 |
CLIP Score: 28.47
from AIDL import *
def speaker_with_subwoofer(
speaker_width: float = 8 * inches,
speaker_height: float = 12 * inches,
subwoofer_diameter: float = 4 * inches,
speaker_diameter: float = 3 * inches,
mounting_hole_diameter: float = 0.2 * inches
):
"""
Model a basic speaker with a subwoofer embedded in it, with additional mounting holes and a main speaker hole.
"""
# Define the main speaker structure
speaker = Solid()
# Geometry for the speaker body
speaker.body = Rectangle((0, 0), speaker_width, speaker_height)
# Define the subwoofer structure relative to the speaker
subwoofer = Solid(shift=(0, 0))
subwoofer.cutout = Hole()
# Define the subwoofer hole geometry, centered in subwoofer
subwoofer.cutout.circle = Circle((0, 0), subwoofer_diameter / 2)
# Define the main speaker hole geometry, positioned above center
speaker.main_speaker_hole = Hole()
speaker.main_speaker_hole.circle = Circle((0, speaker_height / 4), speaker_diameter / 2)
# Define the mounting holes geometry
mounting_holes = Hole()
dx = speaker_width / 2 - mounting_hole_diameter / 2
dy = speaker_height / 2 - mounting_hole_diameter / 2
mounting_holes.hole1 = Circle((-dx, -dy), mounting_hole_diameter / 2)
mounting_holes.hole2 = Circle((dx, -dy), mounting_hole_diameter / 2)
mounting_holes.hole3 = Circle((-dx, dy), mounting_hole_diameter / 2)
mounting_holes.hole4 = Circle((dx, dy), mounting_hole_diameter / 2)
# Add to speaker structure
speaker.subwoofer = subwoofer
speaker.mounting_holes = mounting_holes
# Constraints on the structure level
speaker.AddConstraint(speaker.bb.width == speaker_width)
speaker.AddConstraint(speaker.bb.height == speaker_height)
# Ensure subwoofer is centered within the speaker
speaker.AddConstraint(subwoofer.bb.horizontal_center == speaker.bb.horizontal_center)
speaker.AddConstraint(subwoofer.bb.vertical_center == speaker.bb.vertical_center)
# Ensure the main speaker hole is positioned correctly
speaker.AddConstraint(speaker.main_speaker_hole.circle.center.u == speaker.bb.horizontal_center)
speaker.AddConstraint(speaker.main_speaker_hole.circle.center.v == speaker.bb.top - (speaker_height / 4))
# Ensure mounting holes are at corners
speaker.AddConstraint(mounting_holes.hole1.center.u == speaker.bb.left + dx)
speaker.AddConstraint(mounting_holes.hole1.center.v == speaker.bb.bottom + dy)
speaker.AddConstraint(mounting_holes.hole2.center.u == speaker.bb.right - dx)
speaker.AddConstraint(mounting_holes.hole2.center.v == speaker.bb.bottom + dy)
speaker.AddConstraint(mounting_holes.hole3.center.u == speaker.bb.left + dx)
speaker.AddConstraint(mounting_holes.hole3.center.v == speaker.bb.top - dy)
speaker.AddConstraint(mounting_holes.hole4.center.u == speaker.bb.right - dx)
speaker.AddConstraint(mounting_holes.hole4.center.v == speaker.bb.top - dy)
return speaker
with AIDL_2D:
model = speaker_with_subwoofer()
print(model.Solve())
model.Render()
|
Please write an AIDL program to generate a speaker with subwoofer
Great! Let's start by defining the high-level structure of the speaker with a subwoofer. Here, we'll consider a basic design where we have a main speaker structure with an embedded subwoofer, both having their own geometric definitions.
Here's the plan:
1. Define the high-level structure of the speaker and subwoofer.
2. Add constraints to relate the speaker and subwoofer.
3. Define the geometry for each component.
4. Add any additional constraints needed for the geometry.
Let's start with the first part:
### 1. Define the high-level structure of the speaker and subwoofer:
```python
from AIDL import *
def speaker_with_subwoofer(
speaker_width: float = 8 * inches,
speaker_height: float = 12 * inches,
subwoofer_diameter: float = 4 * inches
):
"""
Model a basic speaker with a subwoofer embedded in it.
"""
# Define the main speaker structure
speaker = Solid()
subwoofer = Solid()
subwoofer_hole = Hole()
subwoofer.hole = subwoofer_hole
speaker.subwoofer = subwoofer
# Add compositional constraints
speaker.AddConstraint(speaker.bb.width == speaker_width)
speaker.AddConstraint(speaker.bb.height == speaker_height)
# Define the subwoofer constraints relative to the speaker
subwoofer.AddConstraint(subwoofer.bb.horizontal_center == speaker.bb.horizontal_center)
subwoofer.AddConstraint(subwoofer.bb.vertical_center == speaker.bb.vertical_center)
subwoofer_hole.AddConstraint(subwoofer_hole.bb.width == subwoofer_diameter)
subwoofer_hole.AddConstraint(subwoofer_hole.bb.height == subwoofer_diameter)
return speaker
with AIDL_2D:
model = speaker_with_subwoofer()
print(model.Solve())
model.Render()
```
Here we have:
1. Created a root `Solid` structure for the speaker.
2. Created a `Solid` structure for the subwoofer and a `Hole` for its cutout.
3. Added the logical compositional constraints to relate the subwoofer and the speaker.
Next, we need to add the geometry to the speaker and the subwoofer.
### 2. Add the geometry for the speaker and its subwoofer:
```python
from AIDL import *
def speaker_with_subwoofer(
speaker_width: float = 8 * inches,
speaker_height: float = 12 * inches,
subwoofer_diameter: float = 4 * inches
):
"""
Model a basic speaker with a subwoofer embedded in it.
"""
# Define the main speaker structure
speaker = Solid()
subwoofer = Solid()
subwoofer_hole = Hole()
subwoofer.hole = subwoofer_hole
speaker.subwoofer = subwoofer
# Add compositional constraints
speaker.AddConstraint(speaker.bb.width == speaker_width)
speaker.AddConstraint(speaker.bb.height == speaker_height)
# Define the subwoofer constraints relative to the speaker
subwoofer.AddConstraint(subwoofer.bb.horizontal_center == speaker.bb.horizontal_center)
subwoofer.AddConstraint(subwoofer.bb.vertical_center == speaker.bb.vertical_center)
subwoofer_hole.AddConstraint(subwoofer_hole.bb.width == subwoofer_diameter)
subwoofer_hole.AddConstraint(subwoofer_hole.bb.height == subwoofer_diameter)
# Define the geometry for the speaker
speaker.body = Rectangle((0, 0), speaker_width, speaker_height)
# Define the geometry for the subwoofer (small circle centered in the speaker)
subwoofer_hole.cutout = Circle((0, 0), subwoofer_diameter / 2)
return speaker
with AIDL_2D:
model = speaker_with_subwoofer()
print(model.Solve())
model.Render()
```
In this updated version, we're:
1. Adding a `Rectangle` to represent the speaker body.
2. Adding a `Circle` to represent the subwoofer hole.
Finally, let’s add any additional constraints to ensure the geometry fits well within our design and add more details if needed (e.g., additional speaker holes, mounting holes, etc.).
### 3. Add additional speaker details and constraints:
```python
from AIDL import *
def speaker_with_subwoofer(
speaker_width: float = 8 * inches,
speaker_height: float = 12 * inches,
subwoofer_diameter: float = 4 * inches,
speaker_diameter: float = 3 * inches,
mounting_hole_diameter: float = 0.2 * inches
):
"""
Model a basic speaker with a subwoofer embedded in it, with additional mounting holes and a main speaker hole.
"""
# Define the main speaker structure
speaker = Solid()
subwoofer = Solid()
subwoofer_hole = Hole()
main_speaker_hole = Hole()
mounting_hole = Hole()
subwoofer.hole = subwoofer_hole
speaker.main_speaker_hole = main_speaker_hole
speaker.mounting_hole = mounting_hole
speaker.subwoofer = subwoofer
# Add compositional constraints
speaker.AddConstraint(speaker.bb.width == speaker_width)
speaker.AddConstraint(speaker.bb.height == speaker_height)
# Define the subwoofer constraints relative to the speaker
subwoofer.AddConstraint(subwoofer.bb.horizontal_center == speaker.bb.horizontal_center)
subwoofer.AddConstraint(subwoofer.bb.vertical_center == speaker.bb.vertical_center)
subwoofer_hole.AddConstraint(subwoofer_hole.bb.width == subwoofer_diameter)
subwoofer_hole.AddConstraint(subwoofer_hole.bb.height == subwoofer_diameter)
# Define the geometry for the speaker
speaker.body = Rectangle((0, 0), speaker_width, speaker_height)
# Define the geometry for the subwoofer (small circle centered in the speaker)
subwoofer_hole.cutout = Circle((0, 0), subwoofer_diameter / 2)
# Define the geometry for the main speaker hole
main_speaker_hole.cutout = Circle((0, speaker_height / 4), speaker_diameter / 2)
# Define mounting holes (4 holes at the corners)
dx = speaker_width / 2 - mounting_hole_diameter
dy = speaker_height / 2 - mounting_hole_diameter
mounting_hole.holes = [
Circle((-dx, -dy), mounting_hole_diameter / 2),
Circle((dx, -dy), mounting_hole_diameter / 2),
Circle((-dx, dy), mounting_hole_diameter / 2),
Circle((dx, dy), mounting_hole_diameter / 2),
]
return speaker
with AIDL_2D:
model = speaker_with_subwoofer()
print(model.Solve())
model.Render()
```
Here, we added:
1. A main speaker hole.
2. Four mounting holes at the corners.
This should produce a simple speaker with a subwoofer embedded in it. If you need to add additional features or constraints, please let me know!
Traceback (most recent call last):
File "/net/projects/ranalab/jz/aidl/AIDL/generation/backend.py", line 21, in dumbrun
exec(code, env)
File "", line 62, in
File "/net/projects/ranalab/jz/aidl/AIDL/structure.py", line 968, in Solve
self._pre_solve(system)
File "/net/projects/ranalab/jz/aidl/AIDL/structure.py", line 917, in _pre_solve
structure._pre_solve(system)
File "/net/projects/ranalab/jz/aidl/AIDL/structure.py", line 925, in _pre_solve
constraint._pre_solve(system)
File "/net/projects/ranalab/jz/aidl/AIDL/constraints.py", line 182, in _pre_solve
self.expression._e.constrain(system, name=self.name)
File "/net/projects/ranalab/jz/aidl/AIDL/expression.py", line 133, in _e
return self._solver_expr()
File "/net/projects/ranalab/jz/aidl/AIDL/expression.py", line 175, in _solver_expr
return self.val[0]._e == self.val[1]._e
File "/net/projects/ranalab/jz/aidl/AIDL/expression.py", line 133, in _e
return self._solver_expr()
File "/net/projects/ranalab/jz/aidl/AIDL/expression.py", line 207, in _solver_expr
return self.val[0]()._solver_expr()
File "/net/projects/ranalab/jz/aidl/AIDL/structure.py", line 388, in _horizontal_center
return self._center_u()
File "/net/projects/ranalab/jz/aidl/AIDL/structure.py", line 363, in _center_u
return (self._max_u() + self._min_u()) / 2
File "/net/projects/ranalab/jz/aidl/AIDL/structure.py", line 347, in _max_u
bb = self._bounding_box()
File "/net/projects/ranalab/jz/aidl/AIDL/structure.py", line 319, in _bounding_box
raise NonLocalContext(context, self._structure)
AIDL.feedback.NonLocalContext: . referenced from .subwoofer.
The error traceback points to an issue with how the constraints are applied, specifically involving the bounding box constraints. The `NonLocalContext` error typically arises when constraints are improperly referencing items outside their scope or hierarchy in the model tree.
Let’s re-evaluate how the constraints are added to ensure they are properly scoped within their respective structures.
