def some_other():
vectors = vectors_component(delta)
unit_vectors = vectors_component_unit(delta)
for i in range(int(len(vectors))):
vector = vectors[int(i)]
unit_vector = unit_vectors[int(i)]
vector_inv = array_scaled(vector, -1.0)
child_start = point_farthest(position, max, vector_inv)
crash_time = time_denorm_point_plane(peak, child_start, vector)
if ((crash_time >= 0.0) and (crash_time < 1.0)):
child_end = sum_arrays(child_start, unit_vector)
end_time = time_denorm_point_plane(peak, child_end, vector)
if (crash_time == end_time):
print json.dumps(["Error crash_bounds crash_time same as end_time", child_start, child_end], cls=SyrupEncoder)
elif (crash_time > end_time):
print json.dumps(["Error end_time greater than crash_time", crash_time, end_time], cls=SyrupEncoder)
else:
test_time = ((crash_time + end_time) / 2.0)
test_position = sum_arrays(position_i, array_scaled(delta, test_time))
test_max = sum_arrays_3(test_position, size)
if is_overlap_cuboids(test_position, size, test_max, dest_point, dest_size, bounds["max"]):
crash_time = crash_time
is_hit = True
hit_normal = unit_vector
break
return
def crash_bounds(position_i, size, peak, delta, bounds):
is_hit = False
crash_time = 0.0
hit_normal = []
dest_point = bounds["position"]
dest_size = bounds["size"]
for i in range(3):
magnitude = delta[int(i)]
if (magnitude == 0.0):
continue
sign = 0.0
if (magnitude > 0.0):
sign = 1.0
b_peak = farthest_axis_sign(dest_point, bounds["max"], i, (1.0 - sign))
crash_time = ((b_peak - peak[int(i)]) / magnitude)
if ((crash_time >= 0.0) and (crash_time < 1.0)):
if (magnitude > 0.0):
test = (b_peak + 0.5)
else:
test = (b_peak - 0.5)
test_time = ((test - peak[int(i)]) / magnitude)
test_position = sum_arrays(position_i, array_scaled(delta, test_time))
test_max = sum_arrays_3(test_position, size)
if is_overlap_cuboids(test_position, size, test_max, dest_point, dest_size, bounds["max"]):
crash_time = crash_time
is_hit = True
hit_normal = vector_axis_sign(i, sign)
break
return is_hit, crash_time, hit_normal
def crash_bounds(position_i, size, peak, delta, bounds):
is_hit = False
crash_time = 0.0
hit_normal = []
dest_point = bounds["position"]
dest_size = bounds["size"]
for i in range(3):
magnitude = delta[int(i)]
if (magnitude == 0.0):
continue
sign = 0.0
if (magnitude > 0.0):
sign = 1.0
b_peak = farthest_axis_sign(dest_point, bounds["max"], i, (1.0 - sign))
crash_time = ((b_peak - peak[int(i)]) / magnitude)
if ((crash_time >= 0.0) and (crash_time < 1.0)):
if (magnitude > 0.0):
test = (b_peak + 0.5)
else:
test = (b_peak - 0.5)
test_time = ((test - peak[int(i)]) / magnitude)
test_position = sum_arrays(position_i,
array_scaled(delta, test_time))
test_max = sum_arrays_3(test_position, size)
if is_overlap_cuboids(test_position, size, test_max, dest_point,
dest_size, bounds["max"]):
crash_time = crash_time
is_hit = True
hit_normal = vector_axis_sign(i, sign)
break
return is_hit, crash_time, hit_normal
def some_other():
vectors = vectors_component(delta)
unit_vectors = vectors_component_unit(delta)
for i in range(int(len(vectors))):
vector = vectors[int(i)]
unit_vector = unit_vectors[int(i)]
vector_inv = array_scaled(vector, -1.0)
child_start = point_farthest(position, max, vector_inv)
crash_time = time_denorm_point_plane(peak, child_start, vector)
if ((crash_time >= 0.0) and (crash_time < 1.0)):
child_end = sum_arrays(child_start, unit_vector)
end_time = time_denorm_point_plane(peak, child_end, vector)
if (crash_time == end_time):
print json.dumps([
"Error crash_bounds crash_time same as end_time",
child_start, child_end
],
cls=SyrupEncoder)
elif (crash_time > end_time):
print json.dumps([
"Error end_time greater than crash_time", crash_time,
end_time
],
cls=SyrupEncoder)
else:
test_time = ((crash_time + end_time) / 2.0)
test_position = sum_arrays(position_i,
array_scaled(delta, test_time))
test_max = sum_arrays_3(test_position, size)
if is_overlap_cuboids(test_position, size, test_max,
dest_point, dest_size, bounds["max"]):
crash_time = crash_time
is_hit = True
hit_normal = unit_vector
break
return
