aidl/heart shaped steering wheel/heart shaped steering wheel0


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heart shaped steering wheel0 image
                
from AIDL import *

def heart_shaped_steering_wheel(
        diameter: float = 14 * inches,     # Typical size of a steering wheel
        grip_thickness: float = 1 * inch   # Thickness of the grip handles around the wheel
):
    """
    Model a heart-shaped steering wheel.
    """

    # Define the main structure of the steering wheel
    steering_wheel = Solid()
    
    # Create the heart shape as the main part of the wheel. To simplify, we'll define it using lines and arcs.
    heart_shape = Solid()
    steering_wheel.heart_shape = heart_shape
    
    # Create the grip handles (optional) and details (e.g., mounting holes)
    grip = Solid()
    steering_wheel.grip = grip
    mounting_holes = Hole()
    steering_wheel.mounting_holes = mounting_holes
    
    # Geometry and constraints for the heart shape
    radius = diameter / 2
    
    # Heart shape geometry
    heart_shape.top_left_arc = Arc((-radius/2, 0), (0, radius), (-radius, 0))
    heart_shape.top_right_arc = Arc((radius/2, 0), (radius, 0), (0, radius))
    heart_shape.bottom_tip = Line(heart_shape.top_left_arc.end, heart_shape.top_right_arc.end)
    
    heart_shape.AddConstraint(HorizontallySymmetric(heart_shape.top_left_arc.center, heart_shape.top_right_arc.center))
    heart_shape.AddConstraint(heart_shape.bottom_tip.end.u == radius)
    heart_shape.AddConstraint(heart_shape.bottom_tip.start.u == -radius)
    
    # Grip handle geometry
    grip.handle_left = Circle((-radius - grip_thickness/2, -grip_thickness), grip_thickness/2)
    grip.handle_right = Circle((radius + grip_thickness/2, -grip_thickness), grip_thickness/2)
    
    # Mounting holes geometry (3 holes, symmetrically placed)
    mounting_holes.hole1 = Circle((-radius/2, -radius/2), grip_thickness/4)
    mounting_holes.hole2 = Circle((0, -radius), grip_thickness/4)
    mounting_holes.hole3 = Circle((radius/2, -radius/2), grip_thickness/4)

    # Adding constraints for mounting holes
    steering_wheel.AddConstraint(HorizontallySymmetric(mounting_holes.hole1.center, mounting_holes.hole3.center))
    steering_wheel.AddConstraint(mounting_holes.hole2.center.u == 0)
    
    return steering_wheel

with AIDL_2D:
    model = heart_shaped_steering_wheel()
print(model.Solve())
model.Render()

                
                Please write an AIDL program to generate a heart shaped steering wheel

Sure! Let's break down the steps to create a heart-shaped steering wheel using AIDL. We'll start by defining the overall structure and hierarchical relationships, followed by constraints, and then the specific geometry.

### Steps

1. Define the main structure of the steering wheel.
2. Create the heart shape as the main part of the wheel.
3. Add the grip handles around the heart shape.
4. Add any necessary holes or details for mounting.

### Structure and Hierarchy

```python
from AIDL import *

def heart_shaped_steering_wheel(
        diameter: float = 14 * inches,     # Typical size of a steering wheel
        grip_thickness: float = 1 * inch   # Thickness of the grip handles around the wheel
):
    """
    Model a heart-shaped steering wheel.
    """

    # Define the main structure of the steering wheel
    steering_wheel = Solid()
    
    # Create the heart shape as the main part of the wheel. To simplify, we'll define it using lines and arcs.
    heart_shape = Solid()
    steering_wheel.heart_shape = heart_shape
    
    # Create the grip handles (optional) and details (e.g., mounting holes)
    grip = Solid()
    steering_wheel.grip = grip
    mounting_holes = Hole()
    steering_wheel.mounting_holes = mounting_holes
    
    # Geometry and constraints for the heart shape
    radius = diameter / 2
    
    # Heart shape geometry
    heart_shape.top_left_arc = Arc((-radius/2, 0), (0, radius), (-radius, 0))
    heart_shape.top_right_arc = Arc((radius/2, 0), (radius, 0), (0, radius))
    heart_shape.bottom_tip = Line(heart_shape.top_left_arc.end, heart_shape.top_right_arc.end)
    
    heart_shape.AddConstraint(HorizontallySymmetric(heart_shape.top_left_arc.center, heart_shape.top_right_arc.center))
    heart_shape.AddConstraint(heart_shape.bottom_tip.end.u == radius)
    heart_shape.AddConstraint(heart_shape.bottom_tip.start.u == -radius)
    
    # Grip handle geometry
    grip.handle_left = Circle((-radius - grip_thickness/2, -grip_thickness), grip_thickness/2)
    grip.handle_right = Circle((radius + grip_thickness/2, -grip_thickness), grip_thickness/2)
    
    # Mounting holes geometry (3 holes, symmetrically placed)
    mounting_holes.hole1 = Circle((-radius/2, -radius/2), grip_thickness/4)
    mounting_holes.hole2 = Circle((0, -radius), grip_thickness/4)
    mounting_holes.hole3 = Circle((radius/2, -radius/2), grip_thickness/4)

    # Adding constraints for mounting holes
    steering_wheel.AddConstraint(HorizontallySymmetric(mounting_holes.hole1.center, mounting_holes.hole3.center))
    steering_wheel.AddConstraint(mounting_holes.hole2.center.u == 0)
    
    return steering_wheel

with AIDL_2D:
    model = heart_shaped_steering_wheel()
print(model.Solve())
model.Render()
```

This AIDL program defines a heart-shaped steering wheel with a main heart shape created using left and right arcs and a bottom tip line. It also includes option grip handles and mounting holes. The constraints ensure that the geometry stays symmetric and properly aligned.

Feel free to adjust the parameters or constraints to better fit your design requirements, and let me know if you need any further customizations or additional details!