Here’s the corrected version of your program:
1. Ensure that constraints involving different structures properly address scope issues.
2. Verify that all geometry and structure constraints are self-contained within their context.
### Corrected AIDL Program:
```python
from AIDL import *
def speaker_with_subwoofer(
speaker_width: float = 8 * inches,
speaker_height: float = 12 * inches,
subwoofer_diameter: float = 4 * inches,
speaker_diameter: float = 3 * inches,
mounting_hole_diameter: float = 0.2 * inches
):
"""
Model a basic speaker with a subwoofer embedded in it, with additional mounting holes and a main speaker hole.
"""
# Define the main speaker structure
speaker = Solid(shift=(0, 0)) # explicit root shift even if zero
subwoofer = Solid(shift=(0, 0))
subwoofer_hole = Hole(shift=(0, 0))
main_speaker_hole = Hole(shift=(0, 0))
mounting_hole = Hole(shift=(0, 0))
subwoofer.persistent_hole = subwoofer_hole
speaker.main_speaker_hole = main_speaker_hole
speaker.mounting_hole = mounting_hole
speaker.subwoofer = subwoofer
# Define the geometry for the speaker
speaker.body = Rectangle((0, 0), speaker_width, speaker_height)
# Define the geometry for the subwoofer (small circle centered in the speaker)
subwoofer_hole.cutout = Circle((0, 0), subwoofer_diameter / 2)
# Define the geometry for the main speaker hole
main_speaker_hole.cutout = Circle((0, speaker_height / 4), speaker_diameter / 2)
# Define mounting holes (4 holes at the corners)
dx = speaker_width / 2 - mounting_hole_diameter / 2
dy = speaker_height / 2 - mounting_hole_diameter / 2
mounting_hole.holes = [
Circle((-dx, -dy), mounting_hole_diameter / 2),
Circle((dx, -dy), mounting_hole_diameter / 2),
Circle((-dx, dy), mounting_hole_diameter / 2),
Circle((dx, dy), mounting_hole_diameter / 2),
]
# Add compositional constraints for subwoofer within speaker
subwoofer.AddConstraint(subwoofer_hole.cutout.center.u == subwoofer.bb.horizontal_center)
subwoofer.AddConstraint(subwoofer_hole.cutout.center.v == subwoofer.bb.vertical_center)
# Add compositional constraints for subwoofer hole dimensions
subwoofer_hole.AddConstraint(subwoofer_hole.cutout.radius == subwoofer_diameter / 2)
# Add compositional constraints for main speaker hole
main_speaker_hole.AddConstraint(main_speaker_hole.cutout.center.u == main_speaker_hole.bb.horizontal_center)
main_speaker_hole.AddConstraint(main_speaker_hole.cutout.center.v == main_speaker_hole.bb.vertical_center + speaker_height / 4)
# Center the subwoofer within the speaker
subwoofer.AddConstraint(subwoofer.bb.horizontal_center == speaker.body.center.u)
subwoofer.AddConstraint(subwoofer.bb.vertical_center == speaker.body.center.v)
return speaker
with AIDL_2D:
model = speaker_with_subwoofer()
print(model.Solve())
model.Render()
```
### Key Changes:
- Ensured that each structure has its own local constraints.
- Used parameters directly within the local context of each structure to avoid non-local context errors.
Please try running this version and let me know if there are any more issues!
Traceback (most recent call last):
File "/net/projects/ranalab/jz/aidl/AIDL/generation/backend.py", line 21, in dumbrun
exec(code, env)
File "", line 66, in
File "/net/projects/ranalab/jz/aidl/AIDL/structure.py", line 966, in Solve
self._compile()
File "/net/projects/ranalab/jz/aidl/AIDL/structure.py", line 729, in _compile
self._compile_recursive()
File "/net/projects/ranalab/jz/aidl/AIDL/structure.py", line 784, in _compile_recursive
next_group = child._compile_recursive(path + [name], self, next_group)
File "/net/projects/ranalab/jz/aidl/AIDL/structure.py", line 818, in _compile_recursive
constraint._post_compile()
File "/net/projects/ranalab/jz/aidl/AIDL/constraints.py", line 67, in _post_compile
assert(ref_structure is not None)
AssertionError
The `AssertionError` indicates that a constraint was added but one or more references within that constraint could not be resolved to a specific structure or geometry. It means that there are some constraints which don’t correctly reference their respective geometry or that the referenced geometry hasn't been properly added to the model before the constraint is applied.
Let's reorganize and carefully ensure that all geometry and structures are added before constraints referencing them are defined at each level.
### Corrected AIDL Program:
```python
from AIDL import *
def speaker_with_subwoofer(
speaker_width: float = 8 * inches,
speaker_height: float = 12 * inches,
subwoofer_diameter: float = 4 * inches,
speaker_diameter: float = 3 * inches,
mounting_hole_diameter: float = 0.2 * inches
):
"""
Model a basic speaker with a subwoofer embedded in it, with additional mounting holes and a main speaker hole.
"""
# Define the main speaker structure
speaker = Solid()
# Geometry for the speaker body
speaker.body = Rectangle((0, 0), speaker_width, speaker_height)
# Define the subwoofer structure relative to the speaker
subwoofer = Solid(shift=(0, 0))
subwoofer.cutout = Hole()
# Define the subwoofer hole geometry, centered in subwoofer
subwoofer.cutout.circle = Circle((0, 0), subwoofer_diameter / 2)
# Define the main speaker hole geometry, positioned above center
speaker.main_speaker_hole = Hole()
speaker.main_speaker_hole.circle = Circle((0, speaker_height / 4), speaker_diameter / 2)
# Define the mounting holes geometry
mounting_holes = Hole()
dx = speaker_width / 2 - mounting_hole_diameter / 2
dy = speaker_height / 2 - mounting_hole_diameter / 2
mounting_holes.hole1 = Circle((-dx, -dy), mounting_hole_diameter / 2)
mounting_holes.hole2 = Circle((dx, -dy), mounting_hole_diameter / 2)
mounting_holes.hole3 = Circle((-dx, dy), mounting_hole_diameter / 2)
mounting_holes.hole4 = Circle((dx, dy), mounting_hole_diameter / 2)
# Add to speaker structure
speaker.subwoofer = subwoofer
speaker.mounting_holes = mounting_holes
# Constraints
speaker.AddConstraint(speaker.body.bb.width == speaker_width)
speaker.AddConstraint(speaker.body.bb.height == speaker_height)
# Ensure subwoofer is centered within the speaker
subwoofer.AddConstraint(subwoofer.bb.horizontal_center == speaker.body.center.u)
subwoofer.AddConstraint(subwoofer.bb.vertical_center == speaker.body.center.v)
# Ensure the main speaker hole is positioned correctly
speaker.main_speaker_hole.AddConstraint(speaker.main_speaker_hole.circle.center.u == speaker.body.center.u)
speaker.main_speaker_hole.AddConstraint(speaker.main_speaker_hole.circle.center.v == speaker.body.center.v + speaker_height / 4)
# Ensure mounting holes are at corners
speaker.AddConstraint(mounting_holes.hole1.center.u == -dx)
speaker.AddConstraint(mounting_holes.hole1.center.v == -dy)
speaker.AddConstraint(mounting_holes.hole2.center.u == dx)
speaker.AddConstraint(mounting_holes.hole2.center.v == -dy)
speaker.AddConstraint(mounting_holes.hole3.center.u == -dx)
speaker.AddConstraint(mounting_holes.hole3.center.v == dy)
speaker.AddConstraint(mounting_holes.hole4.center.u == dx)
speaker.AddConstraint(mounting_holes.hole4.center.v == dy)
return speaker
with AIDL_2D:
model = speaker_with_subwoofer()
print(model.Solve())
model.Render()
```
### Key Changes:
- Each piece of geometry is added before any constraints are applied.
- The constraints are applied on local structures directly after their creation to ensure references exist.
Please try running this version of the script and let me know if any part of it needs further adjustments!
Traceback (most recent call last):
File "/net/projects/ranalab/jz/aidl/AIDL/generation/backend.py", line 21, in dumbrun
exec(code, env)
File "", line 71, in
File "", line 47, in speaker_with_subwoofer
AttributeError: 'Rectangle' object has no attribute 'bb'
The `AttributeError` indicates that the program tried to access the `bb` (bounding box) attribute of a `Rectangle` object, which does not have such an attribute. Instead, bounding box properties should be accessed at the structure level, not directly on the geometry (e.g., `speaker.bb` instead of `speaker.body.bb`).
