CAD / CODE /evaluation /eval /eval_geometric052_rc3.py
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#!/usr/bin/env python3
"""Causally scoped v5.2-rc3 evaluator (offline acceptance candidate).
RC3 deliberately exposes two different verifier scopes:
``components`` / ``verified_reward_full_gt``
Offline, executed-DXF versus full-GT verification. Full-GT physical
geometry is retained here because an RLVR verifier is allowed to access
the reference answer.
``online_reward_prompt_masked``
The FMFS-masked view of physical/annotation supervision. Prompt physical
features are scored only when the sidecar supplies a certified mapping to
actual geometry. Missing or ambiguous mappings are ineligible; there is
no fallback to predicted DIMENSION text or to the full-GT physical score.
One positive uniform sheet scale remains an explicit legal invariance. The
metric verifies geometry and physical proportions after fitting that scale;
it does not require a particular DXF plotting scale.
This module is add-only and is not connected to GRPO. It uses the RC3 matcher
so every predicted cluster, including clusters outside the bounded role
assignment search, contributes to extra-geometry precision.
"""
from __future__ import annotations
import copy
import math
from itertools import combinations
from pathlib import Path
from typing import Any, Mapping, Sequence
import numpy as np
from scipy.optimize import linear_sum_assignment
try:
from . import eval_geometric052 as BASE
from . import eval_geometric052_rc2 as RC2
from . import view_entity_matching_v52_rc3 as MATCH
except ImportError: # direct evaluator import
import eval_geometric052 as BASE
import eval_geometric052_rc2 as RC2
import view_entity_matching_v52_rc3 as MATCH
METRIC_VERSION = "v5.2-rc3"
SCHEMA_VERSION = "edp-geometric-evaluator-v5.2-rc3"
ENGINEERING_THRESHOLDS = dict(BASE.ENGINEERING_THRESHOLDS)
PHYSICAL_SUPPORTED_SEMANTICS = BASE.PHYSICAL_SUPPORTED_SEMANTICS | {
"bounding_box_width",
"bounding_box_height",
"cut_profile_diameter",
}
MAX_DIMENSION_BINDING_FRACTION = 0.08
MAX_DIMENSION_VALUE_LOG_ERROR = math.log(1.5)
MAX_GEOMETRY_BINDING_REL_ERROR = 0.03
SEVERE_ANNOTATION_SPAM_MULTIPLIER = 3
SEVERE_ANNOTATION_SPAM_ALLOWANCE = 6
def _consume_appended_omitted_marker(context: dict[str, Any]) -> dict[str, Any]:
"""Make clear that RC3 appended, and therefore did not omit, the clusters."""
alignment = context.get("alignment")
if not isinstance(alignment, dict):
return context
original = list(alignment.get("omitted_original_indices", []))
alignment["role_assignment_omitted_original_indices"] = original
alignment["omitted_original_indices"] = []
alignment["omitted_clusters_are_appended_as_extras"] = True
return context
def _layout_component(
context: Mapping[str, Any], rows: Mapping[str, Any]
) -> dict[str, Any]:
"""Measure layout with radius/arc-parameter-invariant view anchors."""
