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CLIP Score: 31.41
from AIDL import *
def heart_steering_wheel(ray: float = 5*inches, hub_radius: float = 1*inch):
"""
Creates a heart-shaped steering wheel.
"""
# Define the root structure
steering_wheel = Solid()
# Define the wheel ring structure
wheel_ring = Solid()
steering_wheel.wheel_ring = wheel_ring
# Define the central hub structure
central_hub = Solid(shift=(0, -0.1*ray))
steering_wheel.central_hub = central_hub
# Define points to form the heart shape
left_top = (-ray / 2, ray / 2)
right_top = (ray / 2, ray / 2)
bottom_tip = (0, -ray)
# Add the heart shape to the wheel ring
wheel_ring.left_top_curve = Arc(left_top, (0, ray), (-ray / 2, 0))
wheel_ring.right_top_curve = Arc(right_top, (ray / 2, 0), (0, ray))
wheel_ring.bottom_left_curve = Line((-ray / 2, 0), bottom_tip)
wheel_ring.bottom_right_curve = Line(bottom_tip, (ray / 2, 0))
# Define the central hub as a circle
central_hub.hub = Circle((0,0), hub_radius)
# Optionally add some details (e.g., engravings) - For now, we leave it blank
# details = Drawing()
# steering_wheel.details = details
# details.engraving = Line((0, hub_radius), (0, ray))
return steering_wheel
with AIDL_2D:
model = heart_steering_wheel()
print(model.Solve())
model.Render()
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Please write an AIDL program to generate a heart shaped steering wheel
Sure, let's break down the design of a heart-shaped steering wheel step by step. Here's how we could approach it:
1. **Define the overall structure**: The steering wheel consists of a steering wheel ring (which is heart-shaped) and a central hub that connects to the steering column.
2. **Substructures**:
* **Wheel Ring (Solid)**: The main part of the heart-shaped ring.
* **Central Hub (Solid)**: The central part of the steering wheel where it connects to the car.
* **Drawing Details (Drawing)**: Optional engravings or details on the wheel or hub.
3. **Geometric Breakdown**:
- **Heart Shape**: A heart shape can be created using curves and arcs. We will draw the heart shape by using curves.
- **Hub**: A simple circle representing the central hub.
Below is the full code for the heart-shaped steering wheel:
```python
from AIDL import *
def heart_steering_wheel(ray: float = 5*inches, hub_radius: float = 1*inch):
"""
Creates a heart-shaped steering wheel.
"""
# Define the root structure
steering_wheel = Solid()
# Define the wheel ring structure
wheel_ring = Solid()
steering_wheel.wheel_ring = wheel_ring
# Define the central hub structure
central_hub = Solid(shift=(0, -0.1*ray))
steering_wheel.central_hub = central_hub
# Add the heart shape to the wheel ring
heart_angle = 45
wheel_ring.left_upper_curve = Arc((0, 0), hub_radius, hub_radius+ray, ray, -heart_angle)
wheel_ring.right_upper_curve = Arc((0, 0), -hub_radius, hub_radius+ray, -ray, heart_angle)
wheel_ring.bottom_left_curve = Arc((ray, -ray), (-ray*cos(heart_angle * pi/180), -hub_radius), hub_radius-cos(heart_angle * pi/180))
wheel_ring.bottom_right_curve = Arc((-ray, -ray), (ray*cos(heart_angle * pi/180), -hub_radius), -hub_radius+cos(heart_angle * pi/180))
wheel_ring.left_valley = Line(wheel_ring.left_upper_curve.end, wheel_ring.bottom_left_curve.start)
wheel_ring.right_valley = Line(wheel_ring.right_upper_curve.end, wheel_ring.bottom_right_curve.start)
# Define the central hub as a circle
central_hub.hub = Circle((0,0), hub_radius)
# Optionally add some details (e.g., engravings) - For now, we leave it blank
# details = Drawing()
# steering_wheel.details = details
# details.engraving = Line((0, hub_radius), (0, ray))
return steering_wheel
with AIDL_2D:
model = heart_steering_wheel()
print(model.Solve())
model.Render()
```
### Explanation:
- **Central Hub**: Defined as a circle with a radius passed through the parameter `hub_radius`.
- **Heart Shape**: Defined using the equations for `Arc` and `Line`. The heart is composed of:
- Two upper arcs (`left_upper_curve` and `right_upper_curve`) for the round top parts of the heart.
- Two lower arcs (`bottom_left_curve` and `bottom_right_curve`) for the lower part of the heart.
- Two straight lines (`left_valley` and `right_valley`) connecting the arcs to form a full outline of the heart shape.
### Potential Adjustments:
- You can tweak the shape and size by adjusting the `ray` and `hub_radius` parameters, or the positions and angles of the arcs and lines that form the heart.
Let me know if you would like any modifications or further details on the design!
Traceback (most recent call last):
File "/net/projects/ranalab/jz/aidl/AIDL/generation/backend.py", line 21, in dumbrun
exec(code, env)
File "", line 43, in
File "", line 23, in heart_steering_wheel
File "/net/projects/ranalab/jz/aidl/AIDL/geometry.py", line 711, in __init__
dispatch(args, kwargs, [center_start_angle, center_angle_end, center_start_end, center_angle_angle_radius])
File "/net/projects/ranalab/jz/aidl/AIDL/dispatch.py", line 42, in dispatch
given_signature = format_called_signature(args, kwargs)
File "/net/projects/ranalab/jz/aidl/AIDL/dispatch.py", line 28, in format_called_signature
return '(' + ', '.join([format_called_signature(arg) if isinstance(arg, Iterable) else str(type(arg).__name__) for arg in all_args]) + ')'
File "/net/projects/ranalab/jz/aidl/AIDL/dispatch.py", line 28, in
return '(' + ', '.join([format_called_signature(arg) if isinstance(arg, Iterable) else str(type(arg).__name__) for arg in all_args]) + ')'
TypeError: format_called_signature() missing 1 required positional argument: 'kwargs'
It appears there is a mistake in the way the arcs are defined which is leading to the error. Let's revise the construction of the heart shape.
The heart shape can be divided into four segments forming a symmetrical outline by connecting curves and straight lines between key points. Here's a corrected approach:
1. Define the arcs forming the top curves of the heart with clear start and end points.
2. Connect arcs and lines appropriately to form a continuous heart outline.
Here’s the updated version of your script:
```python
from AIDL import *
def heart_steering_wheel(ray: float = 5*inches, hub_radius: float = 1*inch):
"""
Creates a heart-shaped steering wheel.
"""
# Define the root structure
steering_wheel = Solid()
# Define the wheel ring structure
wheel_ring = Solid()
steering_wheel.wheel_ring = wheel_ring
# Define the central hub structure
central_hub = Solid(shift=(0, -0.1*ray))
steering_wheel.central_hub = central_hub
# Define points to form the heart shape
left_top = (-ray / 2, ray / 2)
right_top = (ray / 2, ray / 2)
bottom_tip = (0, -ray)
# Add the heart shape to the wheel ring
wheel_ring.left_top_curve = Arc(left_top, (0, ray), (-ray / 2, 0))
wheel_ring.right_top_curve = Arc(right_top, (ray / 2, 0), (0, ray))
wheel_ring.bottom_left_curve = Line((-ray / 2, 0), bottom_tip)
wheel_ring.bottom_right_curve = Line(bottom_tip, (ray / 2, 0))
# Define the central hub as a circle
central_hub.hub = Circle((0,0), hub_radius)
# Optionally add some details (e.g., engravings) - For now, we leave it blank
# details = Drawing()
# steering_wheel.details = details
# details.engraving = Line((0, hub_radius), (0, ray))
return steering_wheel
with AIDL_2D:
model = heart_steering_wheel()
print(model.Solve())
model.Render()
```
### Explanation:
- **Central Hub**: Defined as a circle (`hub`).
- **Heart Shape**: Now correctly formed using two arcs for the upper part and two lines for the lower part of the heart.
- **Arcs**:
- `left_top_curve` connects the top center to the left top and goes counterclockwise.
- `right_top_curve` connects the top center to the right top and goes counterclockwise.
- **Lines**:
- `bottom_left_curve` connects the left bottom point to the bottom tip.
- `bottom_right_curve` connects the bottom tip to the right bottom point.
### Potential Adjustments:
- Adjust parameters such as `ray` and `hub_radius`.
- Add optional details within the heart or central hub.
Please retry the updated script and let me know if it works or if any additional adjustments are needed!
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