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#!/usr/bin/env python3
"""Frozen metric-v4.4 helpers for the DISK pilot.

This final pilot revision keeps v4.3 geometry/dimension behaviour and adds
explicit semantic validity plus interpretable T/D relative-error thresholds.
"""

from __future__ import annotations

import math
from typing import Any

import numpy as np

try:
    from . import eval_geometric04 as DISK
    from . import eval_geometric043 as BASE
except ImportError:
    import eval_geometric04 as DISK
    import eval_geometric043 as BASE


canonicalize_entities = BASE.canonicalize_entities
extract_entities = BASE.extract_entities
legacy_dimension_entities = BASE.legacy_dimension_entities
representation_quality = BASE.representation_quality
score_dimension_consistency = BASE.score_dimension_consistency


def score_disk_semantics(
    predicted: dict[str, Any], target: dict[str, Any]
) -> dict[str, Any]:
    result = DISK.score_disk_semantics(predicted, target)
    if not result.get("applicable"):
        result.update(
            {
                "relative_thickness_error": None,
                "thickness_within_1pct": False,
                "thickness_within_5pct": False,
                "thickness_within_10pct": False,
            }
        )
        return result
    target_features = result.get("target_features") or {}
    circle_diameter = target_features.get("circle_diameter")
    diameter_sides = target_features.get("diameter_sides") or []
    thickness_ratios = target_features.get("thickness_ratios") or []
    diameter_consistent = bool(
        circle_diameter
        and len(diameter_sides) == 2
        and all(
            abs(float(value) / float(circle_diameter) - 1.0) <= 0.01
            for value in diameter_sides
        )
    )
    thickness_consistent = bool(
        len(thickness_ratios) == 2
        and min(thickness_ratios) > 0
        and abs(float(thickness_ratios[0]) / float(thickness_ratios[1]) - 1.0)
        <= 0.01
    )
    result["data_valid"] = bool(
        result.get("data_valid") and diameter_consistent and thickness_consistent
    )
    predicted_ratio = result.get("predicted_thickness_ratio")
    target_ratio = result.get("target_thickness_ratio")
    relative_error = (
        abs(float(predicted_ratio) / float(target_ratio) - 1.0)
        if predicted_ratio is not None and target_ratio not in (None, 0)
        else None
    )
    result.update(
        {
            "target_diameter_consistent": diameter_consistent,
            "target_thickness_consistent": thickness_consistent,
            "relative_thickness_error": (
                round(float(relative_error), 8) if relative_error is not None else None
            ),
            "thickness_within_1pct": bool(relative_error is not None and relative_error <= 0.01),
            "thickness_within_5pct": bool(relative_error is not None and relative_error <= 0.05),
            "thickness_within_10pct": bool(relative_error is not None and relative_error <= 0.10),
        }
    )
    return result


__all__ = [
    "canonicalize_entities",
    "extract_entities",
    "legacy_dimension_entities",
    "representation_quality",
    "score_dimension_consistency",
    "score_disk_semantics",
]