splatatlas-core / scripts /tools /generate_appE_rows.py
KCBtheone's picture
Upload folder using huggingface_hub
9affda1 verified
#!/usr/bin/env python3
# -*- coding: utf-8 -*-
"""
Generate Appendix E row-only LaTeX fragments for headline PSNR / SSIM / LPIPS.
Expected input CSV schema, long format:
method_key,scene,metric,value
3dgsmcmc,Bonsai,psnr,32.398
3dgsmcmc,Bonsai,ssim,0.9421
3dgsmcmc,Bonsai,lpips,0.0584
If multiple rows exist for the same (method_key, scene, metric), they are averaged
first. This supports multi-seed cells by taking the seed mean.
If your actual CSV is wide format or uses different column names, replace only
load_long_csv() below. Keep the aggregation / LaTeX logic unchanged.
Usage:
python tools/generate_appE_rows.py path/to/per_cell_metrics_long.csv
Outputs:
tex/appE_psnr_rows.tex
tex/appE_ssim_rows.tex
tex/appE_lpips_rows.tex
"""
from __future__ import annotations
import argparse
import csv
import math
import os
from collections import defaultdict
from typing import Dict, Iterable, List, Tuple, Optional
DEFAULT_INPUT_CSV = "outputs/phase1/per_cell_metrics_long.csv"
OUT_DIR = "tex"
MASK_METHOD_FAILURE = False
METHOD_FAILURE_CELLS = {
("erankgs", "Lego"),
}
DATASETS = {
"T&T": [
"Auditorium", "Ballroom", "Barn", "Caterpillar", "Courtroom", "Lighthouse",
"Museum", "Palace", "Playground", "Temple", "Train", "Truck",
],
"Mip-360": [
"Bicycle", "Bonsai", "Counter", "Flowers", "Garden", "Kitchen", "Room",
"Stump", "Treehill",
],
"NS": [
"Chair", "Drums", "Ficus", "Hotdog", "Lego", "Materials", "Mic", "Ship",
],
"DB": [
"DrJohnson", "Playroom",
],
}
DATASET_ORDER = ["T&T", "Mip-360", "NS", "DB"]
ALL_CANONICAL_SCENES = [scene for ds in DATASET_ORDER for scene in DATASETS[ds]]
SCENE_CANONICAL = {s.lower(): s for s in ALL_CANONICAL_SCENES}
SCENE_CANONICAL.update({
"auditorium": "Auditorium",
"ballroom": "Ballroom",
"barn": "Barn",
"caterpillar": "Caterpillar",
"courtroom": "Courtroom",
"lighthouse": "Lighthouse",
"museum": "Museum",
"palace": "Palace",
"playground": "Playground",
"temple": "Temple",
"train": "Train",
"truck": "Truck",
"bicycle": "Bicycle",
"bonsai": "Bonsai",
"counter": "Counter",
"flowers": "Flowers",
"garden": "Garden",
"kitchen": "Kitchen",
"room": "Room",
"stump": "Stump",
"treehill": "Treehill",
"chair": "Chair",
"drums": "Drums",
"ficus": "Ficus",
"hotdog": "Hotdog",
"lego": "Lego",
"materials": "Materials",
"mic": "Mic",
"ship": "Ship",
"drjohnson": "DrJohnson",
"dr_johnson": "DrJohnson",
"playroom": "Playroom",
})
CATEGORIES = [
("FREE", [
