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feat: flake perfect

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This commit is contained in:
Krzysztof Rudnicki 2024-12-27 12:33:06 +01:00
parent df9da83336
commit 0a497f35a2
1 changed files with 11 additions and 8 deletions
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19
code/main.py
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@ -56,7 +56,7 @@ def intersect_sphere(ray_origin, ray_direction, sphere_center, sphere_radius):
ray_origin (numpy.ndarray): A 3D point representing the origin of the ray.
ray_direction (numpy.ndarray): A normalized 3D vector representing the
direction of the ray.
sphere_center (numpy.ndarray): A 3D point representing
sphere_center (numpy.ndarray): A 3D point representing
the center of the sphere.
sphere_radius (float): The radius of the sphere.
@ -77,7 +77,8 @@ def intersect_sphere(ray_origin, ray_direction, sphere_center, sphere_radius):
def calculate_sphere_intersection(a, b, c, disc):
"""
Calculate the intersection distance of a ray with a sphere using the quadratic formula.
Calculate the
intersection distance of a ray with a sphere using the quadratic formula.
Parameters:
a (float): Coefficient of t^2 in the quadratic equation.
@ -86,8 +87,10 @@ def calculate_sphere_intersection(a, b, c, disc):
disc (float): Discriminant of the quadratic equation.
Returns:
float: The distance from the origin to the intersection point with the sphere.
Returns +inf if there is no intersection or if the intersection is behind the origin.
float:
The distance from the origin to the intersection point with the sphere.
Returns +inf if there is no intersection
or if the intersection is behind the origin.
"""
if disc > 0:
distance_squared = np.sqrt(disc)
@ -179,7 +182,7 @@ def trace_ray(ray_origin, ray_direction):
A normalized 3D vector representing the direction of the ray.
Returns:
tuple: A tuple containing the object,
tuple: A tuple containing the object,
intersection point, normal at the intersection,
and the color at the intersection point.
Returns None if there is no intersection.
@ -358,7 +361,7 @@ SPECULAR_K = 50
DEPTH_MAX = 5 # Maximum number of light reflections.
col = np.zeros(3) # Current color.
O = np.array([0., 0.35, -1.]) # Camera.
camera_origin = np.array([0., 0.35, -1.]) # Camera.
Q = np.array([0., 0., 0.]) # Camera pointing to.
img = np.zeros((IMAGE_HEIGHT, IMAGE_WIDTH, 3))
@ -373,9 +376,9 @@ for i, x in enumerate(np.linspace(S[0], S[2], IMAGE_WIDTH)):
for j, y in enumerate(np.linspace(S[1], S[3], IMAGE_HEIGHT)):
col[:] = 0
Q[:2] = (x, y)
D = normalize(Q - O)
D = normalize(Q - camera_origin)
DEPTH = 0
rayO, rayD = O, D
rayO, rayD = camera_origin, D
REFLECTION = 1.
# Loop through initial and secondary rays.
while DEPTH < DEPTH_MAX: