ANT landscape: complete update, folder system

1 files changed, 930 insertions, 0 deletions

diff --git a/ant_landscape/ant_functions.py b/ant_landscape/ant_functions.py
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+# ##### BEGIN GPL LICENSE BLOCK #####
+#
+#  This program is free software; you can redistribute it and/or
+#  modify it under the terms of the GNU General Public License
+#  as published by the Free Software Foundation; either version 2
+#  of the License, or (at your option) any later version.
+#
+#  This program is distributed in the hope that it will be useful,
+#  but WITHOUT ANY WARRANTY; without even the implied warranty of
+#  MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE.  See the
+#  GNU General Public License for more details.
+#
+#  You should have received a copy of the GNU General Public License
+#  along with this program; if not, write to the Free Software Foundation,
+#  Inc., 51 Franklin Street, Fifth Floor, Boston, MA 02110-1301, USA.
+#
+# ##### END GPL LICENSE BLOCK #####
+
+# Another Noise Tool - Functions
+# Jim Hazevoet
+
+# import modules
+import bpy
+from bpy.props import (
+        BoolProperty,
+        FloatProperty,
+        StringProperty,
+        EnumProperty,
+        IntProperty,
+        PointerProperty
+        )
+from mathutils.noise import (
+        seed_set,
+        turbulence,
+        turbulence_vector,
+        fractal,
+        hybrid_multi_fractal,
+        multi_fractal,
+        ridged_multi_fractal,
+        hetero_terrain,
+        random_unit_vector,
+        variable_lacunarity,
+        )
+from math import (
+        floor, sqrt,
+        sin, cos, pi,
+        )
+
+# ------------------------------------------------------------
+# Create a new mesh (object) from verts/edges/faces.
+# verts/edges/faces ... List of vertices/edges/faces for the
+#                    new mesh (as used in from_pydata).
+# name ... Name of the new mesh (& object)
+
+from bpy_extras import object_utils
+
+def create_mesh_object(context, verts, edges, faces, name):
+    # Create new mesh
+    mesh = bpy.data.meshes.new(name)
+
+    # Make a mesh from a list of verts/edges/faces.
+    mesh.from_pydata(verts, [], faces)
+
+    # Update mesh geometry after adding stuff.
+    mesh.update()
+
+    #new_ob = bpy.data.objects.new(name, mesh)
+    #context.scene.objects.link(new_ob)
+    return object_utils.object_data_add(context, mesh, operator=None)
+    #return new_ob
+
+
+# Generate XY Grid
+def grid_gen(sub_d_x, sub_d_y, tri, meshsize_x, meshsize_y, props, water_plane, water_level):
+    verts = []
+    faces = []
+    for i in range (0, sub_d_x):
+        x = meshsize_x * (i / (sub_d_x - 1) - 1 / 2)
+        for j in range(0, sub_d_y):
+            y = meshsize_y * (j / (sub_d_y - 1) - 1 / 2)
+            if water_plane:
+                z = water_level
+            else:
+                z = noise_gen((x, y, 0), props)
+
+            verts.append((x,y,z))
+
+    count = 0
+    for i in range (0, sub_d_y * (sub_d_x - 1)):
+        if count < sub_d_y - 1 :
+            A = i + 1
+            B = i
+            C = (i + sub_d_y)
+            D = (i + sub_d_y) + 1
+            if tri:
+                faces.append((A, B, D))
+                faces.append((B, C, D))
+            else:
+                faces.append((A, B, C, D))
+            count = count + 1
+        else:
+            count = 0
+
+    return verts, faces
+
+
+# Generate UV Sphere
+def sphere_gen(sub_d_x, sub_d_y, tri, meshsize, props, water_plane, water_level):
+    verts = []
+    faces = []
+    sub_d_x += 1
+    sub_d_y += 1
+    for i in range(0, sub_d_x):
+        for j in range(0, sub_d_y):
+            u = sin(j * pi * 2 / (sub_d_y - 1)) * cos(-pi / 2 + i * pi / (sub_d_x - 1)) * meshsize / 2
+            v = cos(j * pi * 2 / (sub_d_y - 1)) * cos(-pi / 2 + i * pi / (sub_d_x - 1)) * meshsize / 2
+            w = sin(-pi / 2 + i * pi / (sub_d_x - 1)) * meshsize / 2
+            if water_plane:
+                h = water_level
+            else:
+                h = noise_gen((u, v, w), props) / meshsize
+            verts.append(((u + u * h), (v + v * h), (w + w * h)))
+
+    count = 0
+    for i in range (0, sub_d_y * (sub_d_x - 1)):
+        if count < sub_d_y - 1 :
+            A = i + 1
+            B = i
+            C = (i + sub_d_y)
+            D = (i + sub_d_y) + 1
+            if tri:
+                faces.append((A, B, D))
+                faces.append((B, C, D))
+            else:
+                faces.append((A, B, C, D))
+            count = count + 1
+        else:
+            count = 0
+
+    return verts, faces
+
+
+# Z normal value to vertex group (Slope map)
+class AntVgSlopeMap(bpy.types.Operator):
+    bl_idname = "mesh.ant_slope_map"
+    bl_label = "Weight from Slope"
+    bl_description = "A.N.T. Slope Map - z normal value to vertex group weight"
+    bl_options = {'REGISTER', 'UNDO'}
+
+    z_method = EnumProperty(
+            name="Method:",
+            default='SLOPE_Z',
+            items=[
+                ('SLOPE_Z', "Slope Z", "Slope for planar mesh"),
+                ('SLOPE_XYZ', "Slope XYZ", "Slope for spherical mesh")
+                ])
+    group_name = StringProperty(
+            name="Vertex Group Name:",
+            default="Slope",
+            description="Name"
+            )
+    select_flat = BoolProperty(
+            name="Vert Select:",
+            default=True,
+            description="Select vertices on flat surface"
+            )
+    select_range = FloatProperty(
+            name="Vert Select Range:",
+            default=0.0,
+            min=0.0,
+            max=1.0,
+            description="Increase to select more vertices"
+            )
+
+    @classmethod
+    def poll(cls, context):
+        ob = context.object
+        return (ob and ob.type == 'MESH')
+
+
+    def invoke(self, context, event):
+        wm = context.window_manager
+        return wm.invoke_props_dialog(self)
+
+
+    def execute(self, context):
+        message = "Popup Values: %d, %f, %s, %s" % \
+            (self.select_flat, self.select_range, self.group_name, self.z_method)
+        self.report({'INFO'}, message)
+
+        ob = bpy.context.active_object
+        dim = ob.dimensions
+
+        if self.select_flat:
+            bpy.ops.object.mode_set(mode='EDIT')
+            bpy.ops.mesh.select_all(action='DESELECT')
+            bpy.context.tool_settings.mesh_select_mode = [True, False, False]
+            bpy.ops.object.mode_set(mode='OBJECT')
+
+        bpy.ops.object.vertex_group_add()
+        vg_normal = ob.vertex_groups.active
+
+        for v in ob.data.vertices:
+            if self.z_method == 'SLOPE_XYZ':
+                zval = (v.co.normalized() * v.normal.normalized()) * 2 - 1
+            else:
+                zval = v.normal[2]
+
+            vg_normal.add([v.index], zval, 'REPLACE')
+
+            if self.select_flat:
+                if zval >= (1.0 - self.select_range):
+                    v.select = True
+
+        vg_normal.name = self.group_name
+
+        return {'FINISHED'}
+
+
+# ------------------------------------------------------------
+# A.N.T. Noise:
+
+# Functions for marble_noise:
+def sin_bias(a):
+    return 0.5 + 0.5 * sin(a)
+
+
+def cos_bias(a):
+    return 0.5 + 0.5 * cos(a)
+
+
+def tri_bias(a):
+    b = 2 * pi
+    a = 1 - 2 * abs(floor((a * (1 / b)) + 0.5) - (a * (1 / b)))
+    return a
+
+
+def saw_bias(a):
+    b = 2 * pi
+    n = int(a / b)
+    a -= n * b
+    if a < 0:
+        a += b
+    return a / b
+
+
+def soft(a):
+    return a
+
+
+def sharp(a):
+    return a**0.5
+
+
+def sharper(a):
+    return sharp(sharp(a))
+
+
+def shapes(x, y, z, shape=0):
+    p = pi
+    if shape is 1:
+        # ring
+        x = x * p
+        y = y * p
+        s = cos(x**2 + y**2) / (x**2 + y**2 + 0.5)
+    elif shape is 2:
+        # swirl
+        x = x * p
+        y = y * p
+        s = ((x * sin(x * x + y * y) + y * cos(x * x + y * y)) / (x**2 + y**2 + 0.5))
+    elif shape is 3:
+        # bumps
+        x = x * p
+        y = y * p
+        z = z * p
+        s = 1 - ((cos(x * p) + cos(y * p) + cos(z * p)) - 0.5)
+    elif shape is 4:
+        # wave
+        x = x * p * 2
+        y = y * p * 2
+        s = sin(x + sin(y))
+    elif shape is 5:
+        # x grad.
+        s = (z * p)
+    elif shape is 6:
+        # y grad.
+        s = (y * p)
+    elif shape is 7:
+        # x grad.
+        s = (x * p)
+    else:
+        # marble default
+        s = ((x + y + z) * 5)
+    return s
+
+
+# marble_noise
+def marble_noise(x, y, z, origin, size, shape, bias, sharpnes, turb, depth, hard, basis, amp, freq):
+
+    s = shapes(x, y, z, shape)
+    x += origin[0]
+    y += origin[1]
+    z += origin[2]
+    value = s + turb * turbulence_vector((x, y, z), depth, hard, basis)[1]
+
+    if bias is 1:
+        value = cos_bias(value)
+    elif bias is 2:
+        value = tri_bias(value)
+    elif bias is 3:
+        value = saw_bias(value)
+    else:
+        value = sin_bias(value)
+
+    if sharpnes is 1:
+        value = 1.0 - sharp(value)
+    elif sharpnes is 2:
+        value = 1.0 - sharper(value)
+    elif sharpnes is 3:
+        value = soft(value)
+    elif sharpnes is 4:
+        value = sharp(value)
+    elif sharpnes is 5:
+        value = sharper(value)
+    else:
+        value = 1.0 - soft(value)
+
+    return value
+
+
+# vl_noise_turbulence: 
+def vlnTurbMode(coords, distort, basis, vlbasis, hardnoise):
+    # hard noise
+    if hardnoise:
+        return (abs(-variable_lacunarity(coords, distort, basis, vlbasis)))
+    # soft noise
+    else:
+        return variable_lacunarity(coords, distort, basis, vlbasis)
+
+
+def vl_noise_turbulence(coords, distort, depth, basis, vlbasis, hardnoise, amp, freq):
+    x, y, z = coords
+    value = vlnTurbMode(coords, distort, basis, vlbasis, hardnoise)
+    i=0
+    for i in range(depth):
+        i+=1
+        value += vlnTurbMode((x * (freq * i), y * (freq * i), z * (freq * i)), distort, basis, vlbasis, hardnoise) * (amp * 0.5 / i)
+    return value
+
+
+## duo_multiFractal:
+def double_multiFractal(coords, H, lacunarity, octaves, offset, gain, basis, vlbasis):
+    x, y, z = coords
+    n1 = multi_fractal((x * 1.5 + 1, y * 1.5 + 1, z * 1.5 + 1), 1.0, 1.0, 1.0, basis) * (offset * 0.5)
+    n2 = multi_fractal((x - 1, y - 1, z - 1), H, lacunarity, octaves, vlbasis) * (gain * 0.5)
+    return (n1 * n1 + n2 * n2) * 0.5
+
+
+## distorted_heteroTerrain:
+def distorted_heteroTerrain(coords, H, lacunarity, octaves, offset, distort, basis, vlbasis):
+    x, y, z = coords
+    h1 = (hetero_terrain((x, y, z), 1.0, 2.0, 1.0, 1.0, basis) * 0.5)
+    d =  h1 * distort
+    h2 = (hetero_terrain((x + d, y + d, z + d), H, lacunarity, octaves, offset, vlbasis) * 0.25)
+    return (h1 * h1 + h2 * h2) * 0.5
+
+
+## SlickRock:
+def slick_rock(coords, H, lacunarity, octaves, offset, gain, distort, basis, vlbasis):
+    x, y, z = coords
+    n = multi_fractal((x,y,z), 1.0, 2.0, 2.0, basis) * distort * 0.25
+    r = ridged_multi_fractal((x + n, y + n, z + n), H, lacunarity, octaves, offset + 0.1, gain * 2, vlbasis)
+    return (n + (n * r)) * 0.5
+
+
+## vlhTerrain
+def vl_hTerrain(coords, H, lacunarity, octaves, offset, basis, vlbasis, distort):
+    x, y, z = coords
+    ht = hetero_terrain((x, y, z), H, lacunarity, octaves, offset, basis ) * 0.25
+    vl = ht * variable_lacunarity((x, y, z), distort, basis, vlbasis) * 0.5 + 0.5
+    return vl * ht
+
+
+# another turbulence
+def ant_turbulence(coords, depth, hardnoise, nbasis, amp, freq, distortion):
+    x, y, z = coords
+    tv = turbulence_vector((x + 1, y + 2, z + 3), depth, hardnoise, nbasis, amp, freq)
+    d = (distortion * tv[0]) * 0.25
+    return (d + ((tv[0] - tv[1]) * (tv[2])**2))
+
+
+# shattered_hterrain:
+def shattered_hterrain(coords, H, lacunarity, octaves, offset, distort, basis):
+    x, y, z = coords
+    d = (turbulence_vector(coords, 6, 0, 0)[0] * 0.5 + 0.5) * distort * 0.5
+    t1 = (turbulence_vector((x + d, y + d, z + d), 0, 0, 7)[0] + 0.5)
+    t2 = (hetero_terrain((x * 2, y * 2, z * 2), H, lacunarity, octaves, offset, basis) * 0.5)
+    return ((t1 * t2) + t2 * 0.5) * 0.5
+
+
+# strata_hterrain
+def strata_hterrain(coords, H, lacunarity, octaves, offset, distort, basis):
+    x, y, z = coords
+    value = hetero_terrain((x, y, z), H, lacunarity, octaves, offset, basis) * 0.5
+    steps = (sin(value * (distort * 5) * pi) * (0.1 / (distort * 5) * pi))
+    return (value * (1.0 - 0.5) + steps * 0.5)
+
+
+# Planet Noise by: Farsthary
+# https://farsthary.com/2010/11/24/new-planet-procedural-texture/
+def planet_noise(coords, oct=6, hard=0, noisebasis=1, nabla=0.001):
+    x, y, z = coords
+    d = 0.001
+    offset = nabla * 1000
+    x = turbulence((x, y, z), oct, hard, noisebasis)
+    y = turbulence((x + offset, y, z), oct, hard, noisebasis)
+    z = turbulence((x, y + offset, z), oct, hard, noisebasis)
+    xdy = x - turbulence((x, y + d, z), oct, hard, noisebasis)
+    xdz = x - turbulence((x, y, z + d), oct, hard, noisebasis)
+    ydx = y - turbulence((x + d, y, z), oct, hard, noisebasis)
+    ydz = y - turbulence((x, y, z + d), oct, hard, noisebasis)
+    zdx = z - turbulence((x + d, y, z), oct, hard, noisebasis)
+    zdy = z - turbulence((x, y + d, z), oct, hard, noisebasis)
+    return (zdy - ydz), (zdx - xdz), (ydx - xdy)
+
+
+# ------------------------------------------------------------
+# landscape_gen
+def noise_gen(coords, props):
+
+    terrain_name = props[0]
+    cursor = props[1]
+    smooth = props[2]
+    triface = props[3]
+    sphere = props[4]
+    land_mat = props[5]
+    water_mat = props[6]
+    texture_name = props[7]
+    subd_x = props[8]
+    subd_y = props[9]
+    meshsize_x = props[10]
+    meshsize_y = props[11]
+    meshsize = props[12]
+    rseed = props[13]
+    x_offset = props[14]
+    y_offset = props[15]
+    z_offset = props[16]
+    size_x = props[17]
+    size_y = props[18]
+    size_z = props[19]
+    nsize = props[20]
+    ntype = props[21]
+    nbasis = int(props[22])
+    vlbasis = int(props[23])
+    distortion = props[24]
+    hardnoise = int(props[25])
+    depth = props[26]
+    amp = props[27]
+    freq = props[28]
+    dimension = props[29]
+    lacunarity = props[30]
+    offset = props[31]
+    gain = props[32]
+    marblebias = int(props[33])
+    marblesharpnes = int(props[34])
+    marbleshape = int(props[35])
+    height = props[36]
+    height_invert = props[37]
+    height_offset = props[38]
+    maximum = props[39]
+    minimum = props[40]
+    falloff = int(props[41])
+    edge_level = props[42]
+    falloffsize_x = props[43]
+    falloffsize_y = props[44]
+    stratatype = props[45]
+    strata = props[46]
+    addwater = props[47]
+    waterlevel = props[48]
+
+    x, y, z = coords
+
+    # Origin
+    if rseed is 0:
+        origin = x_offset, y_offset, z_offset
+        origin_x = x_offset
+        origin_y = y_offset
+        origin_z = z_offset
+        o_range = 1.0
+    else:
+        # Randomise origin
+        o_range = 10000.0
+        seed_set(rseed)
+        origin = random_unit_vector()
+        ox = (origin[0] * o_range)
+        oy = (origin[1] * o_range)
+        oz = (origin[2] * o_range)
+        origin_x = (ox - (ox / 2)) + x_offset
+        origin_y = (oy - (oy / 2)) + y_offset
+        origin_z = (oz - (oz / 2)) + z_offset
+
+    ncoords = (x / (nsize * size_x) + origin_x, y / (nsize * size_y) + origin_y, z / (nsize * size_z) + origin_z)
+
+    # Noise basis type's
+    if nbasis == 9:
+        nbasis = 14  # Cellnoise
+    if vlbasis == 9:
+        vlbasis = 14
+
+    # Noise type's
+    if ntype in [0, 'multi_fractal']:
+        value = multi_fractal(ncoords, dimension, lacunarity, depth, nbasis) * 0.5
+
+    elif ntype in [1, 'ridged_multi_fractal']:
+        value = ridged_multi_fractal(ncoords, dimension, lacunarity, depth, offset, gain, nbasis) * 0.5
+
+    elif ntype in [2, 'hybrid_multi_fractal']:
+        value = hybrid_multi_fractal(ncoords, dimension, lacunarity, depth, offset, gain, nbasis) * 0.5
+
+    elif ntype in [3, 'hetero_terrain']:
+        value = hetero_terrain(ncoords, dimension, lacunarity, depth, offset, nbasis) * 0.25
+
+    elif ntype in [4, 'fractal']:
+        value = fractal(ncoords, dimension, lacunarity, depth, nbasis)
+
+    elif ntype in [5, 'turbulence_vector']:
+        value = turbulence_vector(ncoords, depth, hardnoise, nbasis, amp, freq)[0]
+
+    elif ntype in [6, 'variable_lacunarity']:
+        value = variable_lacunarity(ncoords, distortion, nbasis, vlbasis)
+
+    elif ntype in [7, 'marble_noise']:
+        value = marble_noise(
