def main(self): """ Data parsing/processing section""" # parse input data strip=Parse(self.input) parsed_data=strip.getStripText() # Parse input data need_compress_catagory=strip.getNeedCompreeCatagory() # Check which catagories need group grouped_data=strip.getGroupedParsedData() # Group data """ Cuboid construction section """ #Create cuboid division_factor=3 min_sup=len(grouped_data)/division_factor # Iceberg condition cuboid=Cuboid(strip.getRowConuter(), min_sup) oneDimensionTable=cuboid.getOneDimensionTable() # Conduct 1-D aggregate compressedBaseTable=cuboid.getCompressedBaseTable(grouped_data, need_compress_catagory) # Construct compressed base table """ Star tree/table construction section""" #Construct star tree and star table s_t=Cubing(compressedBaseTable) root=s_t.starCubing() #s_t.constructStarTree() """ Test/Output section """ # test results t=Test() t.testParsedData(parsed_data) # Test if parsed data is correct t.testNeedCompressCatagory(need_compress_catagory) # Test which catagory needs compress t.testGroupedParsedData(grouped_data) # Test grouped data t.testOneDimensionAggregatation(oneDimensionTable,need_compress_catagory, min_sup) # Test 1-D aggregation t.testCompressedBaseTable(compressedBaseTable) # Test node-ordered compressed base table t.testStarTree(root,0,s_t.count,'')
def load_map(map):
y = 0
for line in map:
x = 0
for tile in line:
if tile == "#":
objects.append(
Cuboid(TILE_SIZE * x, TILE_SIZE * y, 0, TILE_SIZE,
TILE_SIZE, TILE_SIZE * 2, (64, 100, 64)))
x += 1
y += 1
def importObjects(filePath: str):
i = 0
objects = []
with open(os.path.join(__location__, filePath), "r") as inFile:
lines = inFile.read().splitlines()
for line in lines:
if (len(line) > 0) and (line[0] != '#'):
name, parameters = line.split('(', 1)
name = name.strip()
parameters = parameters.strip()[:-1]
if (name == 'Cuboid'):
p = re.findall(r"\([ -]*\d+ *\,[ -]*\d+ *\,[ -]*\d+ *\)",
parameters)
color = str(re.findall(r"[a-zA-Z]+", parameters)[0])
try:
position, dimension = p[0], p[1]
position = re.findall(r"-*\w+", position)
dimension = re.findall(r"-*\w+", dimension)
position = [float(x) for x in position]
dimension = [float(x) for x in dimension]
try:
objects.append(
Cuboid(
Vector3(position[0], position[1],
position[2]),
Vector3(dimension[0],
dimension[1], dimension[2]),
Vector3(0, 0, 0), [color]))
i += 1
except:
raise Exception("Niepowodzenie utworzenia obiektu")
except Exception as err:
raise Exception(err)
else:
raise Exception("Figura o podanej nazwie nie istnieje")
return objects
from Sphere import Sphere
from Cuboid import Cuboid
spRadius = float(input())
spColor = str(input())
cuLength = float(input())
cuWidth = float(input())
cuHeight = float(input())
cuColor = str(input())
sp = Sphere(spRadius, spColor)
cu = Cuboid(cuLength, cuWidth, cuHeight, cuColor)
print(
str(sp) + ":(%d),%.1f,%s" %
(sp.getRadius(), sp.getVolume(), sp.getColor()))
print(
str(cu) + ":(%d,%d,%d),%.1f,%s" %
(cu.getLength(), cu.getWidth(), cu.getHeight(), cu.getVolume(),
cu.getColor()))
from Sphere import Sphere
from Cuboid import Cuboid
radius = int(input())
scolor = str(input())
l = float(input())
w = float(input())
h = float(input())
ccolor = str(input())
sphere = Sphere(radius)
sphere.setColor(scolor)
cuboid = Cuboid(l, w, h)
cuboid.setColor(ccolor)
print("{}({}),{},{}".format(sphere.__str__(), sphere.getRadius(),
round(sphere.getVolume(), 1), sphere.getColor()))
print("{}({},{},{}),{},{}".format(cuboid.__str__(), int(cuboid.getLength()),
int(cuboid.getWidth()),
int(cuboid.getHeight()),
round(cuboid.getVolume(), 1),
cuboid.getColor()))
from Shape import Shape
from Cuboid import Cuboid
from Sphere import Sphere
#main
inp = []
for i in range(6):
inp.append(input())
sphere = Sphere(int(inp[0]), inp[1])
cubiod = Cuboid(int(inp[2]), int(inp[3]), int(inp[4]), inp[5])
print("{}:({}),{},{}".format(str(sphere), sphere.getRadius(),
sphere.getVolume(), sphere.getColor()))
print("{}:({},{},{}),{},{}".format(str(cubiod), cubiod.getLength(),
cubiod.getWidth(), cubiod.getHeight(),
cubiod.getVolume(), cubiod.getColor()))
from Cuboid import Cuboid
from Sphere import Sphere
radius = int(input())
c1 = input()
length = float(input())
width = float(input())
height = float(input())
c2 = input()
sphere = Sphere(radius, c1)
cuboid = Cuboid(length, width, height, c2)
print("{}({}),{},{}".format(sphere.__str__(), sphere.getRadius(), sphere.getVolume(), sphere.getColor()))
print("{}({},{},{}),{},{}".format(cuboid.__str__(), int(cuboid.getLength()), int(cuboid.getWidth()), int(cuboid.getHeight()), cuboid.getVolume(), cuboid.getColor()))
from Shape import Shape
from Sphere import Sphere
from Cuboid import Cuboid
list = []
for i in range(6):
list.append(input())
a = Sphere(int(list[0]))
b = Shape(list[1])
c = Cuboid(int(list[2]), int(list[3]), int(list[4]))
f = Shape(list[5])
print(str(a), ":(", a.getRadius(), "),", round(a.getVolume(), 1), ",",
b.getColor())
print(str(c),
":(",
c.getLength(),
",",
c.getWidth(),
",",
c.getHeight(),
"),",
c.getVolume(),
",",
f.getColor(),
sep='')