def main():
print gm.clamp(408, 10, 100)
print gm.modulo(-10, 3)
print gm.lerp(0, 14, 0.25)
a = 14
b = 14.0001
print gm.nearlyEquals(a, b)
print gm.nearlyEquals(a, b, 0.01)
print gm.standardAngle(480)
print gm.toRadians(170)
print gm.toDegrees(2.967)
x = gm.angleDx(30, 4)
y = gm.angleDy(30, 4)
print x, y
print x * x + y * y
print gm.angle(0, 0, 10, 10)
print gm.angleDifference(30, 40)
print gm.angleDifference(350, 10)
print gm.sign(-10), gm.sign(10), gm.sign(0)
arr1 = [3, 4, 'x', 1, 2, 3]
arr2 = [1, 3, 5, 'y', 1, 2, 3, 5, 6]
print gm.longestCommonSubsequence(arr1, arr2)
def compfn(a, b):
return a == b
print gm.longestCommonSubsequence(arr1, arr2, compfn)
def collectfn(i1, i2):
return arr1[i1] * arr2[i2] + K
print gm.longestCommonSubsequence(arr1, arr2, compfn, collectfn)
# todo; varargs
#print gm.sum(1, 2, 3, 4)
#print gm.average(1, 2, 3, 4)
#print gm.standardDeviation(1, 2, 3, 4)
print gm.isInt(42)
print gm.isInt(42.49)
print gm.isFiniteNumber(422)
def main():
print gm.clamp(408, 10, 100)
print gm.modulo(-10, 3)
print gm.lerp(0, 14, 0.25)
a = 14
b = 14.0001
print gm.nearlyEquals(a, b)
print gm.nearlyEquals(a, b, 0.01)
print gm.standardAngle(480)
print gm.toRadians(170)
print gm.toDegrees(2.967)
x = gm.angleDx(30, 4)
y = gm.angleDy(30, 4)
print x, y
print x*x + y*y
print gm.angle(0, 0, 10, 10)
print gm.angleDifference(30, 40)
print gm.angleDifference(350, 10)
print gm.sign(-10), gm.sign(10), gm.sign(0)
arr1 = [3, 4, 'x', 1, 2, 3]
arr2 = [1, 3, 5, 'y', 1, 2, 3, 5, 6]
print gm.longestCommonSubsequence(arr1, arr2)
def compfn(a, b):
return a == b
print gm.longestCommonSubsequence(arr1, arr2, compfn)
def collectfn(i1, i2):
return arr1[i1] * arr2[i2] + K
print gm.longestCommonSubsequence(arr1, arr2, compfn, collectfn)
# todo; varargs
#print gm.sum(1, 2, 3, 4)
#print gm.average(1, 2, 3, 4)
#print gm.standardDeviation(1, 2, 3, 4)
print gm.isInt(42)
print gm.isInt(42.49)
print gm.isFiniteNumber(422)
import goog.math as gm v0 = gm.Vec2(10, 12) print "ctor", v0 v1 = gm.Vec2.randomUnit() print "randomunit", gm.nearlyEquals(v1.magnitude(), 1.0) v2 = gm.Vec2.random() # todo; attr access #print v2.x >= -1 and v2.x <= 1, v2.y >= -1 and v2.y <= 1 v3 = gm.Vec2.fromCoordinate(gm.Coordinate(4, 5)) print "fromcoord", v3 v4 = v3.clone() print "clone", v4 print "mag", v4.magnitude() print "magsq", v4.squaredMagnitude() v4.scale(.5) print "scaled", v4 v4.invert() print "inverted", v4 v4.normalize() print "normalize", v4, v4.magnitude() v5 = gm.Vec2(10, 1) v4.add(v5) print "add", v5, v4
import goog.math as gm v0 = gm.Vec2(10, 12) print "ctor", v0 v1 = gm.Vec2.randomUnit() print "randomunit", gm.nearlyEquals(v1.magnitude(), 1.0); v2 = gm.Vec2.random() # todo; attr access #print v2.x >= -1 and v2.x <= 1, v2.y >= -1 and v2.y <= 1 v3 = gm.Vec2.fromCoordinate(gm.Coordinate(4, 5)) print "fromcoord", v3 v4 = v3.clone() print "clone", v4 print "mag", v4.magnitude() print "magsq", v4.squaredMagnitude() v4.scale(.5) print "scaled", v4 v4.invert() print "inverted", v4 v4.normalize() print "normalize", v4, v4.magnitude() v5 = gm.Vec2(10, 1) v4.add(v5) print "add", v5, v4
