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from __future__ import annotations
import math
import re
from pathlib import Path
import pandas as pd
REPO_ROOT = Path(__file__).resolve().parents[2]
EVAL_ROOT = REPO_ROOT / "Evaluation"
OUT_DIR = EVAL_ROOT / "benchmark_overall_table" / "final"
# README -> Figure Color Convention -> MODEL_COLORS
PAPER_MODEL_ORDER = [
"real",
"arf",
"bayesnet",
"ctgan",
"forestdiffusion",
"realtabformer",
"tabbyflow",
"tabddpm",
"tabdiff",
"tabpfgen",
"tabsyn",
"tvae",
]
MODEL_LABELS = {
"real": "REAL",
"arf": "ARF",
"bayesnet": "BayesNet",
"ctgan": "CTGAN",
"forestdiffusion": "ForestDiffusion",
"realtabformer": "RealTabFormer",
"tabbyflow": "TabbyFlow",
"tabddpm": "TabDDPM",
"tabdiff": "TabDiff",
"tabpfgen": "TabPFGen",
"tabsyn": "TabSyn",
"tvae": "TVAE",
}
FINAL_BASENAME = "benchmark_overall_table_real"
MODEL_ORDER_MAP = {model_id: idx for idx, model_id in enumerate(PAPER_MODEL_ORDER)}
COMPUTED_METRICS = [
{
"key": "distance_overall",
"group": "Classical Fidelity",
"title": "Dist. overall $\\uparrow$",
"direction": "higher",
"reference_value": 1.0,
"highlight_column": True,
"source_kind": "distance_dataset_export",
"source_file": "Evaluation/distance/runs/*/datasets/*/distance_summary__*.csv",
},
{
"key": "jsd_distance",
"group": "Classical Fidelity",
"title": "JSD $\\downarrow$",
"direction": "lower",
"reference_value": 0.0,
"highlight_column": False,
"source_kind": "distance_dataset_export",
"source_file": "Evaluation/distance/runs/*/datasets/*/distance_summary__*.csv",
},
{
"key": "ks_distance",
"group": "Classical Fidelity",
"title": "KS $\\downarrow$",
"direction": "lower",
"reference_value": 0.0,
"highlight_column": False,
"source_kind": "distance_dataset_export",
"source_file": "Evaluation/distance/runs/*/datasets/*/distance_summary__*.csv",
},
{
"key": "tvd_distance",
"group": "Classical Fidelity",
"title": "TVD $\\downarrow$",
"direction": "lower",
"reference_value": 0.0,
"highlight_column": False,
"source_kind": "distance_dataset_export",
"source_file": "Evaluation/distance/runs/*/datasets/*/distance_summary__*.csv",
},
{
"key": "wasserstein_distance",
"group": "Classical Fidelity",
"title": "Wasserstein $\\downarrow$",
"direction": "lower",
"reference_value": 0.0,
"highlight_column": False,
"source_kind": "distance_dataset_export",
"source_file": "Evaluation/distance/runs/*/datasets/*/distance_summary__*.csv",
},
{
"key": "query_overall",
"group": "Query-centric Families",
"title": "Query overall $\\uparrow$",
"direction": "higher",
"reference_value": 1.0,
"highlight_column": True,
"source_kind": "derived_query_overall",
"source_file": "Derived from the five query-centric family dataset-level scores in build_overall_benchmark_table.py.",
},
{
"key": "subgroup_structure",
"group": "Query-centric Families",
"title": "Subgroup $\\uparrow$",
"direction": "higher",
"reference_value": 1.0,
"highlight_column": False,
"source_kind": "query_family_dataset_export",
"source_file": "Evaluation/query_fivepart_breakdown/subgroup_breakdown/data/dataset_model_scores.csv",
},
{
"key": "conditional_dependency_structure",
"group": "Query-centric Families",
"title": "Conditional $\\uparrow$",
"direction": "higher",
"reference_value": 1.0,
"highlight_column": False,
"source_kind": "query_family_dataset_export",
"source_file": "Evaluation/query_fivepart_breakdown/conditional_breakdown/data/dataset_model_scores.csv",
},
{
"key": "tail_breakdown",
"group": "Query-centric Families",
"title": "Tail $\\uparrow$",
"direction": "higher",
"reference_value": 1.0,
"highlight_column": False,
"source_kind": "query_family_dataset_export",
"source_file": "Evaluation/query_fivepart_breakdown/tail_breakdown/data/dataset_model_scores.csv",
},
{
"key": "missingness_structure",
"group": "Query-centric Families",
"title": "Missingness $\\uparrow$",
"direction": "higher",
"reference_value": 1.0,
"highlight_column": False,
"source_kind": "query_family_dataset_export",
"source_file": "Evaluation/query_fivepart_breakdown/missingness_breakdown/data/dataset_model_scores.csv",
},
{
"key": "cardinality_structure",
"group": "Query-centric Families",
"title": "Cardinality $\\uparrow$",
"direction": "higher",
"reference_value": 1.0,
"highlight_column": False,
"source_kind": "cardinality_dataset_export",
"source_file": "Evaluation/query_fivepart_breakdown/cardinality/data/cleaned_results.csv",
},
]
PLACEHOLDER_COLUMNS = [
{
"key": "train_time",
"group": "Cost",
"title": "Train time",
"placeholder": True,
},
{
"key": "generation_time",
"group": "Cost",
"title": "Gen. time",
"placeholder": True,
},
]
DISPLAY_COLUMNS = COMPUTED_METRICS + PLACEHOLDER_COLUMNS
METRIC_SPECS = {metric["key"]: metric for metric in COMPUTED_METRICS}
DISPLAY_SPECS = {column["key"]: column for column in DISPLAY_COLUMNS}
FAMILY_KEYS = [
"subgroup_structure",
"conditional_dependency_structure",
"tail_breakdown",
"missingness_structure",
"cardinality_structure",
]
def ensure_out_dir() -> None:
OUT_DIR.mkdir(parents=True, exist_ok=True)
def dataset_prefix(dataset_id: str) -> str:
return str(dataset_id)[0] if dataset_id else ""
def dataset_sort_tuple(dataset_id: str) -> tuple[str, int, str]:
text = str(dataset_id)
match = re.match(r"([A-Za-z]+)(\d+)", text)
if match:
return match.group(1), int(match.group(2)), text
return text, 0, text
def latex_escape(text: str) -> str:
replacements = {
"\\": r"\textbackslash{}",
"&": r"\&",
"%": r"\%",
"$": r"\$",
"#": r"\#",
"_": r"\_",
"{": r"\{",
"}": r"\}",
"~": r"\textasciitilde{}",
"^": r"\textasciicircum{}",
}
escaped = text
for src, dst in replacements.items():
escaped = escaped.replace(src, dst)
return escaped
def fmt_num(value: float) -> str:
if abs(value) < 5e-4:
value = 0.0
return f"{value:.2f}"
def normalize_long_metric(
df: pd.DataFrame,
metric_key: str,
value_col: str,
source_path: str,
source_kind: str,
) -> pd.DataFrame:
subset = df.copy()
subset = subset[subset["model_id"].isin(PAPER_MODEL_ORDER)].copy()
subset["model_label"] = subset["model_id"].map(MODEL_LABELS)
subset["metric_key"] = metric_key
subset["metric_group"] = METRIC_SPECS[metric_key]["group"]
subset["metric_title"] = METRIC_SPECS[metric_key]["title"]
subset["metric_value"] = subset[value_col]
subset["source_kind"] = source_kind
subset["source_path"] = source_path
subset["row_kind"] = subset["model_id"].map(lambda model_id: "reference" if model_id == "real" else "synthetic")
return subset[
[
"dataset_id",
"dataset_prefix",
"model_id",
"model_label",
"metric_key",
"metric_group",
"metric_title",
"metric_value",
"source_kind",
"source_path",
"row_kind",
]
]
def load_distance_long() -> pd.DataFrame:
frames = []
cols = [
"dataset_id",
"model_id",
"timestamp_utc",
"jensen_shannon_distance",
"kolmogorov_smirnov_distance",
"total_variation_distance",
"wasserstein_distance",
"overall_fidelity_score",
]
for path in (EVAL_ROOT / "distance" / "runs").glob("*/*/distance_summary__*.csv"):
try:
df = pd.read_csv(path, usecols=cols, low_memory=False)
except Exception:
continue
frames.append(df)
if not frames:
raise FileNotFoundError("No distance dataset exports were found under Evaluation/distance/runs.")
