LOBench-A-share-processed / code /experiments /tbd_revision /scripts /run_representation_task_suite.py
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#!/usr/bin/env python3
"""Run reconstruction, imputation, interpolation, and trend tasks."""
from __future__ import annotations
import argparse
import copy
import csv
import json
import math
import sys
import time
from pathlib import Path
import torch
from torch import nn
ROOT = Path(__file__).resolve().parents[3]
SRC = ROOT / "experiments/adma2026_representation/src"
SCRIPT_DIR = ROOT / "experiments/tbd_revision/scripts"
for path in (SRC, SCRIPT_DIR):
if str(path) not in sys.path:
sys.path.insert(0, str(path))
from models import Classifier # noqa: E402
from train_downstream import classification_metrics, evaluate, load_npz, sample_label_budget, set_seed, train_epoch # noqa: E402
from train_representation_baselines import ( # noqa: E402
ReconstructionPretrainer,
build_method,
collect_logits,
confusion_summary,
data_path_for_stock,
lob_aware_reconstruction_loss,
lob_validity_metrics,
inverse_grouped_normalization,
make_loader,
mask_patches,
train_downstream_model,
tune_logit_bias,
)
def uses_lob_aware_loss(method: str) -> bool:
return method.endswith("_lobloss") or method.endswith("_softlobloss")
def structural_loss_enabled(method: str, structure_weight) -> bool:
if structure_weight is None:
return uses_lob_aware_loss(method)
return float(structure_weight) > 0
def effective_structure_weight(method: str, structure_weight) -> float:
if structure_weight is None:
return 2.0 if uses_lob_aware_loss(method) else 0.0
return float(structure_weight)
def lambda_tag(value: float) -> str:
return str(float(value)).replace("-", "m").replace(".", "p")
def uses_legalized_decoder(method: str) -> bool:
return method.endswith("_lobloss")
def make_plateau_scheduler(optimizer, train_cfg, mode):
if not bool(train_cfg.get("reduce_lr_on_plateau", False)):
return None
return torch.optim.lr_scheduler.ReduceLROnPlateau(
optimizer,
mode=mode,
factor=float(train_cfg.get("lr_plateau_factor", 0.5)),
patience=int(train_cfg.get("lr_plateau_patience", 5)),
threshold=float(train_cfg.get("lr_plateau_threshold", 1e-3)),
threshold_mode=str(train_cfg.get("lr_plateau_threshold_mode", "rel")),
min_lr=float(train_cfg.get("min_learning_rate", 1e-6)),
)
def materially_improved(value, reference, mode, min_delta_abs=0.0, min_delta_rel=0.0):
if not math.isfinite(reference):
return True
margin = max(float(min_delta_abs), abs(float(reference)) * float(min_delta_rel))
if mode == "min":
return value < reference - margin
if mode == "max":
return value > reference + margin
raise KeyError(mode)
def ae_loss(model, x, task):
if task == "reconstruction":
pred = model(x)
return torch.mean((pred - x) ** 2)
if task == "interpolation":
masked, mask = mask_patches(x, patch_len=10, mask_ratio=0.4)
pred = model(masked)
return torch.mean((pred[mask] - x[mask]) ** 2) if mask.any() else torch.mean((pred - x) ** 2)
raise KeyError(task)
def mask_entries(x, mask_ratio=0.2):
"""Hide individual LOB values for the benchmark imputation task."""
mask = torch.rand_like(x) < float(mask_ratio)
return x.masked_fill(mask, 0.0), mask
def task_loss(
model,
x,
task,
method,
volume_zero_threshold=None,
price_zero_threshold=None,
price_gap_margin=0.0,
structure_weight=None,
imputation_mask_ratio=0.2,
):
if task == "reconstruction":
pred = model(x)
if structural_loss_enabled(method, structure_weight):
return lob_aware_reconstruction_loss(
pred,
x,
structure_weight=effective_structure_weight(method, structure_weight),
volume_zero_threshold=volume_zero_threshold,
price_zero_threshold=price_zero_threshold,
price_gap_margin=price_gap_margin,
)
return torch.mean((pred - x) ** 2)
if task == "interpolation":
masked, mask = mask_patches(x, patch_len=10, mask_ratio=0.4)
pred = model(masked)
if structural_loss_enabled(method, structure_weight):
return lob_aware_reconstruction_loss(
pred,
x,
mask=mask,
structure_weight=effective_structure_weight(method, structure_weight),
volume_zero_threshold=volume_zero_threshold,
price_zero_threshold=price_zero_threshold,
price_gap_margin=price_gap_margin,
)
return torch.mean((pred[mask] - x[mask]) ** 2) if mask.any() else torch.mean((pred - x) ** 2)
if task == "imputation":
masked, mask = mask_entries(x, mask_ratio=imputation_mask_ratio)
pred = model(masked)
completed = torch.where(mask, pred, x)
if structural_loss_enabled(method, structure_weight):
return lob_aware_reconstruction_loss(
completed,
x,
mask=mask,
structure_weight=effective_structure_weight(method, structure_weight),
volume_zero_threshold=volume_zero_threshold,
price_zero_threshold=price_zero_threshold,
price_gap_margin=price_gap_margin,
)
return torch.mean((pred[mask] - x[mask]) ** 2)
raise KeyError(task)
def eval_autoencoding(
model,
loader,
task,
method,
device,
normalization,
volume_zero_threshold,
price_zero_threshold,
price_gap_margin,
raw_price_tick_size,
structure_weight=None,
mask_seed=None,
imputation_mask_ratio=0.2,
):
devices = [device.index if device.index is not None else torch.cuda.current_device()] if device.type == "cuda" else []
with torch.random.fork_rng(devices=devices, enabled=mask_seed is not None):
if mask_seed is not None:
torch.manual_seed(int(mask_seed))
model.eval()
total_loss = 0.0
region_squared_error = 0.0
region_entries = 0
endpoint_squared_error = 0.0
endpoint_entries = 0
all_position_squared_error = 0.0
all_position_entries = 0
raw_price_absolute_error = 0.0
raw_price_entries = 0
raw_volume_absolute_error = 0.0
raw_volume_entries = 0
total_n = 0
metric_sums = {}
with torch.no_grad():
for bx, _ in loader:
bx = bx.to(device)
if task == "reconstruction":
pred = model(bx)
completed = pred
mask = torch.ones_like(bx, dtype=torch.bool)
loss = (
lob_aware_reconstruction_loss(
pred,
bx,
structure_weight=effective_structure_weight(method, structure_weight),
volume_zero_threshold=volume_zero_threshold,
price_zero_threshold=price_zero_threshold,
price_gap_margin=price_gap_margin,
)
if structural_loss_enabled(method, structure_weight)
else torch.mean((pred - bx) ** 2)
)
elif task == "interpolation":
masked, mask = mask_patches(bx, patch_len=10, mask_ratio=0.4)
pred = model(masked)
completed = pred
loss = (
lob_aware_reconstruction_loss(
pred,
bx,
mask=mask,
structure_weight=effective_structure_weight(method, structure_weight),
volume_zero_threshold=volume_zero_threshold,
price_zero_threshold=price_zero_threshold,
price_gap_margin=price_gap_margin,
)
if structural_loss_enabled(method, structure_weight)
else (torch.mean((pred[mask] - bx[mask]) ** 2) if mask.any() else torch.mean((pred - bx) ** 2))
)
elif task == "imputation":
masked, mask = mask_entries(bx, mask_ratio=imputation_mask_ratio)
pred = model(masked)
completed = torch.where(mask, pred, bx)
loss = (
lob_aware_reconstruction_loss(
completed,
bx,
mask=mask,
structure_weight=effective_structure_weight(method, structure_weight),
volume_zero_threshold=volume_zero_threshold,
price_zero_threshold=price_zero_threshold,
price_gap_margin=price_gap_margin,
)
if structural_loss_enabled(method, structure_weight)
else torch.mean((pred[mask] - bx[mask]) ** 2)
)
else:
raise KeyError(task)
region_difference = pred[mask] - bx[mask]
endpoint_pred = completed[:, -1:, :]
endpoint_target = bx[:, -1:, :]
endpoint_difference = endpoint_pred - endpoint_target
all_position_difference = completed - bx
metrics = lob_validity_metrics(
endpoint_pred,
endpoint_target,
normalization=normalization,
raw_price_tick_size=raw_price_tick_size,
)
all_position_metrics = lob_validity_metrics(
completed,
bx,
normalization=normalization,
raw_price_tick_size=raw_price_tick_size,
)
total_loss += float(loss.item()) * len(bx)
region_squared_error += float((region_difference * region_difference).sum().item())
region_entries += int(region_difference.numel())
endpoint_squared_error += float((endpoint_difference * endpoint_difference).sum().item())
endpoint_entries += int(endpoint_difference.numel())
all_position_squared_error += float((all_position_difference * all_position_difference).sum().item())
all_position_entries += int(all_position_difference.numel())
raw_pred = inverse_grouped_normalization(pred, normalization)
raw_target = inverse_grouped_normalization(bx, normalization)
raw_difference = torch.abs(raw_pred - raw_target)
price_mask = mask[:, :, :20]
volume_mask = mask[:, :, 20:40]
raw_price_absolute_error += float(raw_difference[:, :, :20][price_mask].sum().item())
raw_price_entries += int(price_mask.sum().item())
raw_volume_absolute_error += float(raw_difference[:, :, 20:40][volume_mask].sum().item())
raw_volume_entries += int(volume_mask.sum().item())
total_n += len(bx)
for key, value in metrics.items():
metric_sums[key] = metric_sums.get(key, 0.0) + value * len(bx)
for key, value in all_position_metrics.items():
prefixed = f"all_positions_{key}"
metric_sums[prefixed] = metric_sums.get(prefixed, 0.0) + value * len(bx)
return {
"loss": total_loss / max(total_n, 1),
"mse": endpoint_squared_error / max(endpoint_entries, 1),
"region_mse": region_squared_error / max(region_entries, 1),
"endpoint_mse": endpoint_squared_error / max(endpoint_entries, 1),
"all_positions_mse": all_position_squared_error / max(all_position_entries, 1),
"region_raw_price_mae": raw_price_absolute_error / max(raw_price_entries, 1),
"region_raw_volume_mae": raw_volume_absolute_error / max(raw_volume_entries, 1),
**{key: value / max(total_n, 1) for key, value in metric_sums.items()},
}
def load_normalization(processed_dir: Path, stock: str) -> dict[str, float]:
manifest_path = processed_dir / "manifest.json"
if not manifest_path.exists():
raise FileNotFoundError(
f"Raw-unit evaluation requires the processed-data manifest: {manifest_path}"
)
manifest = json.loads(manifest_path.read_text(encoding="utf-8"))
if stock in manifest and "normalization" in manifest[stock]:
normalization = manifest[stock]["normalization"]
else:
public_asset = next(
(
asset
for asset in manifest.get("assets", [])
if asset.get("alias") == stock
),
None,
)
if public_asset is None or "normalization_training_only" not in public_asset:
raise KeyError(
f"Missing normalization statistics for {stock} in {manifest_path}"
)
normalization = public_asset["normalization_training_only"]
required = {"price_mean", "price_std", "volume_mean", "volume_std"}
missing = required.difference(normalization)
if missing:
raise KeyError(f"Missing normalization fields for {stock}: {sorted(missing)}")
if float(normalization["price_std"]) <= 0 or float(normalization["volume_std"]) <= 0:
raise ValueError(f"Non-positive normalization scale for {stock}")
return {key: float(normalization[key]) for key in sorted(required)}
def train_autoencoding_task(
cfg,
stock,
method,
task,
seed,
force=False,
structure_weight=None,
):
out_dir = Path(cfg["results_dir"])
out_dir.mkdir(parents=True, exist_ok=True)
suffix = (
f"_lambda{lambda_tag(structure_weight)}"
if structure_weight is not None
else ""
)
out_file = out_dir / f"{stock}_{method}_{task}_seed{seed}{suffix}.json"
if out_file.exists() and not force:
print(f"SKIP {stock} {method} {task} seed={seed}", flush=True)
return
set_seed(seed)
train_cfg = cfg["training"]
device = torch.device(train_cfg["device"] if torch.cuda.is_available() else "cpu")
processed_dir = Path(cfg["processed_dir"])
x, y, splits = load_npz(data_path_for_stock(cfg, stock))
normalization = load_normalization(processed_dir, stock)
volume_zero_threshold = (
-normalization["volume_mean"] / normalization["volume_std"]
)
raw_price_tick_size = float(cfg.get("raw_price_tick_size", 0.01))
price_zero_threshold = (
(raw_price_tick_size - normalization["price_mean"])
/ normalization["price_std"]
)
price_gap_margin = raw_price_tick_size / normalization["price_std"]
imputation_mask_ratio = float(cfg.get("imputation_mask_ratio", 0.2))
batch_size = int(train_cfg["batch_size"])
num_workers = int(train_cfg.get("num_workers", 0))
pin_memory = device.type == "cuda"
train_loader = make_loader(x, y, splits["train"], batch_size, True, num_workers, pin_memory)
val_loader = make_loader(x, y, splits["val"], batch_size, False, num_workers, pin_memory)
test_loader = make_loader(x, y, splits["test"], batch_size, False, num_workers, pin_memory)
encoder = build_method(method, int(train_cfg["latent_dim"]), int(train_cfg.get("d_model", 96)))
model = ReconstructionPretrainer(
encoder,
d_model=int(train_cfg.get("d_model", 96)),
legalize_prices=uses_legalized_decoder(method),
).to(device)
opt = torch.optim.AdamW(model.parameters(), lr=train_cfg["learning_rate"], weight_decay=train_cfg["weight_decay"])
scheduler = make_plateau_scheduler(opt, train_cfg, "min")
best = float("inf")
patience_best = float("inf")
best_state = copy.deepcopy(model.state_dict())
best_epoch = 0
history = []
patience = int(train_cfg.get("pretrain_patience", 0))
min_delta_abs = float(train_cfg.get("pretrain_early_stopping_min_delta_abs", 0.0))
min_delta_rel = float(train_cfg.get("pretrain_early_stopping_min_delta_rel", 0.0))
eval_mask_seed = seed if bool(train_cfg.get("fixed_eval_mask", False)) else None
stale = 0
started = time.perf_counter()
for epoch in range(1, int(train_cfg["pretrain_epochs"]) + 1):
epoch_started = time.perf_counter()
model.train()
train_loss = 0.0
train_n = 0
for bx, _ in train_loader:
bx = bx.to(device)
opt.zero_grad(set_to_none=True)
loss = task_loss(
model,
bx,
task,
method,
volume_zero_threshold=volume_zero_threshold,
price_zero_threshold=price_zero_threshold,
price_gap_margin=price_gap_margin,
structure_weight=structure_weight,
imputation_mask_ratio=imputation_mask_ratio,
)
loss.backward()
opt.step()
train_loss += float(loss.item()) * len(bx)
train_n += len(bx)
train_loss /= max(train_n, 1)
val_eval = eval_autoencoding(
model,
val_loader,
task,
method,
device,
normalization,
volume_zero_threshold,
price_zero_threshold,
price_gap_margin,
raw_price_tick_size,
structure_weight,
eval_mask_seed,
imputation_mask_ratio,
)
val_loss = val_eval["loss"]
learning_rate = float(opt.param_groups[0]["lr"])
history.append(
{
"epoch": epoch,
"train_loss": train_loss,
"val_loss": val_loss,
"val_mse": val_eval["mse"],
"learning_rate": learning_rate,
**{f"val_{key}": value for key, value in val_eval.items() if key not in {"loss", "mse"}},
"epoch_seconds": time.perf_counter() - epoch_started,
}
)
if scheduler is not None:
scheduler.step(val_loss)
if bool(train_cfg.get("log_epochs", False)):
print(
f"EPOCH {stock} {method} {task} seed={seed} "
f"{epoch}/{train_cfg['pretrain_epochs']}: "
f"train_loss={train_loss:.6f} val_loss={val_loss:.6f} "
f"val_mse={val_eval['mse']:.6f} lr={learning_rate:.2e}",
flush=True,
)
if val_loss < best:
best = val_loss
best_epoch = epoch
best_state = copy.deepcopy(model.state_dict())
if materially_improved(val_loss, patience_best, "min", min_delta_abs, min_delta_rel):
patience_best = val_loss
stale = 0
else:
stale += 1
if patience and stale >= patience:
break
model.load_state_dict(best_state)
test_mask_seed = eval_mask_seed + 100_000 if eval_mask_seed is not None else None
test_eval = eval_autoencoding(
model,
test_loader,
task,
method,
device,
normalization,
volume_zero_threshold,
price_zero_threshold,
price_gap_margin,
raw_price_tick_size,
structure_weight,
test_mask_seed,
imputation_mask_ratio,
)
reconstruction_seconds = time.perf_counter() - started
downstream = None
if task == "reconstruction" and bool(
cfg.get("downstream_after_reconstruction", False)
):
label_budget = float(cfg.get("label_budget", 0.5))
downstream_train_idx = sample_label_budget(
y,
splits["train"],
label_budget,
seed,
)
# Reset all RNGs so MSE and soft-penalty arms receive the same head,
# minibatch ordering, and downstream stochastic state.
set_seed(seed)
downstream = train_downstream_model(
copy.deepcopy(model.encoder),
x,
y,
splits,
downstream_train_idx,
train_cfg,
"fine_tune",
device,
)
result = {
"stock": stock,
"method": method,
"task": task,
"seed": seed,
"structure_weight": effective_structure_weight(method, structure_weight),
"raw_price_tick_size": raw_price_tick_size,
"normalization": normalization,
"normalized_raw_volume_zero": volume_zero_threshold,
"normalized_raw_price_floor": price_zero_threshold,
"normalized_one_tick_gap": price_gap_margin,
"imputation_mask_ratio": imputation_mask_ratio if task == "imputation" else None,
"best_epoch": best_epoch,
"best_val_loss": best,
"stopped_epoch": len(history),
"stopped_early": len(history) < int(train_cfg["pretrain_epochs"]),
"test_loss": test_eval["loss"],
"test_mse": test_eval["mse"],
"test_lob_metrics": {key: value for key, value in test_eval.items() if key not in {"loss", "mse"}},
"seconds": reconstruction_seconds,
"total_seconds": time.perf_counter() - started,
"downstream_after_reconstruction": downstream,
"downstream_protocol": {
"enabled": downstream is not None,
"setting": "fine_tune" if downstream is not None else None,
"label_budget": float(cfg.get("label_budget", 0.5))
if downstream is not None
else None,
"paired_seed_reset": downstream is not None,
"logits": "raw" if downstream is not None else None,
},
"history": history,
}
out_file.write_text(json.dumps(result, indent=2), encoding="utf-8")
print(f"DONE {stock} {method} {task}: test_loss={result['test_loss']:.6f}", flush=True)
def train_trend_task(cfg, stock, method, seed, label_budget, force=False):
out_dir = Path(cfg["results_dir"])
out_dir.mkdir(parents=True, exist_ok=True)
out_file = out_dir / f"{stock}_{method}_trend_seed{seed}_budget{int(round(label_budget * 100)):03d}.json"
if out_file.exists() and not force:
print(f"SKIP {stock} {method} trend seed={seed}", flush=True)
return
set_seed(seed)
train_cfg = cfg["training"]
device = torch.device(train_cfg["device"] if torch.cuda.is_available() else "cpu")
x, y, splits = load_npz(data_path_for_stock(cfg, stock))
train_idx = sample_label_budget(y, splits["train"], label_budget, seed)
batch_size = int(train_cfg["batch_size"])
num_workers = int(train_cfg.get("num_workers", 0))
pin_memory = device.type == "cuda"
train_loader = make_loader(x, y, train_idx, batch_size, True, num_workers, pin_memory)
val_loader = make_loader(x, y, splits["val"], batch_size, False, num_workers, pin_memory)
test_loader = make_loader(x, y, splits["test"], batch_size, False, num_workers, pin_memory)
encoder = build_method(method, int(train_cfg["latent_dim"]), int(train_cfg.get("d_model", 96)))
model = Classifier(encoder, latent_dim=int(train_cfg["latent_dim"])).to(device)
opt = torch.optim.AdamW(model.parameters(), lr=train_cfg["learning_rate"], weight_decay=train_cfg["weight_decay"])
scheduler = make_plateau_scheduler(opt, train_cfg, "max")
criterion = nn.CrossEntropyLoss()
best_f1 = -1.0
patience_best_f1 = float("-inf")
best_epoch = 0
best_state = copy.deepcopy(model.state_dict())
stale = 0
patience = int(train_cfg.get("downstream_patience", 0))
min_delta_abs = float(train_cfg.get("downstream_early_stopping_min_delta_abs", 0.0))
min_delta_rel = float(train_cfg.get("downstream_early_stopping_min_delta_rel", 0.0))
history = []
started = time.perf_counter()
for epoch in range(1, int(train_cfg["downstream_epochs"]) + 1):
epoch_started = time.perf_counter()
loss = train_epoch(model, train_loader, opt, device, criterion)
val = evaluate(model, val_loader, device)
learning_rate = float(opt.param_groups[0]["lr"])
history.append(
{
"epoch": epoch,
"loss": loss,
"learning_rate": learning_rate,
"epoch_seconds": time.perf_counter() - epoch_started,
**{f"val_{k}": v for k, v in val.items()},
}
)
if scheduler is not None:
scheduler.step(val["macro_f1"])
if bool(train_cfg.get("log_epochs", False)):
print(
f"EPOCH {stock} {method} trend seed={seed} "
f"{epoch}/{train_cfg['downstream_epochs']}: "
f"train_loss={loss:.6f} val_macro_f1={val['macro_f1']:.6f} "
f"lr={learning_rate:.2e}",
flush=True,
)
if val["macro_f1"] > best_f1:
best_f1 = val["macro_f1"]
best_epoch = epoch
best_state = copy.deepcopy(model.state_dict())
if materially_improved(
val["macro_f1"],
patience_best_f1,
"max",
min_delta_abs,
min_delta_rel,
):
patience_best_f1 = val["macro_f1"]
stale = 0
else:
stale += 1
if patience and stale >= patience:
break
model.load_state_dict(best_state)
val_logits, val_true = collect_logits(model, val_loader, device)
test_logits, test_true = collect_logits(model, test_loader, device)
raw_val = classification_metrics(val_logits, val_true)
raw_test = classification_metrics(test_logits, test_true)
val_metrics = raw_val
test_metrics = raw_test
val_confusion = confusion_summary(val_logits, val_true)
test_confusion = confusion_summary(test_logits, test_true)
calibration = None
if bool(train_cfg.get("trend_calibration", False)):
calibration = tune_logit_bias(model, val_loader, device)
bias_tensor = torch.tensor(calibration["bias"], dtype=val_logits.dtype).view(1, -1)
val_metrics = classification_metrics(val_logits + bias_tensor, val_true)
test_metrics = classification_metrics(test_logits + bias_tensor, test_true)
val_confusion = confusion_summary(val_logits + bias_tensor, val_true)
test_confusion = confusion_summary(test_logits + bias_tensor, test_true)
result = {
"stock": stock,
"method": method,
"task": "trend",
"seed": seed,
"label_budget": label_budget,
"best_epoch": best_epoch,
"best_val_macro_f1": best_f1,
"stopped_epoch": len(history),
"stopped_early": len(history) < int(train_cfg["downstream_epochs"]),
"raw_val": raw_val,
"raw_test": raw_test,
"val": val_metrics,
"test": test_metrics,
"val_confusion": val_confusion,
"test_confusion": test_confusion,
"calibration": calibration,
"seconds": time.perf_counter() - started,
"history": history,
}
out_file.write_text(json.dumps(result, indent=2), encoding="utf-8")
print(f"DONE {stock} {method} trend: macro_f1={result['test']['macro_f1']:.4f}", flush=True)
def summarize(cfg, name):
out_dir = Path(cfg["results_dir"])
rows = []
for path in sorted(out_dir.glob("*.json")):
data = json.loads(path.read_text(encoding="utf-8"))
row = {"stock": data["stock"], "method": data["method"], "task": data["task"], "seed": data["seed"]}
if data["task"] == "trend":
row["metric"] = data["test"]["macro_f1"]
row["metric_name"] = "macro_f1"
else:
row["metric"] = data["test_loss"]
row["metric_name"] = "test_loss"
row["test_mse"] = data.get("test_mse", data["test_loss"])
for key, value in data.get("test_lob_metrics", {}).items():
row[key] = value
rows.append(row)
summary_dir = out_dir.parent / "summary"
summary_dir.mkdir(parents=True, exist_ok=True)
csv_path = summary_dir / f"{name}_task_suite.csv"
if rows:
with csv_path.open("w", newline="", encoding="utf-8") as fh:
fieldnames = []
for row in rows:
for key in row:
if key not in fieldnames:
fieldnames.append(key)
writer = csv.DictWriter(fh, fieldnames=fieldnames, extrasaction="ignore")
writer.writeheader()
writer.writerows(rows)
print(f"wrote {csv_path}", flush=True)
def parse_args():
parser = argparse.ArgumentParser()
parser.add_argument("--config", required=True)
parser.add_argument("--name", default=None)
parser.add_argument("--stocks", nargs="+")
parser.add_argument("--methods", nargs="+")
parser.add_argument("--tasks", nargs="+")
parser.add_argument("--seeds", nargs="+", type=int)
parser.add_argument("--label-budget", type=float, default=None)
parser.add_argument("--force", action="store_true")
parser.add_argument("--summarize-only", action="store_true")
return parser.parse_args()
def main():
args = parse_args()
cfg = json.loads(Path(args.config).read_text(encoding="utf-8"))
name = args.name or Path(args.config).stem
if args.summarize_only:
summarize(cfg, name)
return
stocks = args.stocks or cfg["stocks"]
methods = args.methods or cfg["methods"]
tasks = args.tasks or cfg["tasks"]
seeds = args.seeds or cfg["seeds"]
label_budget = args.label_budget if args.label_budget is not None else cfg.get("label_budget", 0.5)
for stock in stocks:
for method in methods:
for seed in seeds:
for task in tasks:
if task in {"reconstruction", "interpolation", "imputation"}:
weights = cfg.get("structure_weights", [None])
for structure_weight in weights:
train_autoencoding_task(
cfg,
stock,
method,
task,
seed,
args.force,
structure_weight,
)
elif task == "trend":
train_trend_task(cfg, stock, method, seed, label_budget, args.force)
else:
raise KeyError(task)
summarize(cfg, name)
if __name__ == "__main__":
main()