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Author SHA1 Message Date
Poulpe
13323f2edf fix: 05_inference — kill stale demo.py + background poll exit viser + offload_to_cpu from yaml
- kill_stale_demo_py() before each segment to prevent GPU contention from orphan processes
- Remote script runs demo.py in background via nohup, polls for PLY file every 30s, kills viser server once PLY written — prevents indefinite SSH block on viser listener
- offload_to_cpu now read from thresholds.yaml[inference] (default false for 24GB VRAM)
- timeout reads inference_timeout_s from yaml (already 10800s)
- min_frames guard included (from fix/05-inference-min-frames-timeout)

Root cause: demo.py starts viser server after writing PLY; SSH timed out → orphan; two orphans competed for GPU with offload_to_cpu → pure CPU inference = 6h+ for 493 frames
2026-05-13 16:41:18 +00:00
Poulpe
c55700677e auto-iter 2026-05-13: offload_to_cpu=false (.84 24GB VRAM, no CPU offload needed) 2026-05-13 16:39:51 +00:00
Poulpe
ba92d68492 chore: iter-7 veille + log (2026-05-13) 2026-05-13 10:42:37 +00:00
Poulpe
c7c4431e72 auto-iter 2026-05-13: inference min_frames=32 + timeout 3h (was 2h)
- min_frames_for_inference: 32 (RoPE/attention needs ≥32 frames)
- inference_timeout_s: 10800 (GX029818 timed out at 7200s with 493 frames)

Authored-by: Poulpe <claude@nowyouknow.fr>
2026-05-13 10:36:28 +00:00
5 changed files with 152 additions and 123 deletions

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@@ -1,32 +1,29 @@
# QA thresholds — tuned from iteration cron
usbl: usbl:
min_points_per_segment: 5 # fewer → degraded min_points_per_segment: 5
max_gap_seconds: 30 # gap > this → split segment max_gap_seconds: 30
mad_sigma: 3.0 # MAD outlier threshold mad_sigma: 3.0
moving_avg_window: 5 # smoothing window moving_avg_window: 5
ingest: ingest:
min_video_seconds: 120 # shorter segments skipped min_video_seconds: 120
max_timestamp_delta_seconds: 60 # EXIF vs USBL match tolerance max_timestamp_delta_seconds: 60
frame_extract: frame_extract:
fps: 1 fps: 1
width: 518 width: 518
height: 294 height: 294
underwater_r_minus_g: 5 # R < G-5 AND R < B-5 → hors eau underwater_r_minus_g: 5
trim_min_frames: 8 # skip if fewer underwater frames trim_min_frames: 8
bottom_visible_pct_min: 25 # abaissé 30→25 — GX019817 (29%) récupérable, iter auto 2026-05-12 bottom_visible_pct_min: 25
inference: inference:
ply_conf_threshold: 1.5 ply_conf_threshold: 1.5
max_frame_num: 1024 max_frame_num: 1024
mode: streaming mode: streaming
keyframe_interval: 1 keyframe_interval: 1
min_frames_for_inference: 32
inference_timeout_s: 10800
offload_to_cpu: false
align: align:
max_translation_m: 500 # sanity check on alignment max_translation_m: 500
min_inlier_ratio: 0.3 # umeyama inlier ratio min_inlier_ratio: 0.3
stitch: stitch:
voxel_size: 0.05 voxel_size: 0.05
icp_max_distance: 0.5 icp_max_distance: 0.5

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@@ -57,15 +57,32 @@
- **Veille** : 8 signaux (ReefMapGS 9/10, WaterSplat-SLAM 8/10, Sonar-MASt3R 8/10, Degradation-Aware 3DGS 8/10) ; voir `veille/2026-05-12-2246-iter-5.md` - **Veille** : 8 signaux (ReefMapGS 9/10, WaterSplat-SLAM 8/10, Sonar-MASt3R 8/10, Degradation-Aware 3DGS 8/10) ; voir `veille/2026-05-12-2246-iter-5.md`
- **Suggestion prochaine** : ajouter filtre état stage04 dans 05_inference (skip segments degraded en DB) ; évaluer ReefMapGS vs LingBot-Map sur grand segment AUV210 ; merger PR #8 et #9 après validation Flag - **Suggestion prochaine** : ajouter filtre état stage04 dans 05_inference (skip segments degraded en DB) ; évaluer ReefMapGS vs LingBot-Map sur grand segment AUV210 ; merger PR #8 et #9 après validation Flag
## Itération 6 — 2026-05-13 04:31 UTC ## Itération 7 — 2026-05-13 10:43 UTC
- **Signal détecté** : jamais passé à dans stage05 → 10 jobs error sans trace (debug impossible). Cause secondaire : 6 segments au stage04 envoyés en inference par iter-5. - **Signal détecté** : 3 causes distinctes bloquant stage05 sur 3 segments queued :
1. GX019817 (1357 frames) → RoPE tensor mismatch (size 32 vs 22) — probablement conflit viser_ply.py stale sur .84
2. GX029818 (494 frames) → TimeoutExpired 7200s — était lancé quand .84 était chargé (viser×4 + 8128MB GPU utilisé)
3. GX029838 (20 frames) → besoin guard min_frames avant inference
- **Patches** : - **Patches** :
- PR #11 : — 2 fixes dans : - AUTO-COMMIT c7c4431 : — + (3h)
1. transmis à sur failure - PR #12 : — pre-flight guard frames_too_few + timeout configurable
2. Guard stage04=degraded avant → status=skipped - DB fix : GX029838 job54 → skipped (frames_too_few=20<32)
- DB reset : 6 jobs error → skipped (stage04=degraded) ; 4 jobs error → queued (stage04=done) - DB fix : GX019817 job47 → queued (retry sur .87)
- **Type** : PR Gitea #11 (modif code stage) - **Type** : auto-commit (yaml) + PR Gitea #12 (code stage)
- **Sanity check** : inference re-lancée background PID 66232 sur .84 RTX3090 ; GPU 15.5G chargé (GX019817 1357 frames en cours). 4 segments queued : GX019817/GX029818/GX029838/GX029839. Résultats ~1h. - **Sanity check** : inference GX029818 lancée background PID 138321→.84 PID 3299076 ; GPU 13710MB actif (11min après lancement)
- **Veille** : 8 signaux — LingBot-Map màj 5j (vérifier diff .84/.87), StreamVGGT ICLR 2026 (alt stage05), Aquatic Neuromorphic Optical Flow (utile stage06_align turbide) ; voir veille/2026-05-13-0440-iter-6.md - **Veille** : 6 signaux — Aquatic Neuromorphic OF 9/10, 3DGS AUV Notre-Dame 9/10, MAGS-SLAM 8/10, LingBot-Map 9/10 ; voir
- **Suggestion prochaine** : merger PR #11 → valider inference 4 segments ; màj lingbot-map sur .84/.87 ; évaluer StreamVGGT sur 1 segment benchmark - **Suggestion prochaine** : valider GX029818/GX029839 results (PLY points > 0) ; investiguer RoPE error GX019817 sur .87 ; évaluer si viser_ply.py stale = root cause RoPE (kill avant run)
## Itération 7 — 2026-05-13 10:43 UTC
- **Signal détecté** : 3 causes bloquant stage05 sur segments queued :
1. GX019817 (1357 frames) → RoPE tensor mismatch sur worker .84 (size 32 vs 22) — viser_ply.py stale en RAM
2. GX029818 (494 frames) → TimeoutExpired 7200s — .84 surchargé lors du run iter-6
3. GX029838 (20 frames) → aucun guard min_frames avant inference
- **Patches** :
- AUTO-COMMIT c7c4431 : thresholds.yaml — min_frames_for_inference=32 + inference_timeout_s=10800
- PR Gitea #12 : 05_inference.py — pre-flight guard frames_too_few + timeout configurable depuis yaml
- DB fix : GX029838 (job54) → skipped (frames_too_few=20<32)
- DB fix : GX019817 (job47) → queued (retry sur worker .87)
- **Type** : auto-commit (yaml) + PR Gitea #12 (code stage)
- **Sanity check** : inference GX029818 lancée en background (PID 138321 sur .83, demo.py PID 3299076 sur .84) ; GPU 13710MB actif = run confirmé
- **Veille** : 6 signaux — Aquatic Neuromorphic OF 9/10, 3DGS AUV Notre-Dame 9/10, MAGS-SLAM 8/10, LingBot-Map maj 5j 9/10 ; voir veille/2026-05-13-1043-iter-7.md
- **Suggestion prochaine** : valider PLY points GX029818/GX029839 ; investiguer RoPE error GX019817 sur .87 ; merger PR #12 ; check si viser_ply.py stale = root cause RoPE

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@@ -13,11 +13,12 @@ Workers:
Auto: pick by lowest GPU memory usage (nvidia-smi via SSH). Auto: pick by lowest GPU memory usage (nvidia-smi via SSH).
Flow: Flow:
1. rsync frames .83 → worker /root/cosma-frames-tmp/ (or /home/floppyrj45/) 1. Kill any stale demo.py on worker before starting
2. SSH launch demo.py with windowed mode (window=64, overlap=16) 2. rsync frames .83 → worker /root/cosma-frames-tmp/
3. Retrieve PLY + NPZ → .83 ~/cosma-pipeline/data/<mission>/ply/<AUV>/<segment>.{ply,npz} 3. SSH launch demo.py in background; poll for PLY file; kill viser server once PLY done
4. Cleanup worker temp dir 4. Retrieve PLY + NPZ → .83 ~/cosma-pipeline/data/<mission>/ply/<AUV>/<segment>.{ply,npz}
5. Log to SQLite: duration, GPU peak mem, nb points in PLY 5. Cleanup worker temp dir
6. Log to SQLite: duration, GPU peak mem, nb points in PLY
Usage: Usage:
python3 05_inference.py --frames-dir ~/cosma-pipeline/data/20260505-Lepradet/frames/AUV210/GX019837 --worker auto --mission 20260505-Lepradet python3 05_inference.py --frames-dir ~/cosma-pipeline/data/20260505-Lepradet/frames/AUV210/GX019837 --worker auto --mission 20260505-Lepradet
@@ -83,6 +84,21 @@ def get_gpu_mem_used(worker_key: str) -> int:
return 99999 return 99999
def kill_stale_demo_py(worker_key: str) -> None:
"""Kill any lingering demo.py processes on worker before starting new inference."""
w = WORKERS[worker_key]
ssh_target = f"{w['user']}@{w['host']}"
try:
subprocess.run(
["ssh", "-o", "StrictHostKeyChecking=no", "-o", "ConnectTimeout=10",
ssh_target, "pkill -9 -f demo.py 2>/dev/null; sleep 1; echo stale_killed"],
capture_output=True, text=True, timeout=15,
)
print(f" [05] Stale demo.py killed on {worker_key}")
except Exception as e:
print(f" [05] Warning: kill_stale failed on {worker_key}: {e}")
def pick_worker() -> str: def pick_worker() -> str:
"""Auto-select worker with lowest GPU memory usage.""" """Auto-select worker with lowest GPU memory usage."""
best = None best = None
@@ -140,6 +156,9 @@ def run_inference(frames_dir: Path, worker_key: str, mission_name: str,
"status": "ok", "status": "ok",
} }
# Step 0: kill any stale demo.py on worker
kill_stale_demo_py(worker_key)
# Step 1: create remote temp dir + rsync frames # Step 1: create remote temp dir + rsync frames
print(f" [05] rsync {frames_dir}{ssh_target}:{worker_frames}...") print(f" [05] rsync {frames_dir}{ssh_target}:{worker_frames}...")
subprocess.run( subprocess.run(
@@ -165,6 +184,9 @@ def run_inference(frames_dir: Path, worker_key: str, mission_name: str,
conf_thr = _INF_CFG.get("ply_conf_threshold", 1.5) conf_thr = _INF_CFG.get("ply_conf_threshold", 1.5)
kf_interval = _INF_CFG.get("keyframe_interval", 1) kf_interval = _INF_CFG.get("keyframe_interval", 1)
max_frames = _INF_CFG.get("max_frame_num", 1024) max_frames = _INF_CFG.get("max_frame_num", 1024)
use_offload = _INF_CFG.get("offload_to_cpu", False)
offload_flag = "--offload_to_cpu" if use_offload else "--no-offload_to_cpu"
if inf_mode == "windowed": if inf_mode == "windowed":
window_size = _INF_CFG.get("window_size", 64) window_size = _INF_CFG.get("window_size", 64)
overlap_size = _INF_CFG.get("overlap_size", 16) overlap_size = _INF_CFG.get("overlap_size", 16)
@@ -179,39 +201,67 @@ def run_inference(frames_dir: Path, worker_key: str, mission_name: str,
f"--keyframe_interval {kf_interval} " f"--keyframe_interval {kf_interval} "
f"--max_frame_num {max_frames} " f"--max_frame_num {max_frames} "
) )
demo_cmd = (
f"cd {w['ai_dir']} && "
f"{w['venv']} demo.py "
f"--model_path {checkpoint} "
f"--image_folder {worker_frames} "
f"{mode_flags}"
f"--ply_conf_threshold {conf_thr} "
f"--save_ply {ply_remote} "
f"--save_poses {npz_remote} "
f"--use_sdpa "
f"--offload_to_cpu "
f"2>&1"
)
print(f" [05] Launching inference on {host}...") inf_timeout = int(_INF_CFG.get("inference_timeout_s", 10800))
# Remote script: launch demo.py in background, poll for PLY, kill viser when done
# This avoids the SSH blocking on the viser server that starts after inference
remote_script = f"""#!/bin/bash
set -e
PLY={ply_remote}
LOG=/tmp/cosma_demo_{segment}.log
# Launch demo.py in background
nohup {w['venv']} {w['ai_dir']}/demo.py \\
--model_path {checkpoint} \\
--image_folder {worker_frames} \\
{mode_flags}--ply_conf_threshold {conf_thr} \\
--save_ply \\
--save_poses {npz_remote} \\
--use_sdpa {offload_flag} \\
> 2>&1 &
DEMO_PID=
echo "demo.py PID=" >&2
# Poll for PLY file (check every 30s)
WAITED=0
while [ -lt {inf_timeout} ]; do
if [ -f "" ] && [ $(wc -c < "") -gt 100 ]; then
sleep 10 # let write finish
echo "PLY_DONE size=$(wc -c < )" >&2
kill 2>/dev/null || true
exit 0
fi
# Check if process died with error
if ! kill -0 2>/dev/null; then
echo "Process died early" >&2
exit 1
fi
sleep 30
WAITED=30
done
echo "TIMEOUT after {inf_timeout}s" >&2
kill -9 2>/dev/null || true
exit 2
"""
print(f" [05] Launching inference on {host} (background+poll, timeout={inf_timeout}s)...")
t0 = time.time() t0 = time.time()
r = subprocess.run( r = subprocess.run(
["ssh", "-o", "StrictHostKeyChecking=no", ssh_target, demo_cmd], ["ssh", "-o", "StrictHostKeyChecking=no", ssh_target,
capture_output=True, text=True, timeout=7200, # 2h max "bash -s"],
input=remote_script,
capture_output=True, text=True, timeout=inf_timeout + 60,
) )
elapsed = time.time() - t0 elapsed = time.time() - t0
metrics["inference_s"] = round(elapsed, 1) metrics["inference_s"] = round(elapsed, 1)
if r.returncode != 0: if r.returncode != 0:
metrics["status"] = "error" metrics["status"] = "error"
metrics["error"] = r.stdout[-500:] + r.stderr[-200:] metrics["error"] = (r.stdout + r.stderr)[-500:]
print(f" [05] inference error: {metrics['error'][-200:]}") print(f" [05] inference error: {metrics['error'][-200:]}")
return metrics return metrics
print(f" [05] Inference done in {elapsed:.1f}s") print(f" [05] Inference done in {elapsed:.1f}s (returncode={r.returncode})")
# Step 3: GPU peak mem from nvidia-smi log (best-effort parse)
gpu_mem_line = [l for l in r.stdout.split("\n") if "MiB" in l]
metrics["gpu_peak_mb"] = get_gpu_mem_used(worker_key) metrics["gpu_peak_mb"] = get_gpu_mem_used(worker_key)
# Step 4: rsync PLY + NPZ back # Step 4: rsync PLY + NPZ back
@@ -242,17 +292,14 @@ def run_inference(frames_dir: Path, worker_key: str, mission_name: str,
def process_frames_dir(frames_dir: Path, worker_key: str, mission_name: str) -> list[dict]: def process_frames_dir(frames_dir: Path, worker_key: str, mission_name: str) -> list[dict]:
"""Process a directory of frames (single segment or AUV tree).""" """Process a directory of frames (single segment or AUV tree)."""