"3dgsmcmc", "absgs", "atomgs", "conegs", "ges", "ghap", "gslpm",
"lapisgs", "reactgs", "vanilla_3dgs",
]),
("GEO_REG", [
"2dgs", "gaussian_surfel", "gof", "pgsr", "scaffoldgs",
]),
("PRIM_CTRL", [
"coadaptgs", "erankgs", "gaussianpro", "minisplatting",
"opti3dgs", "steepgs",
]),
("RENDER", [
"3dgs_dr", "analyticsplatting", "lod_gs", "mipsplatting",
"pixelgs",
]),
("COMPRESS", [
"cdcgs", "hogs", "lightgaussian", "octree_gs", "trimgs",
]),
]
DISPLAY_NAMES = {
"3dgsmcmc": "3DGS-MCMC",
"absgs": "AbsGS",
"atomgs": "AtomGS",
"conegs": "ConeGS",
"ges": "GES",
"ghap": "GHAP",
"gslpm": "GSLPM",
"lapisgs": "LapisGS",
"reactgs": "ReactGS",
"vanilla_3dgs": "3DGS",
"2dgs": "2DGS",
"gaussian_surfel": "Gaussian Surfels",
"gof": "GOF",
"pgsr": "PGSR",
"scaffoldgs": "Scaffold-GS",
"coadaptgs": "CoAdaptGS",
"erankgs": "eRankGS",
"gaussianpro": "GaussianPro",
"minisplatting": "MiniSplatting",
"opti3dgs": "Opti3DGS",
"steepgs": "SteepGS",
"3dgs_dr": "3DGS-DR",
"analyticsplatting": "AnalyticSplatting",
"lod_gs": "LoD-GS",
"mipsplatting": "Mip-Splatting",
"pixelgs": "PixelGS",
"cdcgs": "CDCGS",
"hogs": "HoGS",
"lightgaussian": "LightGaussian",
"octree_gs": "Octree-GS",
"trimgs": "TrimGS",
}
METRIC_FORMATS = {
"psnr": "{:.2f}",
"ssim": "{:.4f}",
"lpips": "{:.4f}",
}
OUTPUT_FILES = {
"psnr": "appE_psnr_rows.tex",
"ssim": "appE_ssim_rows.tex",
"lpips": "appE_lpips_rows.tex",
}
def latex_escape(text: str) -> str:
replacements = {
"\\": r"\textbackslash{}",
"_": r"\_",
"&": r"\&",
"%": r"\%",
"$": r"\$",
"#": r"\#",
"{": r"\{",
"}": r"\}",
}
return "".join(replacements.get(ch, ch) for ch in text)
def canonical_scene(scene: str) -> Optional[str]:
scene = scene.strip()
return SCENE_CANONICAL.get(scene.lower())
def parse_float(value: str) -> Optional[float]:
value = value.strip()
if value == "" or value.lower() in {"nan", "none", "null", "na", "n/a", "---"}:
return None
try:
x = float(value)
except ValueError:
return None
if math.isnan(x) or math.isinf(x):
return None
return x
def mean_or_none(values: Iterable[float]) -> Optional[float]:
vals = list(values)
if not vals:
return None
return sum(vals) / len(vals)
def fmt_metric(metric: str, value: Optional[float]) -> str:
if value is None:
return "---"
return METRIC_FORMATS[metric].format(value)
def load_long_csv(path: str) -> Dict[Tuple[str, str, str], float]:
"""
Load long-format per-cell metrics and average duplicate rows.
Returns:
dict[(method_key, canonical_scene, metric)] = mean_value
TODO if your actual CSV is wide format:
Replace this function so it emits the same dictionary, e.g.
