diff --git a/Levy_C.ctb b/Levy_C.ctb
new file mode 100644
index 0000000..1674009
Binary files /dev/null and b/Levy_C.ctb differ
diff --git a/README.md b/README.md
index 3a338f3..5babc9b 100644
--- a/README.md
+++ b/README.md
@@ -1,2 +1,2 @@
 # Levy_C
-A turtle (python) implementation of the Lévy C curve (that i seem to have forgotten to upload) 
+A turtle (python) implementation of the Lévy C curve
diff --git a/levy_c_full.py b/levy_c_full.py
new file mode 100644
index 0000000..432635d
--- /dev/null
+++ b/levy_c_full.py
@@ -0,0 +1,131 @@
+import turtle
+
+t=turtle.Turtle()
+n = int(input("Recursion Depth [-1 for inf]:"))
+if n<0:
+    color_diff = 1
+else:
+    color_diff = 1/(n+1)
+color = [0,0,1]
+
+while True:
+    a = input("Starting Structure [I for one line, L for l-shape, C for custom]:")
+    if a.upper() == "I":
+        s=[(0, True)]
+    elif a.upper() == "L":
+        s = [(-90, True), (90, True)]
+    elif a.upper() == "C":
+        s = eval(input("Input custom starting structure [Format: [(int Rotation, bool Walk first), (int Rotation, bool Walk first)]]:\n"))
+    else:
+        print("Invalid input!")
+        continue
+    break
+m = input("Size Multiplier [default 50]:")
+if m:
+    m=int(m)
+else:
+    m=50
+speed = input("speed [default 0]:")
+if speed:
+    speed=int(speed)
+else:
+    speed=0
+clr = input("Color (many times slower) [default 0]")
+if clr:
+    clr = int(clr)
+else:
+    clr = 0
+r = input("Start Rotation [default 0]:")
+if r:
+    r=int(r)
+else:
+    r=0
+frm = input("Display from [default 0]:")
+if frm:
+    frm=int(frm)
+else:
+    frm=0
+to = input("Display to [default inf]:")
+if to:
+    to=int(to)
+else:
+    to=9e999
+
+if -1>speed>10:
+    t.speed(10-speed)
+else:
+    turtle.tracer(0, 0)
+
+def draw_arr(arr, multiplier=50, step=1, frm=0, to=9e999):
+    x=0
+    rot=0
+    for i,j in arr:
+        if x >= frm and x <= to:
+            if j:
+                if rot:
+                    t.right(rot)
+                t.forward(multiplier)
+                t.right(i)
+                rot=0
+            else:
+                rot += i
+            if step>1:
+                if not x % step:
+                    turtle.update()
+        x+=1
+    t.right(rot)
+
+
+def levy_c(n, rotations, start_rotation=0):
+    def gen(n):
+
+        yield start_rotation, False
+        if n == 0:
+            yield from next(rotations)
+        else:
+            yield 45, False
+            if clr:
+                color[0] += color_diff
+                color[2] -= color_diff
+                t.color(tuple(color))
+            yield from gen(n-1)
+            if clr:
+                color[0] -= color_diff
+                color[2] += color_diff
+                t.color(tuple(color))
+            yield -90, False
+            yield from gen(n-1)
+            yield 45, False
+    while True:
+        yield gen(n)
+
+def arr_generator(arr):
+    def gen():
+        for i in arr:
+            yield i
+    while True:
+        yield gen()
+
+def optimize_arr(arr):
+    for i in range(len(arr)):
+        while len(arr) > i+1 and not arr[i+1][1]:
+            arr[i] = ((arr[i][0] + arr.pop(i+1)[0])%360, arr[i][1])
+    return arr
+
+s = arr_generator(s)
+
+if n < 0:
+    while True:
+        turtle.update()
+        if not clr:
+            s = arr_generator(optimize_arr([i for i in next(s)]))
+
+        s = levy_c(1, s)
+        t.right(-45)
+        draw_arr(next(s), multiplier=m, step=speed, frm=frm, to=to)
+        color_diff=1/(1/color_diff+1)
+else:
+    draw_arr(next(levy_c(n, s, r)), multiplier=m, step=speed, frm=frm, to=to)
+
+turtle.update()
+input("Done!")
diff --git a/levy_c_minimal.py b/levy_c_minimal.py
new file mode 100644
index 0000000..e745de5
--- /dev/null
+++ b/levy_c_minimal.py
@@ -0,0 +1,28 @@
+#!/bin/python3
+import turtle
+turtle.speed(int(input("Speed[ 0 - fastest, 10 - slowest ]:"))) # geschwindigkeit einlesen und festlegen
+
+def levy_c(n:int, tp:str="I", size:int=50):
+    """
+    n:int = rekursionstiefe
+    tp:str = typ des anfangspunktes (I oder L)
+    size:int = größe der gezeichneten linien
+    """
+    if n == 0:                   # abbruchsbedingung
+        if tp=="I":              # je nach typ grundstruktur zeichnen
+            turtle.forward(size) # einen einzelnen Strich für I
+        else:
+            turtle.forward(size) # eine L-förmige Struktur für L
+            turtle.right(-90)
+            turtle.forward(size)
+            turtle.right(90)
+    else:
+        turtle.right(45)         # der rekursive aufruf von Levy C
+        levy_c(n-1, tp, size)    # die nächst kleinere rekursion wird aufgerufen
+        turtle.right(-90)
+        levy_c(n-1, tp, size)    # ^
+        turtle.right(45)
+
+levy_c(int(input("Recursion Depth:")), tp=input("Type [I or L]"), size=int(input("Size Multiplier:")))
+# rekursionstiefe, typ des anfangspunktes und größe der gezeichneten linien werden eingelesen
+input("Done!")