roles = [role for role, row in rows.items() if row["present"]]
if len(roles) < 2:
return BASE._component(
None, False, "fewer_than_two_semantic_roles", matched_roles=roles
)
alignment = context["alignment"]
scale = float(alignment.get("global_scale", 1.0))
role_to_pred = alignment["role_to_pred"]
pred_views = context["pred_views"]
gt_by_role = context["gt_by_role"]
sheet_diagonal = max(float(alignment.get("sheet_diagonal", 1.0)), 1.0)
errors: list[float] = []
pair_rows: list[dict[str, Any]] = []
for first, second in combinations(roles, 2):
pred_first = pred_views[role_to_pred[first]].get("layout_anchor")
pred_second = pred_views[role_to_pred[second]].get("layout_anchor")
gt_first = gt_by_role[first].get("layout_anchor")
gt_second = gt_by_role[second].get("layout_anchor")
if any(value is None for value in (pred_first, pred_second, gt_first, gt_second)):
return BASE._component(
None,
False,
"layout_anchor_unavailable",
matched_roles=roles,
anchor_definition=MATCH.LAYOUT_ANCHOR_DEFINITION,
)
pred_vector = scale * (
np.asarray(pred_second, dtype=float) - np.asarray(pred_first, dtype=float)
)
gt_vector = np.asarray(gt_second, dtype=float) - np.asarray(gt_first, dtype=float)
error = float(np.linalg.norm(pred_vector - gt_vector) / sheet_diagonal)
errors.append(error)
pair_rows.append(
{"roles": [first, second], "vector_error_fraction": BASE._round(error)}
)
mean_error = float(np.mean(errors))
score = math.exp(-mean_error / 0.10)
return BASE._component(
score,
True,
"ok" if mean_error <= 0.02 else "relative_view_layout_mismatch",
matched_roles=roles,
mean_pair_vector_error_fraction=BASE._round(mean_error),
pairs=pair_rows,
anchor_definition=MATCH.LAYOUT_ANCHOR_DEFINITION,
uniform_sheet_scale_invariant=True,
)
def _scope_contract(
sidecar: Mapping[str, Any] | None, scope: str
) -> tuple[dict[str, Any], dict[str, Any]]:
contract = BASE.EV51._scope_contracts(sidecar)
selected = contract.get(scope, {})
return contract, selected if isinstance(selected, Mapping) else {}
def _dimension_targets(
context: Mapping[str, Any],
sidecar: Mapping[str, Any] | None,
contract: Mapping[str, Any],
) -> list[dict[str, Any]]:
gt_dims = list((context.get("raw_gt") or {}).get("dims", []))
targets: list[dict[str, Any]] = []
for spec_index, raw_spec in enumerate(contract.get("specs", [])):
spec = dict(raw_spec)
try:
gt_index = int(spec["gt_dimension_index"])
except (KeyError, TypeError, ValueError):
continue
if not 0 <= gt_index < len(gt_dims):
continue
targets.append(
{
"spec_index": spec_index,
"spec": spec,
"gt_index": gt_index,
"dimension": gt_dims[gt_index],
"role": BASE._dimension_role(sidecar, gt_index),
}
)
return targets
def _dimension_pair_detail(
context: Mapping[str, Any],
pred_dim: Mapping[str, Any],
target: Mapping[str, Any],
) -> dict[str, Any]:
role = target.get("role")
transform = MATCH.role_local_transform(context, str(role)) if role else None
if transform is None:
scale = float(context["alignment"].get("global_scale", 1.0))
translation = np.asarray(
context["alignment"].get("translation", (0.0, 0.0)), dtype=float
)
else:
scale, translation = transform
sheet_diagonal = max(float(context["alignment"].get("sheet_diagonal", 1.0)), 1.0)
pred_binding = np.asarray(pred_dim.get("binding_point", (0.0, 0.0)), dtype=float)
gt_binding = np.asarray(
target["dimension"].get("binding_point", (0.0, 0.0)), dtype=float
)
distance = float(
np.linalg.norm(pred_binding * scale + translation - gt_binding) / sheet_diagonal
)
pred_family = BASE._semantic_family(pred_dim.get("family"))
target_family = BASE._semantic_family(target["spec"].get("family"))
target_value = abs(float(target["spec"]["value"]))
predicted_value, value_source = BASE._dimension_display_value(
pred_dim,
target_value=target_value,
target_dimension=target["dimension"],
global_scale=float(scale),
)
if predicted_value is None or target_value <= 1e-12:
value_log_error = math.inf
value_relative_error = None
else:
value_log_error = abs(
math.log(max(float(predicted_value), 1e-12) / target_value)
)
value_relative_error = abs(float(predicted_value) / target_value - 1.0)
family_ok = pred_family == target_family
accepted = bool(
family_ok
and distance <= MAX_DIMENSION_BINDING_FRACTION
and value_log_error <= MAX_DIMENSION_VALUE_LOG_ERROR
)
cost = (
distance
+ (2.0 if not family_ok else 0.0)
+ 0.20 * min(value_log_error, 2.0)
)
return {
"cost": cost,
"accepted": accepted,
"binding_distance_fraction": distance,
"predicted_family": pred_family,
"target_family": target_family,
"family_ok": family_ok,
"target_value": target_value,
"predicted_value": predicted_value,
"value_source": value_source,
"value_log_error": value_log_error,
"value_relative_error": value_relative_error,
"scale": float(scale),
"role": role,
}
def _annotation_component(
context: Mapping[str, Any],
sidecar: Mapping[str, Any] | None,
*,
scope: str,
) -> dict[str, Any]:
"""Score masked target quality plus precision against the total GT inventory."""