for columns method, scene, psnr, ssim, lpips:
out[(method, scene, "psnr")] = psnr_value
out[(method, scene, "ssim")] = ssim_value
out[(method, scene, "lpips")] = lpips_value
"""
buckets: Dict[Tuple[str, str, str], List[float]] = defaultdict(list)
with open(path, "r", newline="", encoding="utf-8") as f:
reader = csv.DictReader(f)
if reader.fieldnames is None:
raise ValueError(f"Input CSV has no header: {path}")
fields = set(reader.fieldnames)
method_col = "method_key" if "method_key" in fields else "method"
scene_col = "scene"
metric_col = "metric"
value_col = "value"
required = {method_col, scene_col, metric_col, value_col}
missing = required - fields
if missing:
raise ValueError(
f"Input CSV missing columns {sorted(missing)}. "
f"Expected long schema: method_key,scene,metric,value. "
f"Actual columns: {reader.fieldnames}"
)
for row in reader:
method = row[method_col].strip()
scene_raw = row[scene_col].strip()
metric = row[metric_col].strip().lower()
value = parse_float(row[value_col])
if metric not in {"psnr", "ssim", "lpips"}:
continue
if value is None:
continue
scene = canonical_scene(scene_raw)
if scene is None:
continue
if MASK_METHOD_FAILURE and (method, scene) in METHOD_FAILURE_CELLS:
continue
buckets[(method, scene, metric)].append(value)
return {key: mean_or_none(vals) for key, vals in buckets.items() if vals}
def aggregate_for_method(
cell_values: Dict[Tuple[str, str, str], float],
method: str,
metric: str,
) -> Tuple[Optional[float], Optional[float], Optional[float], Optional[float], Optional[float]]:
dataset_means: List[Optional[float]] = []
for ds in DATASET_ORDER:
vals = []
for scene in DATASETS[ds]:
v = cell_values.get((method, scene, metric))
if v is not None:
vals.append(v)
dataset_means.append(mean_or_none(vals))
overall_vals = []
for scene in ALL_CANONICAL_SCENES:
v = cell_values.get((method, scene, metric))
if v is not None:
overall_vals.append(v)
overall = mean_or_none(overall_vals)
return (*dataset_means, overall)
def render_metric_fragment(
cell_values: Dict[Tuple[str, str, str], float],
metric: str,
) -> List[str]:
lines: List[str] = []
lines.append("% AUTOGENERATED by tools/generate_appE_rows.py - DO NOT EDIT BY HAND.")
for cat_idx, (category, methods) in enumerate(CATEGORIES):
if cat_idx > 0:
lines.append(r"\midrule")
category_tex = latex_escape(category)
lines.append(rf"\multicolumn{{6}}{{@{{}}l}}{{\emph{{{category_tex}}}}} \\")
for method in methods:
display = latex_escape(DISPLAY_NAMES[method])
values = aggregate_for_method(cell_values, method, metric)
formatted = [fmt_metric(metric, v) for v in values]
lines.append(
f"{display} & {formatted[0]} & {formatted[1]} & "
f"{formatted[2]} & {formatted[3]} & {formatted[4]} \\\\"
)
return lines
def write_fragments(cell_values: Dict[Tuple[str, str, str], float]) -> None:
os.makedirs(OUT_DIR, exist_ok=True)
for metric, filename in OUTPUT_FILES.items():
path = os.path.join(OUT_DIR, filename)
lines = render_metric_fragment(cell_values, metric)
with open(path, "w", encoding="utf-8", newline="\n") as f:
f.write("\n".join(lines))
f.write("\n")
print(f"Wrote {path} ({len(lines)} lines)")
def sanity_check_methods() -> None:
flat_methods = [m for _, methods in CATEGORIES for m in methods]
if len(flat_methods) != 31:
raise ValueError(f"Expected 31 methods, got {len(flat_methods)}")
if len(set(flat_methods)) != 31:
dupes = sorted({m for m in flat_methods if flat_methods.count(m) > 1})
raise ValueError(f"Duplicate methods in inventory: {dupes}")
missing_display = [m for m in flat_methods if m not in DISPLAY_NAMES]
if missing_display:
raise ValueError(f"Missing display names: {missing_display}")
def main() -> None:
parser = argparse.ArgumentParser()
parser.add_argument(
"csv",
nargs="?",
default=DEFAULT_INPUT_CSV,
help="Input long-format CSV: method_key,scene,metric,value",
)
args = parser.parse_args()
sanity_check_methods()
cell_values = load_long_csv(args.csv)
write_fragments(cell_values)
print(
"Generated 3 fragments: 31 rows + 4 category dividers + 1 header "
"multicolumn each = 36 lines per file"
)
if __name__ == "__main__":
main()