df = pd.concat(frames, ignore_index=True)
df = df[df["model_id"].isin([model for model in PAPER_MODEL_ORDER if model != "real"])].copy()
df["timestamp_utc"] = pd.to_datetime(df["timestamp_utc"], errors="coerce")
df["dataset_prefix"] = df["dataset_id"].map(dataset_prefix)
df = df.sort_values(["dataset_id", "model_id", "timestamp_utc"]).drop_duplicates(
["dataset_id", "model_id"], keep="last"
)
metric_map = [
("distance_overall", "overall_fidelity_score"),
("jsd_distance", "jensen_shannon_distance"),
("ks_distance", "kolmogorov_smirnov_distance"),
("tvd_distance", "total_variation_distance"),
("wasserstein_distance", "wasserstein_distance"),
]
long_frames = []
for metric_key, value_col in metric_map:
long_frames.append(
normalize_long_metric(
df[["dataset_id", "dataset_prefix", "model_id", value_col]].rename(columns={value_col: "metric_tmp"}),
metric_key=metric_key,
value_col="metric_tmp",
source_path="distance_dataset_export_dedup_latest",
source_kind="distance_dataset_export",
)
)
return pd.concat(long_frames, ignore_index=True)
def load_family_long() -> pd.DataFrame:
frames = []
subgroup_path = EVAL_ROOT / "query_fivepart_breakdown" / "subgroup_breakdown" / "data" / "dataset_model_scores.csv"
subgroup_df = pd.read_csv(subgroup_path)
frames.append(
normalize_long_metric(
subgroup_df[["dataset_id", "dataset_prefix", "model_id", "subgroup_structure_score"]],
metric_key="subgroup_structure",
value_col="subgroup_structure_score",
source_path=str(subgroup_path.relative_to(REPO_ROOT)),
source_kind="query_family_dataset_export",
)
)
conditional_path = EVAL_ROOT / "query_fivepart_breakdown" / "conditional_breakdown" / "data" / "dataset_model_scores.csv"
conditional_df = pd.read_csv(conditional_path)
frames.append(
normalize_long_metric(
conditional_df[["dataset_id", "dataset_prefix", "model_id", "conditional_dependency_structure_score"]],
metric_key="conditional_dependency_structure",
value_col="conditional_dependency_structure_score",
source_path=str(conditional_path.relative_to(REPO_ROOT)),
source_kind="query_family_dataset_export",
)
)
tail_path = EVAL_ROOT / "query_fivepart_breakdown" / "tail_breakdown" / "data" / "dataset_model_scores.csv"
tail_df = pd.read_csv(tail_path)
frames.append(
normalize_long_metric(
tail_df[["dataset_id", "dataset_prefix", "model_id", "tail_breakdown_score"]],
metric_key="tail_breakdown",
value_col="tail_breakdown_score",
source_path=str(tail_path.relative_to(REPO_ROOT)),
source_kind="query_family_dataset_export",
)
)
missing_path = EVAL_ROOT / "query_fivepart_breakdown" / "missingness_breakdown" / "data" / "dataset_model_scores.csv"
missing_df = pd.read_csv(missing_path)
frames.append(
normalize_long_metric(
missing_df[["dataset_id", "dataset_prefix", "model_id", "missingness_structure_score"]],
metric_key="missingness_structure",
value_col="missingness_structure_score",
source_path=str(missing_path.relative_to(REPO_ROOT)),
source_kind="query_family_dataset_export",
)
)
cardinality_path = EVAL_ROOT / "query_fivepart_breakdown" / "cardinality" / "data" / "cleaned_results.csv"
cardinality_raw = pd.read_csv(
cardinality_path,
low_memory=False,
usecols=["dataset", "model", "official_cardinality_range_score"],
)
cardinality_df = (
cardinality_raw.groupby(["dataset", "model"], as_index=False)["official_cardinality_range_score"].mean()
.rename(
columns={
"dataset": "dataset_id",
"model": "model_id",
"official_cardinality_range_score": "cardinality_structure_score",
}
)
)
cardinality_df["dataset_prefix"] = cardinality_df["dataset_id"].map(dataset_prefix)
frames.append(
normalize_long_metric(
cardinality_df[["dataset_id", "dataset_prefix", "model_id", "cardinality_structure_score"]],
metric_key="cardinality_structure",
value_col="cardinality_structure_score",
source_path=str(cardinality_path.relative_to(REPO_ROOT)),
source_kind="cardinality_dataset_export",
)
)
family_long = pd.concat(frames, ignore_index=True)
return family_long[family_long["model_id"] != "real"].copy()
def derive_query_overall_long(family_long: pd.DataFrame) -> pd.DataFrame:
query_long = (
family_long[family_long["metric_key"].isin(FAMILY_KEYS)]
.groupby(["dataset_id", "dataset_prefix", "model_id", "model_label"], as_index=False)
.agg(metric_value=("metric_value", "mean"))
)
query_long["metric_key"] = "query_overall"
query_long["metric_group"] = METRIC_SPECS["query_overall"]["group"]
query_long["metric_title"] = METRIC_SPECS["query_overall"]["title"]
query_long["source_kind"] = METRIC_SPECS["query_overall"]["source_kind"]
query_long["source_path"] = "derived_query_overall"
query_long["row_kind"] = "synthetic"
return query_long[
[
"dataset_id",
"dataset_prefix",
"model_id",
"model_label",
"metric_key",
"metric_group",
"metric_title",
"metric_value",
"source_kind",
"source_path",
"row_kind",
]
]
def add_reference_rows(long_df: pd.DataFrame) -> pd.DataFrame:
frames = [long_df]
for metric in COMPUTED_METRICS:
metric_key = metric["key"]
metric_df = long_df[
(long_df["metric_key"] == metric_key) & long_df["metric_value"].notna()
].copy()
if metric_df.empty:
continue
reference_rows = (
metric_df[["dataset_id", "dataset_prefix"]]
.drop_duplicates()
.assign(
model_id="real",
model_label="REAL",
metric_key=metric_key,
metric_group=metric["group"],
metric_title=metric["title"],
metric_value=metric["reference_value"],
source_kind="real_self_reference",
source_path="real_self_reference",
row_kind="reference",
)
)
frames.append(reference_rows)
combined = pd.concat(frames, ignore_index=True)
combined["model_order"] = combined["model_id"].map(MODEL_ORDER_MAP)
return combined.sort_values(
["metric_key", "dataset_id", "model_order"],
key=lambda col: col.map(dataset_sort_tuple) if col.name == "dataset_id" else col,
).reset_index(drop=True)
def assemble_dataset_level_table() -> pd.DataFrame:
distance_long = load_distance_long()
family_long = load_family_long()
query_overall_long = derive_query_overall_long(family_long)
long_df = pd.concat([distance_long, family_long, query_overall_long], ignore_index=True)
long_df = long_df[long_df["metric_value"].notna()].copy()
long_df = add_reference_rows(long_df)
return long_df[
[
"dataset_id",
"dataset_prefix",
"model_id",
"model_label",
"metric_key",
"metric_group",
"metric_title",
"metric_value",
"source_kind",
"source_path",
"row_kind",
"model_order",
]
]
def build_model_summary(dataset_level: pd.DataFrame) -> pd.DataFrame:
grouped = (
dataset_level.groupby(
["model_id", "model_label", "row_kind", "metric_key", "metric_group", "metric_title"],
as_index=False,
)
.agg(
metric_mean=("metric_value", "mean"),
metric_std=("metric_value", "std"),
metric_count=("metric_value", "count"),
)
)
grouped.loc[grouped["metric_count"] <= 1, "metric_std"] = 0.0
wide = pd.DataFrame(
{
"model_id": PAPER_MODEL_ORDER,
"model_label": [MODEL_LABELS[model_id] for model_id in PAPER_MODEL_ORDER],
"row_kind": ["reference" if model_id == "real" else "synthetic" for model_id in PAPER_MODEL_ORDER],
"model_order": [MODEL_ORDER_MAP[model_id] for model_id in PAPER_MODEL_ORDER],
}
)
for metric in COMPUTED_METRICS:
metric_key = metric["key"]
metric_rows = grouped[grouped["metric_key"] == metric_key][
["model_id", "metric_mean", "metric_std", "metric_count"]
].rename(
columns={
"metric_mean": f"{metric_key}_mean",
"metric_std": f"{metric_key}_std",
"metric_count": f"{metric_key}_count",
}
)
wide = wide.merge(metric_rows, on="model_id", how="left")
for metric in COMPUTED_METRICS:
metric_key = metric["key"]
mean_col = f"{metric_key}_mean"
rank_col = f"{metric_key}_rank"
ascending = metric["direction"] == "lower"
wide[rank_col] = pd.NA
ranking = (
wide[(wide["row_kind"] == "synthetic") & wide[mean_col].notna()][["model_id", mean_col]]
.sort_values(mean_col, ascending=ascending)
.reset_index(drop=True)
)
for idx, row in ranking.head(3).iterrows():
wide.loc[wide["model_id"] == row["model_id"], rank_col] = idx + 1
for placeholder in PLACEHOLDER_COLUMNS:
key = placeholder["key"]
wide[f"{key}_mean"] = pd.NA
wide[f"{key}_std"] = pd.NA
wide[f"{key}_count"] = pd.NA
wide[f"{key}_rank"] = pd.NA
return wide.sort_values("model_order").reset_index(drop=True)
def render_cell_text(column_key: str, mean_value: float | None, std_value: float | None, rank: int | None) -> str:
spec = DISPLAY_SPECS[column_key]
prefix = r"\cellcolor{OverallTint} " if spec.get("highlight_column") else ""
if spec.get("placeholder"):
return prefix + ""
if pd.isna(mean_value):
return prefix + r"\textit{N/A}"
std_numeric = 0.0 if pd.isna(std_value) else float(std_value)
body = f"{fmt_num(float(mean_value))}$_{{\\pm {fmt_num(std_numeric)}}}$"
rank_value = None if pd.isna(rank) else int(rank)
if rank_value == 1:
body = rf"{{\color{{FirstPlace}}\textbf{{{body}}}}}"
elif rank_value == 2:
body = rf"{{\color{{SecondPlace}}\textbf{{{body}}}}}"
elif rank_value == 3:
body = rf"{{\color{{ThirdPlace}}\textbf{{{body}}}}}"
return prefix + body
def build_header_cells(group_name: str) -> list[dict[str, object]]:
return [column for column in DISPLAY_COLUMNS if column["group"] == group_name]
def render_latex(summary: pd.DataFrame) -> str:
row_lines = []
for _, row in summary.iterrows():
cells = [latex_escape(str(row["model_label"]))]
for column in DISPLAY_COLUMNS:
key = column["key"]
cells.append(render_cell_text(key, row.get(f"{key}_mean"), row.get(f"{key}_std"), row.get(f"{key}_rank")))
row_lines.append(" & ".join(cells) + r" \\")
classical_cols = build_header_cells("Classical Fidelity")
query_cols = build_header_cells("Query-centric Families")
cost_cols = build_header_cells("Cost")
total_cols = 1 + len(DISPLAY_COLUMNS)
tabular_spec = "@{}l " + " ".join("c" for _ in DISPLAY_COLUMNS) + "@{}"
header_cells = []
for column in DISPLAY_COLUMNS:
title = column["title"]
if column.get("highlight_column"):
header_cells.append(rf"\cellcolor{{OverallTint}} {title}")
else:
header_cells.append(title)
return rf"""\documentclass[10pt]{{article}}
\usepackage[a4paper,landscape,margin=0.60in]{{geometry}}
\usepackage[T1]{{fontenc}}
\usepackage[utf8]{{inputenc}}
\usepackage{{newtxtext,newtxmath}}
\usepackage{{booktabs}}
\usepackage[table]{{xcolor}}
\usepackage{{array}}
\usepackage{{multirow}}
\usepackage{{caption}}
\usepackage{{microtype}}
\usepackage{{graphicx}}
\captionsetup{{font=small,labelfont=bf}}
\definecolor{{FirstPlace}}{{HTML}}{{1397B8}}
\definecolor{{SecondPlace}}{{HTML}}{{7B45E5}}
\definecolor{{ThirdPlace}}{{HTML}}{{F28E2B}}
\definecolor{{OverallTint}}{{HTML}}{{F8F1DA}}
\definecolor{{RuleGray}}{{HTML}}{{C8CDD3}}
\arrayrulecolor{{RuleGray}}
\setlength{{\tabcolsep}}{{4.0pt}}
\renewcommand{{\arraystretch}}{{1.12}}
\begin{{document}}
\thispagestyle{{empty}}
\noindent{{\small\textit{{Conference-style benchmark summary for the evaluation section}}}}\\[-0.15em]