contract, selected_contract = _scope_contract(sidecar, scope)
mask = selected_contract.get("annotation_mask", [])
if not selected_contract.get("annotation_eligible"):
return BASE._component(
None,
False,
f"{scope}_annotation_mask_ineligible",
scope=scope,
contract_errors=contract.get("errors", []),
reason_codes=selected_contract.get("reason_codes", []),
)
targets = _dimension_targets(context, sidecar, contract)
selected_spec_indices = {
index for index, selected in enumerate(mask) if selected
}
selected_targets = [
target for target in targets if target["spec_index"] in selected_spec_indices
]
if not selected_targets:
return BASE._component(
None, False, "no_valid_masked_target_dimensions", scope=scope
)
pred_dims = list((context.get("raw_pred") or {}).get("dims", []))
details: dict[tuple[int, int], dict[str, Any]] = {}
pairs_by_target: dict[int, int] = {}
if pred_dims and targets:
costs = np.zeros((len(pred_dims), len(targets)), dtype=float)
for pred_index, pred_dim in enumerate(pred_dims):
for target_index, target in enumerate(targets):
detail = _dimension_pair_detail(context, pred_dim, target)
details[(pred_index, target_index)] = detail
costs[pred_index, target_index] = float(detail["cost"])
pred_rows, target_columns = linear_sum_assignment(costs)
for pred_index, target_index in zip(pred_rows, target_columns):
detail = details[(int(pred_index), int(target_index))]
if detail["accepted"]:
pairs_by_target[int(target_index)] = int(pred_index)
target_position = {target["spec_index"]: index for index, target in enumerate(targets)}
item_rows: list[dict[str, Any]] = []
item_scores: list[float] = []
presence_values: list[float] = []
type_values: list[float] = []
value_values: list[float] = []
binding_values: list[float] = []
for target in selected_targets:
position = target_position[target["spec_index"]]
pred_index = pairs_by_target.get(position)
spec = target["spec"]
if pred_index is None:
item_scores.append(0.0)
presence_values.append(0.0)
type_values.append(0.0)
value_values.append(0.0)
binding_values.append(0.0)
item_rows.append(
{
"id": spec["id"],
"gt_dimension_index": target["gt_index"],
"pred_dimension_index": None,
"role": target.get("role"),
"presence": 0.0,
"type": 0.0,
"display_value": 0.0,
"binding": 0.0,
"score": 0.0,
"reason": "missing_or_semantically_incompatible_dimension",
}
)
continue
detail = details[(pred_index, position)]
value_quality = math.exp(-float(detail["value_log_error"]) / 0.10)
binding_quality = math.exp(
-float(detail["binding_distance_fraction"]) / 0.03
)
item_score = 0.35 + 0.20 + 0.30 * value_quality + 0.15 * binding_quality
item_scores.append(item_score)
presence_values.append(1.0)
type_values.append(1.0)
value_values.append(value_quality)
binding_values.append(binding_quality)
item_rows.append(
{
"id": spec["id"],
"gt_dimension_index": target["gt_index"],
"pred_dimension_index": pred_index,
"role": target.get("role"),
"presence": 1.0,
"type": 1.0,
"display_value": BASE._round(value_quality),
"binding": BASE._round(binding_quality),
"target_display_value": BASE._round(detail["target_value"]),
"predicted_display_value": BASE._round(detail["predicted_value"]),
"display_value_source": detail["value_source"],
"display_value_relative_error": BASE._round(
detail["value_relative_error"]
),
"binding_distance_fraction": BASE._round(
detail["binding_distance_fraction"]
),
"score": BASE._round(item_score),
"reason": "ok" if item_score >= 0.90 else "annotation_field_mismatch",
}
)
target_macro = float(np.mean(item_scores))
target_worst = min(item_scores)
target_quality = 0.50 * target_macro + 0.50 * target_worst
matched_predicted = set(pairs_by_target.values())
pred_meta = context.get("pred_meta", {})
gt_meta = context.get("gt_meta", {})
pred_text = int(pred_meta.get("dimension_like_text", 0) or 0)
gt_text = int(gt_meta.get("dimension_like_text", 0) or 0)
predicted_inventory = len(pred_dims) + pred_text
matched_inventory = len(matched_predicted) + min(pred_text, gt_text)
predicted_precision = (
matched_inventory / predicted_inventory if predicted_inventory else 0.0