+                        (ncoords[0] - origin_x + x_offset),
+                        (ncoords[1] - origin_y + y_offset), 
+                        (ncoords[2] - origin_z + z_offset),
+                        (origin[0] + x_offset, origin[1] + y_offset, origin[2] + z_offset), nsize,
+                        marbleshape, marblebias, marblesharpnes,
+                        distortion, depth, hardnoise, nbasis, amp, freq
+                        )
+    elif ntype in [8, 'shattered_hterrain']:
+        value = shattered_hterrain(ncoords, dimension, lacunarity, depth, offset, distortion, nbasis)
+
+    elif ntype in [9, 'strata_hterrain']:
+        value = strata_hterrain(ncoords, dimension, lacunarity, depth, offset, distortion, nbasis)
+
+    elif ntype in [10, 'ant_turbulence']:
+        value = ant_turbulence(ncoords, depth, hardnoise, nbasis, amp, freq, distortion)
+
+    elif ntype in [11, 'vl_noise_turbulence']:
+        value = vl_noise_turbulence(ncoords, distortion, depth, nbasis, vlbasis, hardnoise, amp, freq)
+
+    elif ntype in [12, 'vl_hTerrain']:
+        value = vl_hTerrain(ncoords, dimension, lacunarity, depth, offset, nbasis, vlbasis, distortion)
+
+    elif ntype in [13, 'distorted_heteroTerrain']:
+        value = distorted_heteroTerrain(ncoords, dimension, lacunarity, depth, offset, distortion, nbasis, vlbasis)
+
+    elif ntype in [14, 'double_multiFractal']:
+        value = double_multiFractal(ncoords, dimension, lacunarity, depth, offset, gain, nbasis, vlbasis)
+
+    elif ntype in [15, 'slick_rock']:
+        value = slick_rock(ncoords,dimension, lacunarity, depth, offset, gain, distortion, nbasis, vlbasis)
+
+    elif ntype in [16, 'planet_noise']:
+        value = planet_noise(ncoords, depth, hardnoise, nbasis)[2] * 0.5 + 0.5
+
+    elif ntype in [17, 'blender_texture']:
+        if texture_name != "" and texture_name in bpy.data.textures:
+            value = bpy.data.textures[texture_name].evaluate(ncoords)[3]
+        else:
+            value = 0.0
+    else:
+        value = 0.5
+
+    # Adjust height
+    if height_invert:
+        value = (1.0 - value) * height + height_offset
+    else:
+        value = value * height + height_offset
+
+    # Edge falloff:
+    if not sphere:
+        if falloff:
+            ratio_x, ratio_y = abs(x) * 2 / meshsize_x, abs(y) * 2 / meshsize_y
+            fallofftypes = [0,
+                            sqrt(ratio_y**falloffsize_y),
+                            sqrt(ratio_x**falloffsize_x),
+                            sqrt(ratio_x**falloffsize_x + ratio_y**falloffsize_y)
+                           ]
+            dist = fallofftypes[falloff]
+            value -= edge_level
+            if(dist < 1.0):
+                dist = (dist * dist * (3 - 2 * dist))
+                value = (value - value * dist) + edge_level
+            else:
+                value = edge_level
+
+    # Strata / terrace / layers
+    if stratatype not in [0, "0"]:
+        if stratatype in [1, "1"]:
+            strata = strata / height
+            strata *= 2
+            steps = (sin(value * strata * pi) * (0.1 / strata * pi))
+            value = (value * 0.5 + steps * 0.5) * 2.0
+
+        elif stratatype in [2, "2"]:
+            strata = strata / height
+            steps = -abs(sin(value * strata * pi) * (0.1 / strata * pi))
+            value = (value * 0.5 + steps * 0.5) * 2.0
+
+        elif stratatype in [3, "3"]:
+            strata = strata / height
+            steps = abs(sin(value * strata * pi) * (0.1 / strata * pi))
+            value = (value * 0.5 + steps * 0.5) * 2.0
+
+        elif stratatype in [4, "4"]:
+            strata = strata / height
+            value = int( value * strata ) * 1.0 / strata
+
+        elif stratatype in [5, "5"]:
+            strata = strata / height
+            steps = (int( value * strata ) * 1.0 / strata)
+            value = (value * (1.0 - 0.5) + steps * 0.5)
+
+    # Clamp height min max
+    if (value < minimum):
+        value = minimum
+    if (value > maximum):
+        value = maximum
+
+    return value
+
+
+# ------------------------------------------------------------
+# draw properties
+
+def draw_ant_refresh(self, context):
+    layout = self.layout
+    if self.auto_refresh is False:
+        self.refresh = False
+    elif self.auto_refresh is True:
+        self.refresh = True
+    row = layout.box().row()
+    split = row.split()
+    split.scale_y = 1.5
+    split.prop(self, "auto_refresh", toggle=True, icon_only=True, icon='AUTO')
+    split.prop(self, "refresh", toggle=True, icon_only=True, icon='FILE_REFRESH')
+
+
+def draw_ant_main(self, context, generate=True):
+    layout = self.layout
+    box = layout.box()
+    box.prop(self, "show_main_settings", toggle=True)
+    if self.show_main_settings:
+        if generate:
+            row = box.row(align=True)
+            split = row.split(align=True)
+            split.prop(self, "at_cursor", toggle=True, icon_only=True, icon='CURSOR')
+            split.prop(self, "smooth_mesh", toggle=True, icon_only=True, icon='SOLID')
+            split.prop(self, "tri_face", toggle=True, icon_only=True, icon='MESH_DATA')
+
+            if not self.sphere_mesh:
+                row = box.row(align=True)
+                row.prop(self, "sphere_mesh", toggle=True)
+            else:
+                row = box.row(align=True)
+                split = row.split(0.5, align=True)
+                split.prop(self, "sphere_mesh", toggle=True)
+                split.prop(self, "remove_double", toggle=True)
+
+            box.prop(self, "ant_terrain_name")
+            box.prop_search(self, "land_material",  bpy.data, "materials")
+
+        col = box.column(align=True)
+        col.prop(self, "subdivision_x")
+        col.prop(self, "subdivision_y")
+        col = box.column(align=True)
+        if self.sphere_mesh:
+            col.prop(self, "mesh_size")
+        else:
+            col.prop(self, "mesh_size_x")
+            col.prop(self, "mesh_size_y")
+
+
+def draw_ant_noise(self, context):
+    layout = self.layout
+    box = layout.box()
+    box.prop(self, "show_noise_settings", toggle=True)
+    if self.show_noise_settings:
+        box.prop(self, "noise_type")
+        if self.noise_type == "blender_texture":
+            box.prop_search(self, "texture_block", bpy.data, "textures")
+        else:
+            box.prop(self, "basis_type")
+
+        col = box.column(align=True)
+        col.prop(self, "random_seed")
+        col = box.column(align=True)
+        col.prop(self, "noise_offset_x")
+        col.prop(self, "noise_offset_y")
+        col.prop(self, "noise_offset_z")
+        col.prop(self, "noise_size_x")
+        col.prop(self, "noise_size_y")
+        col.prop(self, "noise_size_z")
+        col = box.column(align=True)
+        col.prop(self, "noise_size")
+
+        col = box.column(align=True)
+        if self.noise_type == "multi_fractal":
+            col.prop(self, "noise_depth")
+            col.prop(self, "dimension")
+            col.prop(self, "lacunarity")
+        elif self.noise_type == "ridged_multi_fractal":
+            col.prop(self, "noise_depth")
+            col.prop(self, "dimension")
+            col.prop(self, "lacunarity")
+            col.prop(self, "offset")
+            col.prop(self, "gain")
+        elif self.noise_type == "hybrid_multi_fractal":
+            col.prop(self, "noise_depth")
+            col.prop(self, "dimension")
+            col.prop(self, "lacunarity")
+            col.prop(self, "offset")
+            col.prop(self, "gain")
+        elif self.noise_type == "hetero_terrain":
+            col.prop(self, "noise_depth")
+            col.prop(self, "dimension")
+            col.prop(self, "lacunarity")
+            col.prop(self, "offset")
+        elif self.noise_type == "fractal":
+            col.prop(self, "noise_depth")
+            col.prop(self, "dimension")
+            col.prop(self, "lacunarity")
+        elif self.noise_type == "turbulence_vector":
+            col.prop(self, "noise_depth")
+            col.prop(self, "amplitude")
+            col.prop(self, "frequency")
+            col.separator()
+            row = col.row(align=True)
+            row.prop(self, "hard_noise", expand=True)
+        elif self.noise_type == "variable_lacunarity":
+            box.prop(self, "vl_basis_type")