\noindent\color{{RuleGray}}\rule{{\textwidth}}{{0.5pt}}
\begin{{table}}[ht]
\centering
\caption{{Benchmark-wide summary of the frozen paper-facing model set specified in the README figure convention: 11 synthetic generators plus the \texttt{{REAL}} reference row. We report mean $\pm$ std across covered datasets using the current materialized evaluation exports. Lower is better for the four raw classical distance columns; higher is better for the two overall columns and the five query-centric family scores. The {{\color{{FirstPlace}} First}}, {{\color{{SecondPlace}} Second}}, and {{\color{{ThirdPlace}} Third}} best synthetic-model values in each column are highlighted with the same colors used in the table.}}
\label{{tab:benchmark_overall_real}}
\footnotesize
\resizebox{{\textwidth}}{{!}}{{%
\begin{{tabular}}{{{tabular_spec}}}
\toprule
\multirow{{2}}{{*}}{{\textbf{{Generator}}}} & \multicolumn{{{len(classical_cols)}}}{{c}}{{\textbf{{Classical Fidelity}}}} & \multicolumn{{{len(query_cols)}}}{{c}}{{\textbf{{Query-centric Families}}}} & \multicolumn{{{len(cost_cols)}}}{{c}}{{\textbf{{Cost}}}} \\
\cmidrule(lr){{2-{1 + len(classical_cols)}}}
\cmidrule(lr){{{2 + len(classical_cols)}-{1 + len(classical_cols) + len(query_cols)}}}
\cmidrule(lr){{{2 + len(classical_cols) + len(query_cols)}-{total_cols}}}
& {" & ".join(header_cells)} \\
\midrule
{chr(10).join(row_lines)}
\bottomrule
\end{{tabular}}%
}}
\vspace{{0.45em}}
\begin{{minipage}}{{0.95\linewidth}}
\small
\textit{{Note.}} The \texttt{{REAL}} row is a self-comparison reference row. For raw distance columns it is fixed to 0.00; for \texttt{{Dist. overall}}, \texttt{{Query overall}}, and the five family-score columns it is fixed to 1.00. The cost columns are intentionally left blank as placeholders for the training-time and generation-time statistics that will be added next.
\end{{minipage}}
\end{{table}}
\end{{document}}
"""
def build_source_manifest() -> pd.DataFrame:
rows = []
for metric in COMPUTED_METRICS:
rows.append(
{
"metric_key": metric["key"],
"metric_group": metric["group"],
"metric_title": metric["title"],
"source_kind": metric["source_kind"],
"source_file": metric["source_file"],
}
)
for placeholder in PLACEHOLDER_COLUMNS:
rows.append(
{
"metric_key": placeholder["key"],
"metric_group": placeholder["group"],
"metric_title": placeholder["title"],
"source_kind": "placeholder",
"source_file": "Reserved placeholder column; real values will be added later.",
}
)
rows.append(
{
"metric_key": "real_reference_rows",
"metric_group": "Reference",
"metric_title": "REAL self-comparison rows",
"source_kind": "derived_reference",
"source_file": "Generated in build_overall_benchmark_table.py from the applicable dataset coverage of each metric.",
}
)
return pd.DataFrame(rows)
def write_outputs(dataset_level: pd.DataFrame, summary: pd.DataFrame) -> None:
ensure_out_dir()
dataset_csv_path = OUT_DIR / f"{FINAL_BASENAME}_dataset_level.csv"
summary_csv_path = OUT_DIR / f"{FINAL_BASENAME}_model_summary.csv"
sources_csv_path = OUT_DIR / f"{FINAL_BASENAME}_sources.csv"
tex_path = OUT_DIR / f"{FINAL_BASENAME}.tex"
dataset_level.to_csv(dataset_csv_path, index=False)
summary.to_csv(summary_csv_path, index=False)
build_source_manifest().to_csv(sources_csv_path, index=False)
tex_path.write_text(render_latex(summary), encoding="utf-8")
def main() -> None:
dataset_level = assemble_dataset_level_table()
summary = build_model_summary(dataset_level)
write_outputs(dataset_level, summary)
if __name__ == "__main__":
main()