Let's fix this by correctly referencing bounding box attributes on the structure level.
### Corrected AIDL Program:
```python
from AIDL import *
def speaker_with_subwoofer(
speaker_width: float = 8 * inches,
speaker_height: float = 12 * inches,
subwoofer_diameter: float = 4 * inches,
speaker_diameter: float = 3 * inches,
mounting_hole_diameter: float = 0.2 * inches
):
"""
Model a basic speaker with a subwoofer embedded in it, with additional mounting holes and a main speaker hole.
"""
# Define the main speaker structure
speaker = Solid()
# Geometry for the speaker body
speaker.body = Rectangle((0, 0), speaker_width, speaker_height)
# Define the subwoofer structure relative to the speaker
subwoofer = Solid(shift=(0, 0))
subwoofer.cutout = Hole()
# Define the subwoofer hole geometry, centered in subwoofer
subwoofer.cutout.circle = Circle((0, 0), subwoofer_diameter / 2)
# Define the main speaker hole geometry, positioned above center
speaker.main_speaker_hole = Hole()
speaker.main_speaker_hole.circle = Circle((0, speaker_height / 4), speaker_diameter / 2)
# Define the mounting holes geometry
mounting_holes = Hole()
dx = speaker_width / 2 - mounting_hole_diameter / 2
dy = speaker_height / 2 - mounting_hole_diameter / 2
mounting_holes.hole1 = Circle((-dx, -dy), mounting_hole_diameter / 2)
mounting_holes.hole2 = Circle((dx, -dy), mounting_hole_diameter / 2)
mounting_holes.hole3 = Circle((-dx, dy), mounting_hole_diameter / 2)
mounting_holes.hole4 = Circle((dx, dy), mounting_hole_diameter / 2)
# Add to speaker structure
speaker.subwoofer = subwoofer
speaker.mounting_holes = mounting_holes
# Constraints on the structure level
speaker.AddConstraint(speaker.bb.width == speaker_width)
speaker.AddConstraint(speaker.bb.height == speaker_height)
# Ensure subwoofer is centered within the speaker
speaker.AddConstraint(subwoofer.bb.horizontal_center == speaker.bb.horizontal_center)
speaker.AddConstraint(subwoofer.bb.vertical_center == speaker.bb.vertical_center)
# Ensure the main speaker hole is positioned correctly
speaker.AddConstraint(speaker.main_speaker_hole.circle.center.u == speaker.bb.horizontal_center)
speaker.AddConstraint(speaker.main_speaker_hole.circle.center.v == speaker.bb.top - (speaker_height / 4))
# Ensure mounting holes are at corners
speaker.AddConstraint(mounting_holes.hole1.center.u == speaker.bb.left + dx)
speaker.AddConstraint(mounting_holes.hole1.center.v == speaker.bb.bottom + dy)
speaker.AddConstraint(mounting_holes.hole2.center.u == speaker.bb.right - dx)
speaker.AddConstraint(mounting_holes.hole2.center.v == speaker.bb.bottom + dy)
speaker.AddConstraint(mounting_holes.hole3.center.u == speaker.bb.left + dx)
speaker.AddConstraint(mounting_holes.hole3.center.v == speaker.bb.top - dy)
speaker.AddConstraint(mounting_holes.hole4.center.u == speaker.bb.right - dx)
speaker.AddConstraint(mounting_holes.hole4.center.v == speaker.bb.top - dy)
return speaker
with AIDL_2D:
model = speaker_with_subwoofer()
print(model.Solve())
model.Render()
```
### Key Changes:
- Bounding box properties are referenced at the structure level (`speaker.bb`, `subwoofer.bb`, etc.) rather than on the geometry itself.
- Adjusted the constraints for the main speaker hole and mounting holes to reference bounding box properties correctly.
Please try running this version of the script and let me know if there are any further issues!
|