+            box.prop(self, "distortion")
+        elif self.noise_type == "marble_noise":
+            box.prop(self, "marble_shape")
+            box.prop(self, "marble_bias")
+            box.prop(self, "marble_sharp")
+            col = box.column(align=True)
+            col.prop(self, "distortion")
+            col.prop(self, "noise_depth")
+            col.separator()
+            row = col.row(align=True)
+            row.prop(self, "hard_noise", expand=True)
+        elif self.noise_type == "shattered_hterrain":
+            col.prop(self, "noise_depth")
+            col.prop(self, "dimension")
+            col.prop(self, "lacunarity")
+            col.prop(self, "offset")
+            col.prop(self, "distortion")
+        elif self.noise_type == "strata_hterrain":
+            col.prop(self, "noise_depth")
+            col.prop(self, "dimension")
+            col.prop(self, "lacunarity")
+            col.prop(self, "offset")
+            col.prop(self, "distortion", text="Strata")
+        elif self.noise_type == "ant_turbulence":
+            col.prop(self, "noise_depth")
+            col.prop(self, "amplitude")
+            col.prop(self, "frequency")
+            col.prop(self, "distortion")
+            col.separator()
+            row = col.row(align=True)
+            row.prop(self, "hard_noise", expand=True)
+        elif self.noise_type == "vl_noise_turbulence":
+            col.prop(self, "noise_depth")
+            col.prop(self, "amplitude")
+            col.prop(self, "frequency")
+            col.prop(self, "distortion")
+            col.separator()
+            col.prop(self, "vl_basis_type")
+            col.separator()
+            row = col.row(align=True)
+            row.prop(self, "hard_noise", expand=True)
+        elif self.noise_type == "vl_hTerrain":
+            col.prop(self, "noise_depth")
+            col.prop(self, "dimension")
+            col.prop(self, "lacunarity")
+            col.prop(self, "offset")
+            col.prop(self, "distortion")
+            col.separator()
+            col.prop(self, "vl_basis_type")
+        elif self.noise_type == "distorted_heteroTerrain":
+            col.prop(self, "noise_depth")
+            col.prop(self, "dimension")
+            col.prop(self, "lacunarity")
+            col.prop(self, "offset")
+            col.prop(self, "distortion")
+            col.separator()
+            col.prop(self, "vl_basis_type")
+        elif self.noise_type == "double_multiFractal":
+            col.prop(self, "noise_depth")
+            col.prop(self, "dimension")
+            col.prop(self, "lacunarity")
+            col.prop(self, "offset")
+            col.prop(self, "gain")
+            col.separator()
+            col.prop(self, "vl_basis_type")
+        elif self.noise_type == "slick_rock":
+            col.prop(self, "noise_depth")
+            col.prop(self, "dimension")
+            col.prop(self, "lacunarity")
+            col.prop(self, "gain")
+            col.prop(self, "offset")
+            col.prop(self, "distortion")
+            col.separator()
+            col.prop(self, "vl_basis_type")
+        elif self.noise_type == "planet_noise":
+            col.prop(self, "noise_depth")
+            col.separator()
+            row = col.row(align=True)
+            row.prop(self, "hard_noise", expand=True)
+
+
+def draw_ant_displace(self, context, generate=True):
+    layout = self.layout
+    box = layout.box()
+    box.prop(self, "show_displace_settings", toggle=True)
+    if self.show_displace_settings:
+        col = box.column(align=True)
+        row = col.row(align=True).split(0.92, align=True)
+        row.prop(self, "height")
+        row.prop(self, "height_invert", toggle=True, text="", icon='ARROW_LEFTRIGHT')
+        col.prop(self, "height_offset")
+        col.prop(self, "maximum")
+        col.prop(self, "minimum")
+        if generate:
+            if not self.sphere_mesh:
+                col = box.column()
+                col.prop(self, "edge_falloff")
+                if self.edge_falloff is not "0":
+                    col = box.column(align=True)
+                    col.prop(self, "edge_level")
+                    if self.edge_falloff in ["2", "3"]:
+                        col.prop(self, "falloff_x")
+                    if self.edge_falloff in ["1", "3"]:
+                        col.prop(self, "falloff_y")
+        else:
+            col = box.column(align=False)
+            col.prop(self, "use_vgroup", toggle=True)
+
+        col = box.column()
+        col.prop(self, "strata_type")
+        if self.strata_type is not "0":
+            col = box.column()
+            col.prop(self, "strata")
+
+
+def draw_ant_water(self, context):
+    layout = self.layout
+    box = layout.box()
+    col = box.column()
+    col.prop(self, "water_plane", toggle=True)
+    if self.water_plane:
+        col = box.column(align=True)
+        col.prop_search(self, "water_material",  bpy.data, "materials")
+        col = box.column()
+        col.prop(self, "water_level")
+
+
+# Store propereties
+def store_properties(operator, ob):
+    ob.ant_landscape.ant_terrain_name = operator.ant_terrain_name
+    ob.ant_landscape.at_cursor = operator.at_cursor
+    ob.ant_landscape.smooth_mesh = operator.smooth_mesh
+    ob.ant_landscape.tri_face = operator.tri_face
+    ob.ant_landscape.sphere_mesh = operator.sphere_mesh
+    ob.ant_landscape.land_material = operator.land_material
+    ob.ant_landscape.water_material = operator.water_material
+    ob.ant_landscape.texture_block = operator.texture_block
+    ob.ant_landscape.subdivision_x = operator.subdivision_x
+    ob.ant_landscape.subdivision_y = operator.subdivision_y
+    ob.ant_landscape.mesh_size_x = operator.mesh_size_x
+    ob.ant_landscape.mesh_size_y = operator.mesh_size_y
+    ob.ant_landscape.mesh_size = operator.mesh_size
+    ob.ant_landscape.random_seed = operator.random_seed
+    ob.ant_landscape.noise_offset_x = operator.noise_offset_x
+    ob.ant_landscape.noise_offset_y = operator.noise_offset_y
+    ob.ant_landscape.noise_offset_z = operator.noise_offset_z
+    ob.ant_landscape.noise_size_x = operator.noise_size_x
+    ob.ant_landscape.noise_size_y = operator.noise_size_y
+    ob.ant_landscape.noise_size_z = operator.noise_size_z
+    ob.ant_landscape.noise_size = operator.noise_size
+    ob.ant_landscape.noise_type = operator.noise_type
+    ob.ant_landscape.basis_type = operator.basis_type
+    ob.ant_landscape.vl_basis_type = operator.vl_basis_type
+    ob.ant_landscape.distortion = operator.distortion
+    ob.ant_landscape.hard_noise = operator.hard_noise
+    ob.ant_landscape.noise_depth = operator.noise_depth
+    ob.ant_landscape.amplitude = operator.amplitude
+    ob.ant_landscape.frequency = operator.frequency
+    ob.ant_landscape.dimension = operator.dimension
+    ob.ant_landscape.lacunarity = operator.lacunarity
+    ob.ant_landscape.offset = operator.offset
+    ob.ant_landscape.gain = operator.gain
+    ob.ant_landscape.marble_bias = operator.marble_bias
+    ob.ant_landscape.marble_sharp = operator.marble_sharp
+    ob.ant_landscape.marble_shape = operator.marble_shape
+    ob.ant_landscape.height = operator.height
+    ob.ant_landscape.height_invert = operator.height_invert
+    ob.ant_landscape.height_offset = operator.height_offset
+    ob.ant_landscape.maximum = operator.maximum
+    ob.ant_landscape.minimum = operator.minimum
+    ob.ant_landscape.edge_falloff = operator.edge_falloff
+    ob.ant_landscape.edge_level = operator.edge_level
+    ob.ant_landscape.falloff_x = operator.falloff_x
+    ob.ant_landscape.falloff_y = operator.falloff_y
+    ob.ant_landscape.strata_type = operator.strata_type
+    ob.ant_landscape.strata = operator.strata
+    ob.ant_landscape.water_plane = operator.water_plane
+    ob.ant_landscape.water_level = operator.water_level
+    ob.ant_landscape.use_vgroup = operator.use_vgroup
+    ob.ant_landscape.show_main_settings = operator.show_main_settings
+    ob.ant_landscape.show_noise_settings = operator.show_noise_settings
+    ob.ant_landscape.show_displace_settings = operator.show_displace_settings
+    #print("A.N.T. Landscape Object Properties:")
+    #for k in ob.ant_landscape.keys():
+    #    print(k, "-", ob.ant_landscape[k])
+    return ob
+