)
score = BASE._harmonic(target_quality, predicted_precision)
return BASE._component(
score,
True,
"ok" if score >= ENGINEERING_THRESHOLDS["annotation"] else "annotation_recall_precision_or_field_mismatch",
scope=scope,
n_selected_target=len(selected_targets),
n_total_gt_dimension_targets=len(targets),
n_predicted_native=len(pred_dims),
n_predicted_dimension_like_text=pred_text,
n_matched_predicted_native=len(matched_predicted),
n_unmatched_predicted_native=len(pred_dims) - len(matched_predicted),
predicted_precision=BASE._round(predicted_precision),
presence_recall=BASE._round(float(np.mean(presence_values))),
type_macro=BASE._round(float(np.mean(type_values))),
display_value_macro=BASE._round(float(np.mean(value_values))),
binding_macro=BASE._round(float(np.mean(binding_values))),
target_quality=BASE._round(target_quality),
item_macro=BASE._round(target_macro),
item_worst=BASE._round(target_worst),
items=item_rows,
matching_policy="one_to_one_all_gt_inventory_family_binding_value_gated",
unselected_gt_dimensions_are_precision_neutral=True,
reads_actual_geometry=False,
)
def _sidecar_dimension_item(
sidecar: Mapping[str, Any] | None, gt_index: int
) -> Mapping[str, Any] | None:
dimensions = sidecar.get("dimensions") if isinstance(sidecar, Mapping) else None
items = dimensions.get("items") if isinstance(dimensions, Mapping) else None
if isinstance(items, Sequence) and 0 <= gt_index < len(items):
item = items[gt_index]
return item if isinstance(item, Mapping) else None
return None
def _fmfs_prompt_items(
sidecar: Mapping[str, Any] | None,
) -> dict[int, Mapping[str, Any]]:
fmfs = sidecar.get("fmfs") if isinstance(sidecar, Mapping) else None
prompt = fmfs.get("prompt") if isinstance(fmfs, Mapping) else None
items = prompt.get("items") if isinstance(prompt, Mapping) else None
result: dict[int, Mapping[str, Any]] = {}
if not isinstance(items, Sequence) or isinstance(items, (str, bytes)):
return result
for item in items:
if not isinstance(item, Mapping):
continue
try:
gt_index = int(item["gt_dimension_index"])
except (KeyError, TypeError, ValueError):
continue
result[gt_index] = item
return result
def _linear_axis(item: Mapping[str, Any], target_dim: Mapping[str, Any]) -> int | None:
binding = item.get("v51_binding")
orientation = binding.get("orientation") if isinstance(binding, Mapping) else None
if orientation == "horizontal":
return 0
if orientation == "vertical":
return 1
refs = target_dim.get("ref_points", {})
if isinstance(refs, Mapping) and "defpoint2" in refs and "defpoint3" in refs:
first = np.asarray(refs["defpoint2"], dtype=float)
second = np.asarray(refs["defpoint3"], dtype=float)
delta = np.abs(second - first)
if float(np.max(delta)) > 1e-12:
return int(delta[1] > delta[0])
return None
def _map_prompt_physical_item(
context: Mapping[str, Any],
rows: Mapping[str, Any],
sidecar: Mapping[str, Any] | None,
target: Mapping[str, Any],
fmfs_item: Mapping[str, Any],
) -> tuple[dict[str, Any] | None, str | None]:
semantic = str(fmfs_item.get("semantic_type") or "")
if semantic not in PHYSICAL_SUPPORTED_SEMANTICS:
return None, f"unsupported_semantic:{semantic or 'missing'}"
if not fmfs_item.get("physical_eligible"):
return None, "fmfs_item_not_physical_eligible"
binding = fmfs_item.get("binding")
geometry_binding = binding.get("geometry") if isinstance(binding, Mapping) else None
if not isinstance(geometry_binding, Mapping) or geometry_binding.get("state") != "certified":
return None, "geometry_binding_not_certified"
role = target.get("role")
if role not in context.get("gt_by_role", {}):
return None, "semantic_view_role_unavailable"
target_view = context["gt_by_role"][role]
row = rows[role]
spec_family = BASE._semantic_family(target["spec"].get("family"))
target_dim = target["dimension"]
measurement = target_dim.get("measurement")
if not isinstance(measurement, (int, float)) or float(measurement) <= 1e-12:
return None, "target_geometry_measurement_unavailable"
if spec_family == "linear":
sidecar_item = _sidecar_dimension_item(sidecar, target["gt_index"])
axis = _linear_axis(sidecar_item or {}, target_dim)
if axis is None:
return None, "linear_axis_unavailable"
gt_size = np.asarray(target_view["size"], dtype=float)
gt_value = float(gt_size[axis])
relative = abs(float(measurement) / max(gt_value, 1e-12) - 1.0)
if relative > MAX_GEOMETRY_BINDING_REL_ERROR:
return None, "linear_dimension_not_equal_to_view_extent"
pred_index = context["alignment"].get("role_to_pred", {}).get(role)
if not isinstance(pred_index, int) or not 0 <= pred_index < len(context.get("pred_views", [])):
score = 0.0
pred_value = None
log_error = None
else:
scale = float(context["alignment"].get("global_scale", 1.0))
pred_value = float(context["pred_views"][pred_index]["size"][axis]) * scale
log_error = abs(math.log(max(pred_value, 1e-12) / gt_value))
score = math.exp(-log_error / 0.10)
return {
"id": target["spec"]["id"],
"gt_dimension_index": target["gt_index"],
"semantic": semantic,
"role": role,
"measurement": "bbox_width" if axis == 0 else "bbox_height",
"target_actual_geometry": BASE._round(gt_value),
"predicted_actual_geometry_aligned": BASE._round(pred_value),
"log_error": BASE._round(log_error),
"score": BASE._round(score),
}, None
if spec_family not in {"diameter", "radius"}:
return None, f"unsupported_dimension_family:{spec_family}"
multiplier = 2.0 if spec_family == "diameter" else 1.0
candidates: list[tuple[str, int, float]] = []
for family in ("circle", "arc"):
plural = "circles" if family == "circle" else "arcs"
for index, primitive in enumerate(target_view["entities"].get(plural, [])):
geometry_value = multiplier * abs(float(primitive[2]))
relative = abs(float(measurement) / max(geometry_value, 1e-12) - 1.0)
if relative <= MAX_GEOMETRY_BINDING_REL_ERROR:
candidates.append((family, index, geometry_value))
if len(candidates) != 1:
return None, "circular_geometry_binding_not_unique"
family, target_index, geometry_value = candidates[0]
primitive_row = row["primitive"][family]
matched_pair = next(
(
pair
for pair in primitive_row.get("pairs", [])
if int(pair.get("target_index", -1)) == target_index
),
None,
)
if matched_pair is None:
score = 0.0
log_error = None
else:
log_error = float(matched_pair.get("radius_log_error", 0.0))
score = math.exp(-log_error / 0.10)
return {
"id": target["spec"]["id"],
"gt_dimension_index": target["gt_index"],
"semantic": semantic,
"role": role,
"measurement": f"{family}_{spec_family}",
"target_actual_geometry": BASE._round(geometry_value),
"matched": matched_pair is not None,
"radius_log_error": BASE._round(log_error),
"score": BASE._round(score),
}, None
def _prompt_physical_component(
context: Mapping[str, Any],
rows: Mapping[str, Any],
sidecar: Mapping[str, Any] | None,
) -> dict[str, Any]:
contract, prompt = _scope_contract(sidecar, "prompt")
if not prompt.get("physical_eligible"):
return BASE._component(
None,
False,
"prompt_physical_mask_ineligible",
scope="prompt_masked_actual_geometry",
contract_errors=contract.get("errors", []),
reason_codes=prompt.get("reason_codes", []),
reads_prediction_dimension_text=False,
)
mask = prompt.get("physical_mask", [])
selected_indices = {index for index, selected in enumerate(mask) if selected}
targets = [
target
for target in _dimension_targets(context, sidecar, contract)
if target["spec_index"] in selected_indices
]
fmfs_items = _fmfs_prompt_items(sidecar)
mapped: list[dict[str, Any]] = []
errors: list[dict[str, Any]] = []
for target in targets:
item = fmfs_items.get(target["gt_index"])
if item is None:
errors.append(
{"gt_dimension_index": target["gt_index"], "reason": "missing_fmfs_prompt_item"}
)
continue
row, error = _map_prompt_physical_item(context, rows, sidecar, target, item)
if error:
errors.append(
{"gt_dimension_index": target["gt_index"], "reason": error}
)
elif row is not None:
mapped.append(row)
if not targets or errors or len(mapped) != len(targets):
return BASE._component(
None,
False,
"prompt_physical_actual_geometry_mapping_incomplete",
scope="prompt_masked_actual_geometry",
n_selected=len(targets),
n_mapped=len(mapped),
mapping_errors=errors,
mapped_items=mapped,
reads_prediction_dimension_text=False,
fallback_to_full_gt_physical=False,
)
qualities = [float(item["score"]) for item in mapped]
macro = float(np.mean(qualities))
worst = min(qualities)
score = 0.55 * macro + 0.45 * worst
return BASE._component(
score,
True,
"ok" if score >= ENGINEERING_THRESHOLDS["physical"] else "prompt_mapped_actual_geometry_mismatch",
scope="prompt_masked_actual_geometry",
macro=BASE._round(macro),
worst=BASE._round(worst),
items=mapped,
reads_prediction_dimension_text=False,
fallback_to_full_gt_physical=False,
uniform_sheet_scale_invariant=True,
)
def _full_gt_physical_component(
context: Mapping[str, Any],
rows: Mapping[str, Any],
sidecar: Mapping[str, Any] | None,
) -> dict[str, Any]:
component = RC2._physical_component(context, rows, sidecar)
details = component.setdefault("details", {})
details["scope"] = "offline_full_gt_actual_geometry"
details["prompt_mask_applied"] = False
details["reads_prediction_dimension_text"] = False
details["uniform_sheet_scale_invariant"] = True
details["fail_closed_for_unsupported_semantics"] = False
return component
def _structure_component(
context: Mapping[str, Any], frozen: Mapping[str, Any]
) -> dict[str, Any]:
"""Independent validity gate; ordinary geometry/layout errors do not enter."""
pred_meta = context.get("pred_meta", {})
gt_meta = context.get("gt_meta", {})
pred_counts = pred_meta.get("entity_type_counts", {})
gt_counts = gt_meta.get("entity_type_counts", {})
pred_native = int(pred_meta.get("native_dimensions", 0) or 0)
gt_native = int(gt_meta.get("native_dimensions", 0) or 0)
pred_text_total = sum(int(pred_counts.get(name, 0) or 0) for name in ("TEXT", "MTEXT"))
gt_text_total = sum(int(gt_counts.get(name, 0) or 0) for name in ("TEXT", "MTEXT"))
pred_annotation_total = pred_native + pred_text_total
gt_annotation_total = gt_native + gt_text_total
annotation_limit = max(
SEVERE_ANNOTATION_SPAM_ALLOWANCE,
gt_annotation_total + SEVERE_ANNOTATION_SPAM_ALLOWANCE,
SEVERE_ANNOTATION_SPAM_MULTIPLIER * gt_annotation_total,
)
severe_annotation_spam = pred_annotation_total > annotation_limit
unsupported = int(pred_meta.get("unsupported_geometry_like", 0) or 0)
anti_hack = frozen.get("anti_hack", {}) if isinstance(frozen, Mapping) else {}
try:
duplicate_ratio = float(
anti_hack.get("true_duplicate_dimension_ratio", 0.0) or 0.0
)
except (TypeError, ValueError):
duplicate_ratio = 0.0
alignment = context.get("alignment", {})
accounting_ok = bool(alignment.get("all_extra_clusters_accounted_for", False))
readable = bool(pred_meta.get("readable"))
nondegenerate = bool(context.get("prediction_valid"))
valid = bool(
readable
and nondegenerate
and accounting_ok
and unsupported == 0
and duplicate_ratio < 0.50
and not severe_annotation_spam
)
flags = [
name
for name, active in (
("unreadable_or_degenerate", not (readable and nondegenerate)),
("extra_cluster_accounting_incomplete", not accounting_ok),
("unsupported_geometry_like", unsupported > 0),
("true_duplicate_dimension_spam", duplicate_ratio >= 0.50),
("severe_dimension_or_text_spam", severe_annotation_spam),
)
if active
]
return BASE._component(
1.0 if valid else 0.0,
True,
"ok" if valid else "independent_validity_or_anti_hack_gate_failed",
gate_only=True,
flags=flags,
readable=readable,
nondegenerate=nondegenerate,
all_extra_clusters_accounted_for=accounting_ok,
unsupported_geometry_like=unsupported,
true_duplicate_dimension_ratio=BASE._round(duplicate_ratio),
predicted_native_dimensions=pred_native,
predicted_text_mtext=pred_text_total,
predicted_dimension_like_text=int(pred_meta.get("dimension_like_text", 0) or 0),
target_annotation_inventory=gt_annotation_total,
predicted_annotation_inventory=pred_annotation_total,
severe_annotation_spam_limit=annotation_limit,
positive_continuous_reward=False,
reads_geometry_or_layout_quality=False,
)
def _scoped_hierarchical_reward(
components: Mapping[str, Mapping[str, Any]],
atomic: Mapping[str, Any],
*,
scope: str,
) -> dict[str, Any]:
"""Renormalise absent optional stages instead of silently substituting them."""
def eligible_score(name: str) -> float | None:
row = components[name]
value = row.get("score")
if row.get("eligible") and isinstance(value, (int, float)):
return float(value)
return None
structure = eligible_score("structure")
view = eligible_score("view")
geometry = eligible_score("geometry")
if structure is None or view is None or geometry is None:
return {
"score": None,
"eligible": False,
"scope": scope,
"reason": "required_reward_stage_ineligible",
}
topology = float(atomic.get("topology_score", 0.0))
layout = eligible_score("layout")
physical = eligible_score("physical")
annotation = eligible_score("annotation")
view_topology_gate = BASE._harmonic(view, topology)
geometry_gate = BASE._harmonic(view_topology_gate, geometry)
stages: dict[str, float] = {
"view_topology": view_topology_gate
* (0.70 + 0.30 * layout if layout is not None else 1.0),
"geometry": view_topology_gate * geometry,
}
weights = {"view_topology": 0.35, "geometry": 0.30}
upstream = geometry_gate
if physical is not None:
stages["physical"] = geometry_gate * physical
weights["physical"] = 0.20
upstream = BASE._harmonic(geometry_gate, physical)
if annotation is not None:
stages["annotation"] = upstream * annotation
weights["annotation"] = 0.15
active_weight = sum(weights.values())
reward = structure * sum(weights[name] * stages[name] for name in weights) / active_weight
excluded = [
name
for name in ("layout", "physical", "annotation")
if eligible_score(name) is None
]
return {
"score": BASE._round(reward),
"eligible": True,
"scope": scope,
"reason": "ok",
"structure_gate": BASE._round(structure),
"view_topology_gate": BASE._round(view_topology_gate),
"geometry_gate": BASE._round(geometry_gate),
"stages": {name: BASE._round(value) for name, value in stages.items()},
"active_weights": {name: BASE._round(value / active_weight) for name, value in weights.items()},
"excluded_ineligible_components": excluded,
"ineligible_components_are_not_substituted": True,
}
def _benchmark(components: Mapping[str, Mapping[str, Any]]) -> dict[str, Any]:
states: dict[str, bool | None] = {}
for name, threshold in ENGINEERING_THRESHOLDS.items():
row = components[name]
value = row.get("score")
states[f"{name}_pass"] = (
bool(float(value) >= threshold)
if row.get("eligible") and isinstance(value, (int, float))
else None
)
evaluable = all(value is not None for value in states.values())
success = all(bool(value) for value in states.values()) if evaluable else None
return {
**states,
"fully_evaluable": evaluable,
"engineering_success": success,
"cad_pass": success,
"thresholds": dict(ENGINEERING_THRESHOLDS),
"scope": "offline_full_gt_executed_dxf",
"uniform_sheet_scale_invariant": True,
}
def _matching_diagnostics(context: Mapping[str, Any]) -> dict[str, Any]:
excluded = {
"raw_pred",
"raw_gt",
"canonical_pred",
"canonical_gt",
"pred_views",
"pred_views_all",
"gt_by_role",
}
return {
key: copy.deepcopy(value)
for key, value in context.items()
if key not in excluded
}
def score_dxf_pair(
pred: str | Path,
gt: str | Path,
sidecar: Mapping[str, Any] | None = None,
category: str | None = None,
**_kwargs: Any,
) -> dict[str, Any]:
"""Score one executed prediction under explicit full-GT and prompt scopes."""
frozen = BASE.EV51.score_dxf_pair(pred, gt, sidecar=sidecar, category=category)
context = _consume_appended_omitted_marker(
MATCH.build_pair_context(pred, gt, sidecar=sidecar)
)
result: dict[str, Any] = {
"schema_version": SCHEMA_VERSION,
"metric_version": METRIC_VERSION,
"category": category,
"metric_definition": {
"uniform_sheet_scale_invariant": True,
"absolute_dxf_plotting_scale_required": False,
"grpo_connected": False,
},
"anti_hack": copy.deepcopy(frozen.get("anti_hack", {})),
"diagnostics": {
"v51_frozen": {
"metric_version": frozen.get("metric_version"),
"components": copy.deepcopy(frozen.get("components", {})),
"benchmark": copy.deepcopy(frozen.get("benchmark", {})),
"anti_hack": copy.deepcopy(frozen.get("anti_hack", {})),
},
"matching": _matching_diagnostics(context),
},
}
names = ("view", "geometry", "physical", "annotation", "layout", "structure")
if not context.get("eligible"):
components = {
name: BASE._component(None, False, str(context.get("reason")))
for name in names
}
result["components"] = components
result["verified_reward_full_gt"] = {
"score": None,
"eligible": False,
"scope": "offline_full_gt_executed_dxf",
"reason": "target_ineligible",
}
result["online_reward_prompt_masked"] = {
"score": None,
"eligible": False,
"scope": "prompt_masked_actual_geometry",
"reason": "target_ineligible",
"components": components,
}
result["benchmark"] = _benchmark(components)
result["engineering_success"] = None
return result
if not context.get("prediction_valid"):
components = BASE._zero_components("prediction_dxf_unreadable_or_degenerate")
full_reward = _scoped_hierarchical_reward(
components, {"topology_score": 0.0}, scope="offline_full_gt_executed_dxf"
)
prompt_reward = _scoped_hierarchical_reward(
components, {"topology_score": 0.0}, scope="prompt_masked_actual_geometry"
)
result["components"] = components
result["verified_reward_full_gt"] = full_reward
result["online_reward_prompt_masked"] = {
**prompt_reward,
"components": components,
}
result["benchmark"] = _benchmark(components)
result["engineering_success"] = result["benchmark"]["engineering_success"]
return result
rows, curve = BASE._semantic_rows(context)
view = BASE._view_component(context, rows)
layout = _layout_component(context, rows)
geometry, atomic = BASE._geometry_component(context, rows, curve)
full_physical = _full_gt_physical_component(context, rows, sidecar)
full_annotation = _annotation_component(context, sidecar, scope="full_gt")
prompt_physical = _prompt_physical_component(context, rows, sidecar)
prompt_annotation = _annotation_component(context, sidecar, scope="prompt")
structure = _structure_component(context, frozen)
components = {
"view": view,
"geometry": geometry,
"physical": full_physical,
"annotation": full_annotation,
"layout": layout,
"structure": structure,
}
prompt_components = {
"view": copy.deepcopy(view),
"geometry": copy.deepcopy(geometry),
"physical": prompt_physical,
"annotation": prompt_annotation,
"layout": copy.deepcopy(layout),
"structure": copy.deepcopy(structure),
}
full_reward = _scoped_hierarchical_reward(
components, atomic, scope="offline_full_gt_executed_dxf"
)
prompt_reward = _scoped_hierarchical_reward(
prompt_components, atomic, scope="prompt_masked_actual_geometry"
)
benchmark = _benchmark(components)
result.update(
{
"components": components,
"verified_reward_full_gt": full_reward,
"online_reward_prompt_masked": {
**prompt_reward,
"components": prompt_components,
},
"benchmark": benchmark,
"engineering_success": benchmark["engineering_success"],
}
)
result["diagnostics"].update(
{
"semantic_views": rows,
"curve_geometry": curve,
"atomic_geometry": {
key: copy.deepcopy(value)
for key, value in atomic.items()
if key != "curve"
},
"curve_summary": atomic.get("curve"),
"release_status": {
"grpo_connected": False,
"candidate": METRIC_VERSION,
"reason": "counterfactual_and_real_generation_acceptance_required",
},
}
)
return result
__all__ = [
"ENGINEERING_THRESHOLDS",
"METRIC_VERSION",
"PHYSICAL_SUPPORTED_SEMANTICS",
"SCHEMA_VERSION",
"score_dxf_pair",
]