self, x, y):
        if x >= 0 and x < self.current_layer_width and y >= 0 and y < self.current_layer_height:
            return (y * self.current_layer_width) + x
        return -1

    def _getCell(self, x, y):
        if x >=- 0 and x < self.current_layer_width and y >= 0 and y < self.current_layer_height:
            index = self._indexFromPos(x, y)
            return self._layer[self._currentLayer]["cells"][index]
        return None

    def _getOrientVec(self):
        if self._orientation == "n":
            return (0, -1)
        elif self._orientation == "s":
            return (0, 1)
        elif self._orientation == "e":
            return (1, 0)
        elif self._orientation == "w":
            return (-1, 0)
        return (0,0)


    def _RenderTopDown(self):
        cell_size = self._topdown["size"]
        size = self.resolution
        pos = self._cellpos
        lsize = (self.current_layer_width, self.current_layer_height)
        hcells = int(size[0] / cell_size)
        vcells = int(size[1] / cell_size)
        cx = pos[0] - int(hcells * 0.5)
        cy = pos[1] - int(vcells * 0.5)
        ry = -int(cell_size*0.5)
        for j in range(0, vcells+1):
            y = cy + j
            if y >= 0 and y < lsize[1]:
                rx = -int(cell_size*0.5)
                for i in range(0, hcells+1):
                    x = cx + i
                    if x >= 0 and x < lsize[0]:
                        cell = self._getCell(x, y)
                        if cell["n"][0] >= 0:
                            self.draw_rect((rx, ry, cell_size, 2), self._topdown["wall_color"], 0, self._topdown["wall_color"])
                        if cell["e"][0] >= 0:
                            self.draw_rect((rx+(cell_size-2), ry, 2, cell_size), self._topdown["wall_color"], 0, self._topdown["wall_color"])
                        if cell["s"][0] >= 0:
                            self.draw_rect((rx, ry+(cell_size-2), cell_size, 2), self._topdown["wall_color"], 0, self._topdown["wall_color"])
                        if cell["w"][0] >= 0:
                            self.draw_rect((rx, ry, 2, cell_size), self._topdown["wall_color"], 0, self._topdown["wall_color"])

                        if cell["n"][1] == True:
                            self.draw_lines([(rx+1, ry+1), (rx+(cell_size-2), ry+1)], self._topdown["blocked_color"], 1)
                        if cell["e"][1] == True:
                            self.draw_lines([(rx+(cell_size-2), ry+1), (rx+(cell_size-2), ry+(cell_size-2))], self._topdown["blocked_color"], 1)
                        if cell["s"][1] == True:
                            self.draw_lines([(rx+1, ry+(cell_size-2)), (rx+(cell_size-2), ry+(cell_size-2))], self._topdown["blocked_color"], 1)
                        if cell["w"][1] == True:
                            self.draw_lines([(rx+1, ry+1), (rx+1, ry+(cell_size-2))], self._topdown["blocked_color"], 1)
                    rx += cell_size    
            ry += cell_size



    def _RenderPersFar(self, pos, size, o, orr, orl, wdat, wsurf):
        ovec = self._getOrientVec()
        fx = pos[0] + (ovec[0]*2)
        fy = pos[1] + (ovec[1]*2)
        fcell = self._getCell(fx, fy)
        if fcell == None:
            return # If we can't see the cell directly ahead, the other's won't be visible either!

        lcell = llcell = rcell = rrcell = None
        if ovec[0] == 0: # Facing North/South
            lcell = self._getCell(fx + ovec[1], fy)
            llcell = self._getCell(fx + (ovec[1]*2), fy)
            rcell = self._getCell(fx - ovec[1], fy)
            rrcell = self._getCell(fx - (ovec[1]*2), fy)
        else: # Facing East/West
            lcell = self._getCell(fx, fy - ovec[0])
            llcell = self._getCell(fx, fy - (ovec[0]*2))
            rcell = self._getCell(fx, fy + ovec[0])
            rrcell = self._getCell(fx, fy + (ovec[0]*2))

        hsw = int(size[0]*0.5)
        hsh = int(size[1]*0.5)

        # Rendering from edges to center
        if llcell is not None:
            if llcell[o][0] >= 0:
                rect = wdat["walls"][llcell[o][0]]["f_far"]
                hw = int(rect[2]*0.5)
                hh = int(rect[3]*0.5)
                self.draw_image(wsurf, (0, hsh-hh), (rect[0], rect[1], hw, rect[3]))
        if rrcell is not None:
            if rrcell[o][0] >= 0:
                rect = wdat["walls"][rrcell[o][0]]["f_far"]
                hw = int(rect[2]*0.5)
                hh = int(rect[3]*0.5)
                self.draw_image(wsurf, (size[0]-hw, hsh-hh), (rect[0]+hw, rect[1], hw, rect[3]))
        if lcell is not None:
            if lcell[o][0] >= 0:
                rect = wdat["walls"][lcell[o][0]]["f_far"]
                hw = int(rect[2]*0.5)
                hh = int(rect[3]*0.5)
                self.draw_image(wsurf, (hw, hsh-hh), (rect[0], rect[1], rect[2], rect[3]))
            if lcell[orl][0] >= 0:
                rect = wdat["walls"][lcell[orl][0]]["s_far"]
                lsurf = pygame.transform.flip(wsurf.subsurface(rect), True, False)
                hh = int(rect[3]*0.5)
                self.draw_image(lsurf, (0, hsh-hh))
        if rcell is not None:
            if rcell[o][0] >= 0:
                rect = wdat["walls"][rcell[o][0]]["f_far"]
                hw = int(rect[2]*0.5)
                hh = int(rect[3]*0.5)
                self.draw_image(wsurf, (size[0]-(rect[2]+hw), hsh-hh), (rect[0], rect[1], rect[2], rect[3]))
            if rcell[orr][0] >= 0:
                rect = wdat["walls"][rcell[orr][0]]["s_far"]
                hh = int(rect[3]*0.5)
                self.draw_image(wsurf, (size[0]-rect[2], hsh-hh), (rect[0], rect[1], rect[2], rect[3]))

        # Rendering the main cell!!
        frect = None # This will be used to place walls
        if fcell[o][0] >= 0:
            frect = wdat["walls"][fcell[o][0]]["f_far"]
            hw = int(frect[2]*0.5)
            hh = int(frect[3]*0.5)
            self.draw_image(wsurf, (hsw-hw, hsh-hh), (frect[0], frect[1], frect[2], frect[3]))
        if fcell[orl][0] >= 0:
            rect = wdat["walls"][fcell[orl][0]]["s_far"]
            if frect is None:
                # Kinda cheating in that it's known that all walls are the same size.
                frect = wdat["walls"][fcell[orl][0]]["f_far"]
            hw = int(frect[2]*0.5)
            lsurf = pygame.transform.flip(wsurf.subsurface(rect), True, False)
            self.draw_image(lsurf, (hsw-(hw+rect[2]), hsh-int(rect[3]*0.5)))
        if fcell[orr][0] >= 0:
            rect = wdat["walls"][fcell[orr][0]]["s_far"]
            if frect is None:
                frect = wdat["walls"][fcell[orr][0]]["f_far"]
            hw = int(frect[2]*0.5)
            self.draw_image(wsurf, (hsw+hw, hsh-int(rect[3]*0.5)), (rect[0], rect[1], rect[2], rect[3]))


    def _RenderPersMid(self, pos, size, o, orr, orl, wdat, wsurf):
        ovec = self._getOrientVec()
        fx = pos[0] + ovec[0]
        fy = pos[1] + ovec[1]
        fcell = self._getCell(fx, fy)
        if fcell == None:
            return # If we can't see the cell directly ahead, the other's won't be visible either!

        lcell = rcell = None
        if ovec[0] == 0: # Facing North/South
            lcell = self._getCell(fx + ovec[1], fy)
            rcell = self._getCell(fx - ovec[1], fy)
        else: # Facing East/West
            lcell = self._getCell(fx, fy - ovec[0])
            rcell = self._getCell(fx, fy + ovec[0])

        hsw = int(size[0]*0.5)
        hsh = int(size[1]*0.5)

        # Render from outside inwards!
        if lcell is not None:
            if lcell[o][0] >= 0:
                rect = wdat["walls"][lcell[o][0]]["f_mid"]
                hw = int(rect[2]*0.5)
                hh = int(rect[3]*0.5)
                self.draw_image(wsurf, (0, hsh-hh), (rect[0]+hw, rect[1], int(rect[2]*0.5), rect[3])) 
        if rcell is not None:
            if rcell[o][0] >= 0:
                rect = wdat["walls"][rcell[o][0]]["f_mid"]
                hw = int(rect[2]*0.5)
                hh = int(rect[3]*0.5)
                self.draw_image(wsurf, (size[0]-hw, hsh-hh), (rect[0], rect[1], hw, rect[3]))

        # Rendering the main cell!!
        frect = None # This will be used to place walls
        if fcell[o][0] >= 0:
            frect = wdat["walls"][fcell[o][0]]["f_mid"]
            hw = int(frect[2]*0.5)
            hh = int(frect[3]*0.5)
            self.draw_image(wsurf, (hsw-hw, hsh-hh), (frect[0], frect[1], frect[2], frect[3]))
        if fcell[orl][0] >= 0:
            rect = wdat["walls"][fcell[orl][0]]["s_mid"]
            if frect is None:
                # Kinda cheating in that it's known that all walls are the same size.
                frect = wdat["walls"][fcell[orl][0]]["f_mid"]
            hw = int(frect[2]*0.5)
            lsurf = pygame.transform.flip(wsurf.subsurface(rect), True, False)
            self.draw_image(lsurf, (hsw-(hw+rect[2]), hsh-int(rect[3]*0.5)))
        if fcell[orr][0] >= 0:
            rect = wdat["walls"][fcell[orr][0]]["s_mid"]
            if frect is None:
                frect = wdat["walls"][fcell[orr][0]]["f_mid"]
            hw = int(frect[2]*0.5)
            self.draw_image(wsurf, (hsw+hw, hsh-int(rect[3]*0.5)), (rect[0], rect[1], rect[2], rect[3]))


    def _RenderPersClose(self, pos, size, o, orr, orl, cell, wdat, wsurf):
        fcell = self._getCell(pos[0], pos[1])
        hsw = int(size[0]*0.5)
        hsh = int(size[1]*0.5)

        ovec = self._getOrientVec()
        lcell = rcell = None
        if ovec[0] == 0: # Facing North/South
            lcell = self._getCell(pos[0] + ovec[1], pos[1])
            rcell = self._getCell(pos[0] - ovec[1], pos[1])
        else: # Facing East/West
            lcell = self._getCell(pos[0], pos[1] - ovec[0])
            rcell = self._getCell(pos[0], pos[1] + ovec[0])

        hsw = int(size[0]*0.5)
        hsh = int(size[1]*0.5)

        # Render from outside inwards!
        if lcell is not None:
            if lcell[o][0] >= 0:
                rect = wdat["walls"][lcell[o][0]]["f_close"]
                hw = int(rect[2]*0.5)
                hh = int(rect[3]*0.5)
                rw = hsw - hw
                self.draw_image(wsurf, (0, hsh-hh), (rect[0]+(rect[2]-rw), rect[1], rw, rect[3])) 
        if rcell is not None:
            if rcell[o][0] >= 0:
                rect = wdat["walls"][rcell[o][0]]["f_close"]
                hw = int(rect[2]*0.5)
                hh = int(rect[3]*0.5)
                rw = hsw - hw
                self.draw_image(wsurf, (size[0]-rw, hsh-hh), (rect[0], rect[1], rw, rect[3]))

        # Rendering the main cell!!
        frect = None # This will be used to place walls
        if fcell[o][0] >= 0:
            idx = fcell[o][0]
            frect = wdat["walls"][idx]["f_close"]
            hw = int(frect[2]*0.5)
            hh = int(frect[3]*0.5)
            self.draw_image(wsurf, (hsw-hw, hsh-hh), (frect[0], frect[1], frect[2], frect[3]))
        if fcell[orl][0] >= 0:
            idx = fcell[orl][0]
            rect = wdat["walls"][idx]["s_close"]
            if frect is None:
                # Kinda cheating in that it's known that all walls are the same size.
                frect = wdat["walls"][idx]["f_close"]
            hw = int(frect[2]*0.5)
            lsurf = pygame.transform.flip(wsurf.subsurface(rect), True, False)
            self.draw_image(lsurf, (hsw-(hw+rect[2]), hsh-int(rect[3]*0.5)))
        if fcell[orr][0] >= 0:
            idx = fcell[orr][0]
            rect = wdat["walls"][idx]["s_close"]
            if frect is None:
                frect = wdat["walls"][idx]["f_close"]
            hw = int(frect[2]*0.5)
            self.draw_image(wsurf, (hsw+hw, hsh-int(rect[3]*0.5)), (rect[0], rect[1], rect[2], rect[3]))


    def _RenderPerspective(self):
        # Getting ALL of the core resources
        rm = self.resource
        edat = self._res["env"]
        wdat = self._res["walls"]
        if edat is None or wdat is None or edat() is None or wdat() is None:
            return
        edat = edat().data
        wdat = wdat().data
        ehsurf = rm.get("graphic", edat["horizon"]["src"])
        egsurf = rm.get("graphic", edat["ground"]["src"])
        wsurf = rm.get("graphic", wdat["src"])
        if ehsurf is None or egsurf is None or wsurf is None:
            return
        if ehsurf() is None or egsurf() is None or wsurf() is None:
            return

        oshift = lambda d: d if d >= 0 and d < 4 else (0 if d > 3 else 3)

        px = self._cellpos[0]
        py = self._cellpos[1]
        orl = self._d_n2s(oshift(self._d_s2n(self._orientation) - 1))
        orr = self._d_n2s(oshift(self._d_s2n(self._orientation) + 1)) 

        cell = self._getCell(px, py)

        # First, output the ground and horizon
        # TODO Later, perhaps cut the horizon and ground to represent each possible cell instead of just the current one?
        self.draw_image(ehsurf(), (0,0), edat["horizon"]["defs"][cell["h"]]["rect"])
        self.draw_image(egsurf(), (0,32), edat["ground"]["defs"][cell["g"]]["rect"])

        # Rendering the rest
        size = self.resolution
        self._RenderPersFar((px, py), size, self._orientation, orr, orl, wdat, wsurf())
        self._RenderPersMid((px, py), size, self._orientation, orr, orl, wdat, wsurf())
        self._RenderPersClose((px, py), size, self._orientation, orr, orl, cell, wdat, wsurf())


    def on_render(self):
        if self._renderMode == 0:
            self._RenderTopDown()
        else:
            self._RenderPerspective()



class NodeMapEditor(gbe.nodes.Node2D):
    def __init__(self, name="MapEditor", parent=None):
        try:
            gbe.nodes.Node2D.__init__(self, name, parent)
        except gbe.nodes.Node2D as e:
            raise e
        self._last_orientation = ""
        self._size = 0
        self._thickness = 1
        self._color = pygame.Color(255,255,255)
        self._points = None
        self.pointer_size = 4

    def _getPoints(self, size):
        p = self.parent
        o = p.orientation
        points = self._points[o]

        hw = int(size[0]*0.5)
        hh = int(size[1]*0.5)
        return (
            (points[0][0] + hw, points[0][1] + hh),
            (points[1][0] + hw, points[1][1] + hh),
            (points[2][0] + hw, points[2][1] + hh)
        )

    @property
    def pointer_size(self):
        return self._size
    @pointer_size.setter
    def pointer_size(self, size):
        if not isinstance(size, int):
            raise TypeError("Size expected to be an integer.")
        if size <= 0:
            raise ValueError("Size must be greater than zero.")
        if size != self._size:
            self._size = size

            # Now updating all of the pointer... ummm... points
            hs = max(1, int(size * 0.5))
            self._points = {
                "n": ((0,-hs),(hs,hs),(-hs,hs)),
                "s": ((0,hs),(hs,-hs),(-hs,-hs)),
                "e": ((-hs,hs),(hs,0),(-hs,-hs)),
                "w": ((hs,hs),(-hs,0),(hs,-hs))
            }

    def set_color(self, color):
        if isinstance(color, (tuple, list)):
            clen = len(color)
            if clen == 3 or clen == 4:
                iscolor = lambda v : isinstance(v, int) and v >= 0 and v < 256
                if iscolor(color[0]) and iscolor(color[1]) and iscolor(color[2]):
                    if clen == 3:
                        self._color = pygame.Color(color[0], color[1], color[2])
                    elif clen == 4 and iscolor(color[3]):
                        self._color = pygame.Color(color[0], color[1], color[2], color[3])

    def get_color(self):
        return (self._color.r, self._color.g, self._color.b, self._color.a)

    def on_start(self):
        self.listen("KEYPRESSED", self.on_keypressed)

    def on_pause(self):
        self.unlisten("KEYPRESSED", self.on_keypressed)

    def on_keypressed(self, event, data):
        p = self.parent
        if p is None or not isinstance(p, NodeGameMap):
            return

        if data["key_name"] == "escape":
            self.emit("SCENECHANGE", {"scene":"MAIN_MENU", "hold":False})
            #self.emit("QUIT")
        if data["key_name"] == "tab":
            p.toggle_render_mode()
        elif data["key_name"] == "w":
            p.move_forward(True)
        elif data["key_name"] == "s":
            p.move_backward(True)
        elif data["key_name"] == "a":
            p.turn_left()
        elif data["key_name"] == "d":
            p.turn_right()
        elif data["key_name"] == "space":
            o = p.orientation
            cpos = p.cell_position
            p.set_cell_face(cpos[0], cpos[1], o)
        elif data["key_name"] == "e":
            p.next_wall()
        elif data["key_name"] == "q":
            p.prev_wall()

    def on_render(self):
        size = self.resolution
        self.draw_lines(self._getPoints(size), self._color, self._thickness, True)