config(PORT06): cap SHAPE 0.0588 — SH01 resta senza SL (ricerca multi-agente: 11 famiglie di stop, 0 sopravvissute)

Crash ETH 2026-06-05: SH01 ETH −15.6% su un trade (exit solo a orizzonte, nessuna
protezione). Ricerca con harness dedicato sh01_exit_lab (cache walk-forward, engine
fill gap-aware worse(livello,open), parity esatta con explore_lab, train<=2023-11-01):
ATR intrabar/close-confirm, %, chandelier, breakeven, giveback, loser-timestop,
disaster-cap close+intrabar, swing, vol-regime — NESSUNA passa il gate (ogni stop
stretto rompe BTC, ogni stop largo non tocca la coda ETH; nei crash il fill e' al gap).
Mitigazione: peso famiglia SHAPE 11.8%->5.9% in PORT06 (FULL 6.47->6.43 DD 4.10->3.96,
OOS 8.82->8.58 DD 1.30->1.36) — la prossima coda impatta il conto per meta'.
Regression-lock test aggiornato. Diario: docs/diary/2026-06-05-sh01-sl-research.md

Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
This commit is contained in:
Adriano Dal Pastro
2026-06-05 17:56:16 +00:00
parent 6f86c644bf
commit bd6232dc00
16 changed files with 2413 additions and 3 deletions
@@ -0,0 +1,256 @@
"""SH01 EXIT policy 09 — swing_stop.
Stop STRUTTURALE sullo swing recente, fissato all'ingresso:
long : sl = min(low[i-N+1 .. i]) - pad * ATR14[i]
short: sl = max(high[i-N+1 .. i]) + pad * ATR14[i]
Specchiato per d=-1. Il livello e' congelato in open_trade (SOLO dati <= i:
low/high della finestra fino a i incluso, ATR14[i] noto a close[i]). levels()
restituisce quel livello costante per tutta la vita del trade -> nessun dato del
bar j -> anti-look-ahead OK.
Idea: invece di uno stop a distanza fissa (ATR/%), ancora lo stop alla STRUTTURA
del prezzo (minimo/massimo dello swing recente). Un long viene stoppato solo se
rompe il supporto strutturale che lo ha generato; il pad in ATR da' un cuscinetto
sotto il livello per evitare i wick (mode intrabar) o per richiedere conferma sul
close (mode close, stile EXIT-16).
Griglia: N in {6, 12, 24} x pad in {0.0, 0.25, 0.5} x mode {intrabar, close}.
cd /opt/docker/PythagorasGoal && uv run python scripts/analysis/sh01_exit_policies/09_swing_stop.py
"""
from __future__ import annotations
import sys
sys.path.insert(0, "/opt/docker/PythagorasGoal")
from scripts.analysis.sh01_exit_lab import ( # noqa: E402
ExitPolicy, OOS_START_MS, evaluate, load_sleeves, simulate,
)
class SwingStop(ExitPolicy):
def __init__(self, n: int, pad: float, mode: str):
self.n = int(n)
self.pad = float(pad)
self.mode = str(mode)
self.name = f"swing n={n} pad={pad:.2f} {mode}"
def open_trade(self, ctx, i, d):
lo, hi = ctx["low"], ctx["high"]
atr = ctx["atr14"][i]
lo0 = max(0, i - self.n + 1)
if atr != atr or atr <= 0: # nan/0 (early bars) -> nessuno stop
return {"sl": None}
if d == 1:
swing = float(lo[lo0:i + 1].min())
sl = swing - self.pad * atr
else:
swing = float(hi[lo0:i + 1].max())
sl = swing + self.pad * atr
return {"sl": sl}
def levels(self, ctx, i, d, j, st):
return st["sl"], self.mode
def after_bar(self, ctx, i, d, j, st):
return False
# baseline numbers (exit a orizzonte puro) — dal prompt/harness
BASELINE = {
"BTC": {"train": dict(ret=127, dd=23, sharpe=2.09, worst=-5.5),
"oos": dict(ret=41, dd=8, sharpe=2.18, worst=-3.1)},
"ETH": {"train": dict(ret=-26, dd=61, sharpe=-0.16, worst=-14.9),
"oos": dict(ret=143, dd=7, sharpe=3.60, worst=-4.6)},
}
NS = [6, 12, 24]
PADS = [0.0, 0.25, 0.5]
MODES = ["intrabar", "close"]
def _row(tag, a, r):
print(f" {tag:<10s} {a}: ret={r['ret']:>+7.0f}% dd={r['dd']:>4.0f}% "
f"shrp={r['sharpe']:>5.2f} worst={r['worst']:>+5.1f}% "
f"stop={r['stop_rate']:>4.1f}% trades={r['trades']}")
def _eth_ok(et, b_eth):
return (et["sharpe"] > b_eth["sharpe"] and et["dd"] < b_eth["dd"]
and et["worst"] > b_eth["worst"])
def _btc_ok(bt, b_btc):
return (bt["sharpe"] >= 0.95 * b_btc["sharpe"]
and bt["ret"] >= 0.80 * b_btc["ret"])
def main():
sleeves = load_sleeves()
b_btc, b_eth = BASELINE["BTC"]["train"], BASELINE["ETH"]["train"]
print("=" * 78)
print("TRAIN GRID (selezione SOLO sul train, t_hi=OOS_START)")
print("=" * 78)
print(" baseline (orizzonte puro):")
evaluate(ExitPolicy(), sleeves=sleeves)
print()
# train: (mode, n, pad) -> {asset: result}
train = {}
for mode in MODES:
print(f" --- mode={mode} ---")
for n in NS:
for pad in PADS:
pol = SwingStop(n, pad, mode)
row = {}
for a in ("BTC", "ETH"):
row[a] = simulate(sleeves[a], pol, t_hi=OOS_START_MS)
train[(mode, n, pad)] = row
print(f" n={n:<2d} pad={pad:.2f}")
_row("TRAIN", "BTC", row["BTC"])
_row("TRAIN", "ETH", row["ETH"])
print()
print("=" * 78)
print("PLATEAU CHECK (train): per ogni cella, ETH(shrp up & dd down & worst up)")
print(" & BTC(shrp>=95% & ret>=80% baseline)")
print("=" * 78)
improving = []
grid_imp = {} # (mode,n,pad) -> bool
for mode in MODES:
for n in NS:
for pad in PADS:
bt, et = train[(mode, n, pad)]["BTC"], train[(mode, n, pad)]["ETH"]
ok = _eth_ok(et, b_eth) and _btc_ok(bt, b_btc)
grid_imp[(mode, n, pad)] = ok
if ok:
improving.append((mode, n, pad))
print(f" {mode:<8s} n={n:<2d} pad={pad:.2f} "
f"ETH_ok={_eth_ok(et, b_eth)!s:<5} BTC_ok={_btc_ok(bt, b_btc)!s:<5} "
f"-> {'IMPROVING' if ok else '-'}")
print(f" improving cells (train): {len(improving)}/{len(train)} -> {improving}")
# PLATEAU = adiacenza nella griglia N x pad (stesso mode). Adiacenti = vicini
# nelle liste NS/PADS. Cerco il blocco contiguo piu' grande di celle improving.
def adjacent_block_size(mode):
cells = [(NS.index(n), PADS.index(p))
for (m, n, p) in improving if m == mode]
cells_set = set(cells)
best = []
for start in cells:
# BFS sul reticolo 4-connesso
seen, stack = set(), [start]
while stack:
cur = stack.pop()
if cur in seen:
continue
seen.add(cur)
ci, cj = cur
for di, dj in ((1, 0), (-1, 0), (0, 1), (0, -1)):
nb = (ci + di, cj + dj)
if nb in cells_set and nb not in seen:
stack.append(nb)
if len(seen) > len(best):
best = list(seen)
return best
plateau_cells = []
plateau_mode = None
for mode in MODES:
blk = adjacent_block_size(mode)
if len(blk) > len(plateau_cells):
plateau_cells = blk
plateau_mode = mode
plateau_ok = len(plateau_cells) >= 3
if plateau_mode is not None:
readable = [(plateau_mode, NS[i], PADS[j]) for (i, j) in plateau_cells]
else:
readable = []
print(f" largest adjacent improving block: {len(plateau_cells)} cells "
f"mode={plateau_mode} -> {readable} (plateau={'YES' if plateau_ok else 'NO'})")
# scelta: centro del plateau (miglior ETH sharpe fra le celle del blocco),
# altrimenti miglior ETH sharpe fra gli improving.
chosen = None
if plateau_ok:
chosen = max(readable, key=lambda c: train[c]["ETH"]["sharpe"])
elif improving:
chosen = max(improving, key=lambda c: train[c]["ETH"]["sharpe"])
print()
print("=" * 78)
if chosen is None:
print("NESSUNA cella migliorativa sul train -> verdetto NO (niente OOS).")
