 |
CLIP Score: 28.12
from AIDL import *
def old_school_telephone(
base_length: float = 8 * inches,
base_width: float = 6 * inches,
dial_radius: float = 2 * inches,
receiver_length: float = 7 * inches,
receiver_end_radius: float = 1 * inch,
handle_thickness: float = 0.5 * inch
):
"""
Create an old-school telephone with base, dial plate, and receiver
"""
# Define the root structure
telephone = Solid()
# Define the base structure and geometry
base = Solid()
telephone.base = base
base.geometry = RoundedRectangle((0,0), base_length, base_width, 0.5*inch)
# Define the dial plate on the base
dial_plate = Solid(shift=(0, base_width * 0.15))
telephone.dial_plate = dial_plate
dial_plate.geometry = Circle((0,0), dial_radius)
# Define the receiver structure
receiver = Solid(shift=(0, base_width * 0.5))
telephone.receiver = receiver
# Define the two circular ends of the receiver
receiver.left_end = Circle((-receiver_length / 2, 0), receiver_end_radius)
receiver.right_end = Circle((receiver_length / 2, 0), receiver_end_radius)
# Define the connecting handle - as a rounded rectangle
handle_length = receiver_length - 2 * receiver_end_radius
receiver.handle = RoundedRectangle((0,0), handle_length, handle_thickness, corner_radius=handle_thickness/2)
# Add constraints between the receiver handle and ends
receiver.AddConstraint(Coincident(receiver.handle.left, receiver.left_end.center))
receiver.AddConstraint(Coincident(receiver.handle.right, receiver.right_end.center))
# Define holes on the dial plate
num_holes = 10
dial_plate.holes = [
Circle(
(dial_radius * 0.7 * cos(i * (2*pi / num_holes)), dial_radius * 0.7 * sin(i * (2*pi / num_holes))),
0.2*inch
) for i in range(num_holes)
]
return telephone
with AIDL_2D:
model = old_school_telephone()
print(model.Solve())
model.Render()
|
Please write an AIDL program to generate a old-school telephone
Sure! Let's break down the process of generating the AIDL program step by step. We will create an old-school telephone with a receiver, a base, and dial plate. Here is a high-level breakdown of the components we should consider:
1. **Base**: Rectangular base of the phone.
2. **Dial Plate**: Circular dial plate with numbered holes.
3. **Receiver**: The receiver with two circular ends (speaker and microphone) and a connecting handle.
4. **Handle**: The connection between the two circular ends of the receiver.
5. **Constraints**: To relate geometries within each part and between parts.
Let's start by outlining the structures and their hierarchical relationships. After that, we will define the constraints and geometry for each structure:
### Step 1: Define the model structure
1. **Root Structure**: A `Solid` for the whole phone
2. **Base**: A rectangular `Solid`
3. **Dial Plate**: A circular `Solid`
4. **Receiver**: Two circular ends (speaker and microphone) connected by a handle
Let's start with defining the model structure and base geometry:
```python
from AIDL import *
def old_school_telephone(
base_length: float = 8 * inches,
base_width: float = 6 * inches,
dial_radius: float = 2 * inches,
receiver_length: float = 7 * inches,
receiver_end_radius: float = 1 * inch,
handle_thickness: float = 0.5 * inch
):
"""
Create an old-school telephone with base, dial plate, and receiver
"""
# Define the root structure
telephone = Solid()
# Define the base structure and geometry
base = Solid()
telephone.base = base
base.geometry = RoundedRectangle((0,0), base_length, base_width, 0.5*inch)
# Define the dial plate on the base
dial_plate = Solid(shift=(0, base_width * 0.15))
telephone.dial_plate = dial_plate
dial_plate.geometry = Circle((0,0), dial_radius)
# Define the receiver structure
receiver = Solid(shift=(0, base_width * 0.5))
telephone.receiver = receiver
# Define the two circular ends of the receiver
receiver.left_end = Circle((-receiver_length / 2, 0), receiver_end_radius)
receiver.right_end = Circle((receiver_length / 2, 0), receiver_end_radius)
# Define the connecting handle - as a rounded rectangle
handle_length = receiver_length - 2 * receiver_end_radius
receiver.handle = RoundedRectangle((0,0), handle_length, handle_thickness, corner_radius=handle_thickness/2)
# Add constraints between the receiver handle and ends
receiver.AddConstraint(Coincident(receiver.handle.left_line.midpoint, receiver.left_end.center))
receiver.AddConstraint(Coincident(receiver.handle.right_line.midpoint, receiver.right_end.center))
# Define holes on the dial plate
num_holes = 10
for i in range(num_holes):
angle = i * (2*pi / num_holes)
hole_x = dial_radius * 0.7 * cos(angle)
hole_y = dial_radius * 0.7 * sin(angle)
dial_plate.AddGeometry(Circle((hole_x,hole_y), 0.2*inch))
return telephone
with AIDL_2D:
model = old_school_telephone()
print(model.Solve())
model.Render()
```
### Step-by-Step Explanation:
1. **Define Structures**:
- `telephone` contains everything.
- `base` defines the base of the telephone.
- `dial_plate` defines the dial area on the base.
- `receiver` includes the receiver with the handle and its two ends.
2. **Add Geometry**:
- A `RoundedRectangle` for the base.
- A `Circle` for the dial plate.
- Two `Circle`s for the ends of the receiver, and a `RoundedRectangle` for the handle.
3. **Add Constraints**:
- Center the handle of the receiver with both circular ends.
- Add 10 equally spaced holes on the dial plate.
Feel free to adjust the parameters or the design as needed, and let me know if you have any modifications or further requirements!
Traceback (most recent call last):
File "/net/projects/ranalab/jz/aidl/AIDL/generation/backend.py", line 21, in dumbrun
exec(code, env)
File "", line 56, in
File "", line 42, in old_school_telephone
AttributeError: 'RoundedRectangle' object has no attribute 'left_line'
My apologies for the mistake. In AIDL, `RoundedRectangle` does not have an attribute directly named `left_line`. We need to use the endpoints of the lines instead (`top_left` and `bottom_left` for left side, and `top_right` and `bottom_right` for right side). Let's correct the program accordingly.
Also, for adding multiple geometries dynamically, we can use a list structure for the holes in the dial plate. Here's the corrected version of the AIDL program:
```python
from AIDL import *
def old_school_telephone(
base_length: float = 8 * inches,
base_width: float = 6 * inches,
dial_radius: float = 2 * inches,
receiver_length: float = 7 * inches,
receiver_end_radius: float = 1 * inch,
handle_thickness: float = 0.5 * inch
):
"""
Create an old-school telephone with base, dial plate, and receiver
"""
# Define the root structure
telephone = Solid()
# Define the base structure and geometry
base = Solid()
telephone.base = base
base.geometry = RoundedRectangle((0,0), base_length, base_width, 0.5*inch)
# Define the dial plate on the base
dial_plate = Solid(shift=(0, base_width * 0.15))
telephone.dial_plate = dial_plate
dial_plate.geometry = Circle((0,0), dial_radius)
# Define the receiver structure
receiver = Solid(shift=(0, base_width * 0.5))
telephone.receiver = receiver
# Define the two circular ends of the receiver
receiver.left_end = Circle((-receiver_length / 2, 0), receiver_end_radius)
receiver.right_end = Circle((receiver_length / 2, 0), receiver_end_radius)
# Define the connecting handle - as a rounded rectangle
handle_length = receiver_length - 2 * receiver_end_radius
receiver.handle = RoundedRectangle((0,0), handle_length, handle_thickness, corner_radius=handle_thickness/2)
# Add constraints between the receiver handle and ends
receiver.AddConstraint(Coincident(receiver.handle.left, receiver.left_end.center))
receiver.AddConstraint(Coincident(receiver.handle.right, receiver.right_end.center))
# Define holes on the dial plate
num_holes = 10
dial_plate.holes = [
Circle(
(dial_radius * 0.7 * cos(i * (2*pi / num_holes)), dial_radius * 0.7 * sin(i * (2*pi / num_holes))),
0.2*inch
) for i in range(num_holes)
]
return telephone
with AIDL_2D:
model = old_school_telephone()
print(model.Solve())
model.Render()
```
### Adjustments:
1. **Fixed Constraints for `RoundedRectangle`**: Used `left`, `right` attributes instead of `left_line` and `right_line`.
2. **Used List for Dial Plate Holes**: Dynamically create holes and store them in a list attached to the dial plate.
Now, this should correctly create the old-school telephone model. Let me know if there are any further adjustments or features you would like to add!
|