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2 changed files with 17 additions and 158 deletions

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@ -323,147 +323,6 @@ class Fitness:
for r, c in self._best_assignment(quality): for r, c in self._best_assignment(quality):
supply[r].type = slots[c] supply[r].type = slots[c]
# Forbidden-pairing penalty for the global collapse cost matrix: large and
# finite (Hungarian cannot take -inf) yet far below any real value, so the
# optimal matching never uses a level-mismatched pair unless it is forced.
_COLLAPSE_FORBID = -1e12
# Weight of one avoided fail (a satisfied adjacency or a passing
# size/width/proportion factor) in the collapse objective — far above the
# continuous quality span (~max area) so fail count dominates and raw
# quality only breaks ties; far below the forbid penalty so level holds.
_COLLAPSE_FAIL_W = 1e6
def collapse_global(
self,
root: Node,
adjacency: bool = True,
objective: str = "threshold",
iters: int = 6,
) -> None:
"""Finish-time GLOBAL cell->room collapse (homemaker-py-94g): relabel
every inside-room leaf across the whole building to the required room it
fits best, via one optimal assignment over the full leaf set the 9o5
per-class collapse generalised to N inside leaves <-> M required rooms.
SUPPLY = leaves whose type is an assignable programme room code; DEMAND =
every such code expanded by its required count, tagged with its required
level. Assignable codes EXCLUDE any starting c/o/s: check_space_counts
(graph.py) skips those as circulation/outside/sahn including room codes
that collide with the convention (cr1, st1, st2) so those leaves form
the circulation/structure skeleton and must not be relabelled. Surplus
leaves keep their type (genuine over-supply); unmet demand stays absent
(genuine missing room).
HARD LEVEL constraint: a leaf may only take a room whose required level
matches its storey (a -1e12 forbid penalty), so the collapse never adds a
wrong-level fail. ADJACENCY (when ``adjacency``): the objective adds a
bonus for each of a code's required adjacencies satisfied at a leaf given
the CURRENT labelling. Because geometry is fixed at finish time, each
leaf's graph neighbours are fixed and only labels move, so the problem is
a labelling relaxation: warm-started from the evolved labels, each pass is
a linear assignment over quality + adjacency-bonus computed from the
previous pass, iterated to a fixpoint (Jacobi/WFC-style). Maximising
satisfied adjacencies minimises adjacency fails.
OBJECTIVE selects the per-leaf base value: ``"quality"`` maximises the
separable continuous fit sum(usage_quality * area) collapse_superposition
uses; ``"threshold"`` maximises the COUNT of size/width/proportion factors
that PASS (>= FAIL_THRESHOLD), with continuous fit only as a tiebreak.
Continuous quality can trade one leaf just over threshold for another just
under (a fail SHUFFLE); the threshold objective optimises the fail count
directly. Under both, a satisfied adjacency and a passing factor carry the
same weight (_COLLAPSE_FAIL_W = one avoided fail), so the collapse
minimises (adjacency + size/width/proportion) fails jointly.
One-shot finish-time pass on a committed layout, not a per-eval re-type."""
prog = self._programme or {}
if not prog:
return
room_codes = {c for c in prog if c[0].lower() not in ("c", "o", "s")}
if not room_codes:
return
lvls = dom_mod.levels(root)
supply = [lf for lvl in lvls for lf in lvl.leaves() if lf.type in room_codes]
if not supply:
return
slots: list[str] = []
for code in sorted(room_codes):
slots.extend([code] * max(0, prog[code].count))
if not slots:
return
forbid = self._COLLAPSE_FORBID
fail_w = self._COLLAPSE_FAIL_W
levels_of = [dom_mod.level_of(lf) for lf in supply]
areas = [geometry.area(lf) for lf in supply]
# Base per-cell value: forbid on level mismatch, else the separable fit.
# In "threshold" mode add fail_w per passing size/width/proportion factor
# so the matching maximises passes first, continuous fit only as tiebreak.
base: list[list[float]] = []
for i, lf in enumerate(supply):
orig = lf.type
row = []
for code in slots:
req = prog[code]
if req.level is not None and req.level != levels_of[i]:
row.append(forbid)
continue
lf.type = code
qs = self.quality_size(lf)
qw = self.quality_width(lf)
qp = self.quality_proportion(lf)
val = qs * qw * qp * areas[i]
if objective == "threshold":
passes = (
(qs >= FAIL_THRESHOLD)
+ (qw >= FAIL_THRESHOLD)
+ (qp >= FAIL_THRESHOLD)
)
val += fail_w * passes
row.append(val)
lf.type = orig
base.append(row)
if not adjacency:
for r, c in self._best_assignment(base):
if base[r][c] > forbid:
supply[r].type = slots[c]
return
# Adjacency relaxation. Build the pre-merge base graph once (fixed
# geometry). A satisfied adjacency is worth fail_w — one avoided fail,
# the same unit as a passing factor — so both are minimised jointly.
from . import graph as graph_mod
graphs = graph_mod.build_graphs(root, self.conf("door_width") or 1.2)
code_adj = {code: prog[code].adjacency for code in set(slots)}
prev_labels: list[str | None] = None # type: ignore[assignment]
for _ in range(max(1, iters)):
quality = [list(row) for row in base]
for i, lf in enumerate(supply):
G = graphs[levels_of[i]]
for j, code in enumerate(slots):
if quality[i][j] <= forbid:
continue
sat = sum(
1
for ac in code_adj[code]
if graph_mod.has_adjacency(lf, ac, G)
)
quality[i][j] += fail_w * sat
assign = self._best_assignment(quality)
new_labels: list[str | None] = [lf.type for lf in supply]
for r, c in assign:
if quality[r][c] > forbid:
new_labels[r] = slots[c]
# Apply synchronously so the next pass reads the updated neighbours.
for lf, lab in zip(supply, new_labels):
lf.type = lab
if new_labels == prev_labels:
break
prev_labels = new_labels
def conf(self, key: str): def conf(self, key: str):
v = self._conf.get(key) v = self._conf.get(key)
if v is not None: if v is not None: