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fix: simple hypothetical potential #107
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Reviewer's Guide by SourceryThis PR introduces a new RASP-compatible geometric potential function that uses attention-like operations to compute potential energy. The implementation avoids complex mathematical operations and relies on simple arithmetic and comparisons, making it suitable for RASP architecture. The function is integrated into the existing geometry potential system with appropriate coordinate transformations. Class diagram for the new RASP-compatible geometric potentialclassDiagram
class xtal2pot {
+lennard_jones(r: float, epsilon: float, sigma: float) float
+rasp_geometric_potential(x_coords, y_coords, z_coords) float
+geometry_potential(struct, interaction_order: int, potential: callable) float
}
note for rasp_geometric_potential "New function using attention-like operations"
note for geometry_potential "Updated to integrate rasp_geometric_potential"
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Hey @n0w0f - I've reviewed your changes - here's some feedback:
Overall Comments:
- The rasp_geometric_potential function needs more comprehensive documentation explaining: 1) The attention-like algorithm and why it was chosen 2) The reasoning behind the distance binning values 3) Why Manhattan distance is used instead of Euclidean 4) The expected performance characteristics
Here's what I looked at during the review
- 🟡 General issues: 1 issue found
- 🟢 Security: all looks good
- 🟢 Testing: all looks good
- 🟡 Complexity: 1 issue found
- 🟢 Documentation: all looks good
Help me be more useful! Please click 👍 or 👎 on each comment and I'll use the feedback to improve your reviews.
src/mattext/analysis/xtal2pot.py
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pred=lambda k, q: k > q / 2 | ||
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return final_energy[0] |
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suggestion: Add guard against empty input coordinates to prevent IndexError
Consider adding a check for empty input coordinates or ensuring that final_energy is never empty before indexing.
return final_energy[0] | |
if not final_energy: | |
raise ValueError("No energy values found in final_energy") | |
return final_energy[0] |
return 4.0 * epsilon * ((sigma / r) ** 12 - (sigma / r) ** 6) | ||
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@register("rasp_potential", _GEOMETRY_POTENTIALS) |
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issue (complexity): Consider simplifying the geometric potential calculation by using direct matrix operations instead of nested attention-like mechanisms
The current implementation adds unnecessary complexity through nested attention-like operations. Here's a simpler approach that maintains RASP compatibility:
def rasp_geometric_potential(x_coords, y_coords, z_coords):
"""RASP-compatible geometric potential using simplified matrix operations."""
n = len(x_coords)
# Compute pairwise Manhattan distances directly
distances = np.zeros((n, n), dtype=np.int8)
for i in range(n):
distances[i] = (abs(x_coords[i] - x_coords) +
abs(y_coords[i] - y_coords) +
abs(z_coords[i] - z_coords))
# Map distances to energy values using vectorized operations
energy_map = np.array([8, 4, -2, -1, 0, 0]) # Energy values for bins 0-5
energies = np.where(distances < len(energy_map),
energy_map[distances],
0)
# Sum upper triangle to avoid double counting
return np.sum(np.triu(energies, k=1))
This simplification:
- Removes the artificial attention abstraction while keeping RASP compatibility
- Uses direct matrix operations instead of nested kqv functions
- Simplifies energy calculation with vectorized operations
- Maintains the same functionality and distance binning
The code is now more maintainable while preserving the required integer-based calculations for RASP compatibility.
Check out this pull request on See visual diffs & provide feedback on Jupyter Notebooks. Powered by ReviewNB |
Summary by Sourcery
New Features: