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CLIP Score: 31.33
from AIDL import *
def clock(
face_radius: float = 6 * inches,
mechanism_hole_radius: float = 0.25 * inches,
screw_hole_radius: float = 0.1 * inches,
screw_hole_distance: float = 2.5 * inches
):
"""
Model a simple clock with a round face, hour markings, and holes for the clock mechanism and screws.
"""
# Define the clock structure. It has a Solid face with a central hole for the mechanism and optional screw holes.
clock = Solid()
face = Solid()
mechanism_hole = Hole(shift=(0,0))
screw_holes = Hole()
clock.face = face
face.mechanism_hole = mechanism_hole
face.screw_holes = screw_holes
# Define the clock face geometry as a circle
face.clock_face = Circle((0, 0), face_radius)
# Define the central mechanism hole
mechanism_hole.center_hole = Circle((0, 0), mechanism_hole_radius)
# Add the screw holes at equal intervals around the center
screw_holes.positions = [
Circle((screw_hole_distance * cos(i * pi / 2), screw_hole_distance * sin(i * pi / 2)), screw_hole_radius)
for i in range(4)
]
# Add hour markings as Drawing
hour_markings = Drawing()
face.hour_markings = hour_markings
hour_markings.lines = [
Line(
(0.9 * face_radius * cos(pi/6 * i), 0.9 * face_radius * sin(pi/6 * i)),
(1 * face_radius * cos(pi/6 * i), 1 * face_radius * sin(pi/6 * i))
)
for i in range(12)
]
return clock
with AIDL_2D:
model = clock()
print(model.Solve())
model.Render()
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Please write an AIDL program to generate a clock
Sure! Let's start by outlining the general structure of the clock model.
A typical 2D model of a clock for laser cutting could include:
1. A circular base for the clock face.
2. Markings/numbers on the clock face for hours.
3. Holes for attaching the clock mechanism.
Here's a step-by-step plan:
1. Create a circular base as a Solid.
2. Add hour markings or numbers as Drawings.
3. Create a hole in the center for the clock mechanism as a Hole.
4. Optionally, add holes for screws to attach the clock mechanism.
Now, let's write the AIDL program:
```python
from AIDL import *
def clock(
face_radius: float = 6 * inches,
mechanism_hole_radius: float = 0.25 * inches,
screw_hole_radius: float = 0.1 * inches,
screw_hole_distance: float = 2.5 * inches
):
"""
Model a simple clock with a round face, hour markings, and holes for the clock mechanism and screws.
"""
# Define the clock structure. It has a Solid face with a central hole for the mechanism and optional screw holes.
clock = Solid()
face = Solid()
mechanism_hole = Hole(shift=(0,0))
screw_holes = Hole()
clock.face = face
face.mechanism_hole = mechanism_hole
face.screw_holes = screw_holes
# Define the clock face geometry as a circle
face.clock_face = Circle((0, 0), face_radius)
# Define the central mechanism hole
mechanism_hole.center_hole = Circle((0, 0), mechanism_hole_radius)
# Add the screw holes at equal intervals around the center
screw_holes.positions = [
Circle((screw_hole_distance * cos(i * pi / 2), screw_hole_distance * sin(i * pi / 2)), screw_hole_radius)
for i in range(4)
]
# Add hour markings as Drawing
hour_markings = Drawing()
face.hour_markings = hour_markings
hour_markings.lines = [
Line(
(0.9 * face_radius * cos(pi/6 * i), 0.9 * face_radius * sin(pi/6 * i)),
(1 * face_radius * cos(pi/6 * i), 1 * face_radius * sin(pi/6 * i))
)
for i in range(12)
]
return clock
with AIDL_2D:
model = clock()
print(model.Solve())
model.Render()
```
This program generates a clock face with:
- A circular base (`face.clock_face`).
- A central hole for the clock mechanism (`mechanism_hole.center_hole`).
- Four screw holes (`screw_holes.positions`).
- Hour markings around the face (`hour_markings.lines`).
Feel free to adjust the parameters for the clock face radius, mechanism hole radius, screw hole radius, and locations as needed. If you need any additional features or modifications, let me know!
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