print("=" * 78)
return {"chosen": None, "plateau": readable, "improving": improving,
"passes": False}
print(f"CHOSEN {chosen} -> OOS (config + vicine), guardato UNA volta")
print("=" * 78)
mode, n, pad = chosen
# vicine: stesso mode, pad +-1 step e n +-1 step (se esistono e improving o no)
ni, pi = NS.index(n), PADS.index(pad)
neigh = set([chosen])
for di, dj in ((0, 0), (1, 0), (-1, 0), (0, 1), (0, -1)):
a, b = ni + di, pi + dj
if 0 <= a < len(NS) and 0 <= b < len(PADS):
neigh.add((mode, NS[a], PADS[b]))
oos = {}
for c in sorted(neigh, key=lambda c: (c[1], c[2])):
m, nn, pp = c
pol = SwingStop(nn, pp, m)
row = {}
for a in ("BTC", "ETH"):
row[a] = {"train": train[c][a],
"oos": simulate(sleeves[a], pol, t_lo=OOS_START_MS)}
oos[c] = row
print(f" {m} n={nn} pad={pp:.2f}")
_row("TRAIN", "BTC", row["BTC"]["train"])
_row("OOS", "BTC", row["BTC"]["oos"])
_row("TRAIN", "ETH", row["ETH"]["train"])
_row("OOS", "ETH", row["ETH"]["oos"])
print()
print("=" * 78)
print(f"GATE finale ({chosen}):")
bt_tr, et_tr = oos[chosen]["BTC"]["train"], oos[chosen]["ETH"]["train"]
bt_oo, et_oo = oos[chosen]["BTC"]["oos"], oos[chosen]["ETH"]["oos"]
Bb_o, Be_o = BASELINE["BTC"]["oos"], BASELINE["ETH"]["oos"]
a_train = _eth_ok(et_tr, b_eth)
a_oos = (et_oo["sharpe"] > Be_o["sharpe"] and et_oo["dd"] < Be_o["dd"]
and et_oo["worst"] > Be_o["worst"])
cond_a = a_train and a_oos
cond_b = _btc_ok(bt_tr, b_btc) and (bt_oo["sharpe"] >= 0.95 * Bb_o["sharpe"]
and bt_oo["ret"] >= 0.80 * Bb_o["ret"])
cond_c = et_oo["ret"] >= 0.80 * Be_o["ret"]
cond_d = plateau_ok
print(f" a) ETH sharpe up & dd down & worst up (train&oos): {cond_a}")
print(f" train: shrp {et_tr['sharpe']:.2f} vs {b_eth['sharpe']:.2f} | "
f"dd {et_tr['dd']:.0f} vs {b_eth['dd']:.0f} | "
f"worst {et_tr['worst']:.1f} vs {b_eth['worst']:.1f}")
print(f" oos: shrp {et_oo['sharpe']:.2f} vs {Be_o['sharpe']:.2f} | "
f"dd {et_oo['dd']:.0f} vs {Be_o['dd']:.0f} | "
f"worst {et_oo['worst']:.1f} vs {Be_o['worst']:.1f}")
print(f" b) BTC sharpe>=95% & ret>=80% (train&oos): {cond_b}")
print(f" train: shrp {bt_tr['sharpe']:.2f} (>={0.95*b_btc['sharpe']:.2f}) | "
f"ret {bt_tr['ret']:.0f} (>={0.80*b_btc['ret']:.0f})")
print(f" oos: shrp {bt_oo['sharpe']:.2f} (>={0.95*Bb_o['sharpe']:.2f}) | "
f"ret {bt_oo['ret']:.0f} (>={0.80*Bb_o['ret']:.0f})")
print(f" c) ETH oos ret>=80% baseline ({0.80*Be_o['ret']:.0f}): {cond_c} "
f"(ret={et_oo['ret']:.0f})")
print(f" d) plateau: {cond_d} ({len(plateau_cells)} cells)")
passes = cond_a and cond_b and cond_c and cond_d
print(f" PASSES GATE: {passes}")
print("=" * 78)
return {"chosen": chosen, "plateau": readable, "improving": improving,
"passes": passes, "oos": oos,
"conds": (cond_a, cond_b, cond_c, cond_d)}
if __name__ == "__main__":
main()