def __init__(self, sky_renderer, new_layer, new_texture_manager):
'''
Constructor
'''
RendererObjectManager.__init__(self, new_layer, new_texture_manager)
self.label_maker = None
self.labels = []
self.sky_region_map = SkyRegionMap()
# These are intermediate variables set in beginDrawing() and used in
# draw() to make the transformations more efficient
self.label_offset = Vector3(0, 0, 0)
self.dot_product_threshold = None
self.texture_ref = None
# A quad with size 1 on each size, so we just need to multiply
# by the label's width and height to get it to the right size for each
# label.
vertices = [-0.5, -0.5, # lower left
-0.5, 0.5, # upper left
0.5, -0.5, # lower right
0.5, 0.5] # upper right
# make the vertices fixed point? byte buffer?
self.quad_buffer = np.array(vertices, dtype=np.float32)
# We want to initialize the labels of a sky region to an empty list.
def construct_method():
return []
self.sky_region_map.region_data_factory = \
SkyRegionMap.RegionDataFactory(construct_method)
def __init__(self, new_layer, new_texture_manager):
'''
Constructor
'''
RendererObjectManager.__init__(self, new_layer, new_texture_manager)
self.vertex_buffer = VertexBuffer(True)
self.color_buffer = NightVisionBuffer(True)
self.text_coord_buffer = TextCoordBuffer(True)
self.index_buffer = IndexBuffer(True)
self.texture_ref = None
self.opaque = True
def __init__(self, new_layer, new_texture_manager):
'''
Constructor
'''
RendererObjectManager.__init__(self, new_layer, new_texture_manager)
self.vertex_buffer = VertexBuffer(True)
self.color_buffer = NightVisionBuffer(True)
self.text_coord_buffer = TextCoordBuffer(True)
self.index_buffer = IndexBuffer(True)
self.texture_ref = None
self.opaque = True
def __init__(self, new_layer, new_texture_manager):
'''
Constructor
'''
RendererObjectManager.__init__(self, new_layer, new_texture_manager)
self.vertex_buffer = VertexBuffer()
self.text_coord_buffer = TextCoordBuffer()
self.images = []
self.textures = []
self.red_textures = []
self.updates = set()
def __init__(self, new_layer, new_texture_manager):
'''
constructor
TODO: change inputs to not be default
'''
def construct_method():
return PointObjectManager.RegionData()
RendererObjectManager.__init__(self, new_layer, new_texture_manager)
self.sky_regions = SkyRegionMap()
self.sky_regions.region_data_factory = \
self.sky_regions.RegionDataFactory(construct_method)
self.num_points = 0
def __init__(self, new_layer, new_texture_manager):
'''
Constructor
'''
RendererObjectManager.__init__(self, new_layer, new_texture_manager)
self.vertex_buffer = VertexBuffer()
self.text_coord_buffer = TextCoordBuffer()
self.images = []
self.textures = []
self.red_textures = []
self.updates = set()
def __init__(self, layer_id, new_texture_manager):
'''
Constructor
'''
RendererObjectManager.__init__(self, layer_id, new_texture_manager)
self.width = 2
self.height = 2
self.geo_to_viewer_transform = create_identity()
self.look_dir = Vector3(0, 0, 0)
self.up_dir = Vector3(0, 1, 0)
self.transformed_look_dir = Vector3(0, 0, 0)
self.transformed_up_dir = Vector3(0, 1, 0)
#search_helper = SearchHelper()
self.dark_quad = None
#self.search_arrow = SearchArrow()
#crosshair = CrosshairOverlay()
def __init__(self, sky_renderer, new_layer, new_texture_manager):
'''
Constructor
'''
RendererObjectManager.__init__(self, new_layer, new_texture_manager)
self.label_maker = None
self.labels = []
self.sky_region_map = SkyRegionMap()
# These are intermediate variables set in beginDrawing() and used in
# draw() to make the transformations more efficient
self.label_offset = Vector3(0, 0, 0)
self.dot_product_threshold = None
self.texture_ref = None
# A quad with size 1 on each size, so we just need to multiply
# by the label's width and height to get it to the right size for each
# label.
vertices = [
-0.5,
-0.5, # lower left
-0.5,
0.5, # upper left
0.5,
-0.5, # lower right
0.5,
0.5
] # upper right
# make the vertices fixed point? byte buffer?
self.quad_buffer = np.array(vertices, dtype=np.float32)
# We want to initialize the labels of a sky region to an empty list.
def construct_method():
return []
self.sky_region_map.region_data_factory = \
SkyRegionMap.RegionDataFactory(construct_method)
def __init__(self, layer_id, texture_manager):
'''
Constructor
'''
RendererObjectManager.__init__(self, layer_id, texture_manager)
self.vertex_buffer = VertexBuffer(0, True)
self.color_buffer = ColorBuffer(0, True)
self.index_buffer = IndexBuffer(0, True)
self.sun_pos = GeocentricCoordinates(0, 1, 0)
num_vertices = self.NUM_VERTEX_BANDS * self.NUM_STEPS_IN_BAND
num_indices = (self.NUM_VERTEX_BANDS-1) * self.NUM_STEPS_IN_BAND * 6
self.vertex_buffer.reset(num_vertices)
self.color_buffer.reset(num_vertices)
self.index_buffer.reset(num_indices)
sin_angles = [0.0] * self.NUM_STEPS_IN_BAND
cos_angles = [0.0] * self.NUM_STEPS_IN_BAND
angle_in_band = 0
d_angle = 2* math.pi / float(self.NUM_STEPS_IN_BAND - 1)
for i in range(0, self.NUM_STEPS_IN_BAND):
sin_angles[i] = math.sin(angle_in_band)
cos_angles[i] = math.cos(angle_in_band)
angle_in_band += d_angle
band_step = 2.0 / float((self.NUM_VERTEX_BANDS-1) + self.EPSILON)
vb = self.vertex_buffer
cb = self.color_buffer
band_pos = 1
for band in range(0, self.NUM_VERTEX_BANDS):
a, r, g, b = 0, 0, 0, 0
if band_pos > 0:
intensity = long(band_pos * 20 + 50) & 0xFFFFFFFF
a = 0xFF
r = (intensity << 16) & 0x00FF0000
g = (intensity << 16) & 0x0000FF00
b = (intensity << 16) & 0x000000FF
else:
intensity = long(band_pos * 40 + 40) & 0xFFFFFFFF
color = (intensity << 16) | (intensity << 8) | (intensity)
a = 0xFF
r = color & 0x00FF0000
g = color & 0x0000FF00
b = color & 0x000000FF
band_pos -= band_step
sin_phi = math.sqrt(1 - band_pos*band_pos) if band_pos > -1 else 0
for i in range(0, self.NUM_STEPS_IN_BAND):
vb.add_point(Vector3(cos_angles[i] * sin_phi, band_pos, sin_angles[i] * sin_phi))
cb.add_color(a, r, g, b)
ib = self.index_buffer
# Set the indices for the first band.
top_band_start = 0
bottom_band_start = self.NUM_STEPS_IN_BAND
for triangle_band in range(0, self.NUM_VERTEX_BANDS-1):
for offset_from_start in range(0, self.NUM_STEPS_IN_BAND-1):
# Draw one quad as two triangles.
top_left = (top_band_start + offset_from_start)
top_right = (top_left + 1)
bottom_left = (bottom_band_start + offset_from_start)
bottom_right = (bottom_left + 1)
# First triangle
ib.add_index(top_left)
ib.add_index(bottom_right)
ib.add_index(bottom_left)
# Second triangle
ib.add_index(top_right)
ib.add_index(bottom_right)
ib.add_index(top_left)
# Last quad: connect the end with the beginning.
# Top left, bottom right, bottom left
ib.add_index((top_band_start + self.NUM_STEPS_IN_BAND - 1))
ib.add_index(bottom_band_start)
ib.add_index((bottom_band_start + self.NUM_STEPS_IN_BAND - 1))
# Top right, bottom right, top left
ib.add_index(top_band_start)
ib.add_index(bottom_band_start)
ib.add_index((top_band_start + self.NUM_STEPS_IN_BAND - 1))
top_band_start += self.NUM_STEPS_IN_BAND
bottom_band_start += self.NUM_STEPS_IN_BAND
def __init__(self, layer_id, texture_manager):
'''
Constructor
'''
RendererObjectManager.__init__(self, layer_id, texture_manager)
self.vertex_buffer = VertexBuffer(0, True)
self.color_buffer = ColorBuffer(0, True)
self.index_buffer = IndexBuffer(0, True)
self.sun_pos = GeocentricCoordinates(0, 1, 0)
num_vertices = self.NUM_VERTEX_BANDS * self.NUM_STEPS_IN_BAND
num_indices = (self.NUM_VERTEX_BANDS - 1) * self.NUM_STEPS_IN_BAND * 6
self.vertex_buffer.reset(num_vertices)
self.color_buffer.reset(num_vertices)
self.index_buffer.reset(num_indices)
sin_angles = [0.0] * self.NUM_STEPS_IN_BAND
cos_angles = [0.0] * self.NUM_STEPS_IN_BAND
angle_in_band = 0
d_angle = 2 * math.pi / float(self.NUM_STEPS_IN_BAND - 1)
for i in range(0, self.NUM_STEPS_IN_BAND):
sin_angles[i] = math.sin(angle_in_band)
cos_angles[i] = math.cos(angle_in_band)
angle_in_band += d_angle
band_step = 2.0 / float((self.NUM_VERTEX_BANDS - 1) + self.EPSILON)
vb = self.vertex_buffer
cb = self.color_buffer
band_pos = 1
for band in range(0, self.NUM_VERTEX_BANDS):
a, r, g, b = 0, 0, 0, 0
if band_pos > 0:
intensity = long(band_pos * 20 + 50) & 0xFFFFFFFF
a = 0xFF
r = (intensity << 16) & 0x00FF0000
g = (intensity << 16) & 0x0000FF00
b = (intensity << 16) & 0x000000FF
else:
intensity = long(band_pos * 40 + 40) & 0xFFFFFFFF
color = (intensity << 16) | (intensity << 8) | (intensity)
a = 0xFF
r = color & 0x00FF0000
g = color & 0x0000FF00
b = color & 0x000000FF
band_pos -= band_step
sin_phi = math.sqrt(1 -
band_pos * band_pos) if band_pos > -1 else 0
for i in range(0, self.NUM_STEPS_IN_BAND):
vb.add_point(
Vector3(cos_angles[i] * sin_phi, band_pos,
sin_angles[i] * sin_phi))
cb.add_color(a, r, g, b)
ib = self.index_buffer
# Set the indices for the first band.
top_band_start = 0
bottom_band_start = self.NUM_STEPS_IN_BAND
for triangle_band in range(0, self.NUM_VERTEX_BANDS - 1):
for offset_from_start in range(0, self.NUM_STEPS_IN_BAND - 1):
# Draw one quad as two triangles.
top_left = (top_band_start + offset_from_start)
top_right = (top_left + 1)
bottom_left = (bottom_band_start + offset_from_start)
bottom_right = (bottom_left + 1)
# First triangle
ib.add_index(top_left)
ib.add_index(bottom_right)
ib.add_index(bottom_left)
# Second triangle
ib.add_index(top_right)
ib.add_index(bottom_right)
ib.add_index(top_left)
# Last quad: connect the end with the beginning.
# Top left, bottom right, bottom left
ib.add_index((top_band_start + self.NUM_STEPS_IN_BAND - 1))
ib.add_index(bottom_band_start)
ib.add_index((bottom_band_start + self.NUM_STEPS_IN_BAND - 1))
# Top right, bottom right, top left
ib.add_index(top_band_start)
ib.add_index(bottom_band_start)
ib.add_index((top_band_start + self.NUM_STEPS_IN_BAND - 1))
top_band_start += self.NUM_STEPS_IN_BAND
bottom_band_start += self.NUM_STEPS_IN_BAND