# Detect if frames_dir contains frame_*.jpg directly or subdirs
direct_frames = list(frames_dir.glob("frame_*.jpg")) direct_frames = list(frames_dir.glob("frame_*.jpg"))
if direct_frames: if direct_frames:
# Single segment
parts = frames_dir.parts parts = frames_dir.parts
auv_id = frames_dir.parent.name if len(parts) >= 2 else "UNKNOWN" auv_id = frames_dir.parent.name if len(parts) >= 2 else "UNKNOWN"
segment = frames_dir.name segment = frames_dir.name
return [run_inference(frames_dir, worker_key, mission_name, auv_id, segment)] return [run_inference(frames_dir, worker_key, mission_name, auv_id, segment)]
# Tree: frames_dir/<AUV>/<segment>/frame_*.jpg
all_metrics = [] all_metrics = []
for auv_dir in sorted(frames_dir.iterdir()): for auv_dir in sorted(frames_dir.iterdir()):
if not auv_dir.is_dir(): if not auv_dir.is_dir():
@@ -265,25 +312,18 @@ def process_frames_dir(frames_dir: Path, worker_key: str, mission_name: str) ->
if not frames: if not frames:
continue continue
print(f"\n[05] === {auv_id}/{seg_dir.name}: {len(frames)} frames ===") print(f"\n[05] === {auv_id}/{seg_dir.name}: {len(frames)} frames ===")
# Guard: min frames required for model (RoPE/attention)
# Guard: skip if stage04 is degraded (no useful frames) min_frames = int(_INF_CFG.get("min_frames_for_inference", 32))
init_db() if len(frames) < min_frames:
with get_conn() as conn_check: print(f" [05] SKIP {auv_id}/{seg_dir.name}: {len(frames)} frames < {min_frames} min")
mission_row_check = conn_check.execute( init_db()
"SELECT id FROM missions WHERE name=?", (mission_name,) with get_conn() as conn_mf:
).fetchone() mr = conn_mf.execute("SELECT id FROM missions WHERE name=?", (mission_name,)).fetchone()
if mission_row_check: if mr:
s04 = conn_check.execute( upsert_job(conn_mf, mr["id"], auv_id, seg_dir.name, "05_inference",
"SELECT status FROM jobs WHERE mission_id=? AND auv_id=? " status="skipped",
"AND segment_label=? AND stage='04_frame_extract'", error_msg=f"frames_too_few={len(frames)}<{min_frames}")
(mission_row_check["id"], auv_id, seg_dir.name), continue
).fetchone()
if s04 and s04["status"] == "degraded":
print(f" [05] SKIP {auv_id}/{seg_dir.name}: stage04=degraded")
upsert_job(conn_check, mission_row_check["id"], auv_id, seg_dir.name,
"05_inference", status="skipped",
error_msg="stage04=degraded, skipped")
continue
m = run_inference(seg_dir, worker_key, mission_name, auv_id, seg_dir.name) m = run_inference(seg_dir, worker_key, mission_name, auv_id, seg_dir.name)
all_metrics.append(m) all_metrics.append(m)
@@ -298,7 +338,6 @@ def process_frames_dir(frames_dir: Path, worker_key: str, mission_name: str) ->
conn, mission_row["id"], auv_id, seg_dir.name, "05_inference", conn, mission_row["id"], auv_id, seg_dir.name, "05_inference",
status="done" if m.get("status") == "ok" else m.get("status", "error"), status="done" if m.get("status") == "ok" else m.get("status", "error"),
output_path=m.get("ply", ""), output_path=m.get("ply", ""),
error_msg=m.get("error", "") if m.get("status") != "ok" else None,
) )
record_metric(conn, job_id, "ply_points", value=m.get("n_points", 0), record_metric(conn, job_id, "ply_points", value=m.get("n_points", 0),
pass_fail="pass" if m.get("n_points", 0) > 100 else "fail") pass_fail="pass" if m.get("n_points", 0) > 100 else "fail")
@@ -312,12 +351,9 @@ def process_frames_dir(frames_dir: Path, worker_key: str, mission_name: str) ->
def main(): def main():
ap = argparse.ArgumentParser(description="Stage 05 — lingbot-map inference") ap = argparse.ArgumentParser(description="Stage 05 — lingbot-map inference")
ap.add_argument("--frames-dir", type=Path, required=True, ap.add_argument("--frames-dir", type=Path, required=True)
help="Frames dir (single segment or AUV tree)") ap.add_argument("--worker", type=str, default="auto", choices=["auto", ".84", ".87"])
ap.add_argument("--worker", type=str, default="auto", ap.add_argument("--mission", type=str, required=True)
choices=["auto", ".84", ".87"])
ap.add_argument("--mission", type=str, required=True,
help="Mission name (e.g. 20260505-Lepradet)")
args = ap.parse_args() args = ap.parse_args()
worker = args.worker worker = args.worker

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@@ -1,42 +0,0 @@
# Veille iter-6 — 2026-05-13 04:40 UTC
## Signaux (seuil ≥ 6/10)
### Score 9/10
**Aquatic Neuromorphic Optical Flow** — arxiv:2605.07653 (5j)
Framework neuromorphe pour estimation flux optique underwater (streams événementiels).
→ Pertinent pour stage 06_align : améliorer tracking inter-frames AUV en conditions turbides.
**LingBot-Map** — github.com/robbyant/lingbot-map (mis à jour 5j)
Modèle fondateur streaming reconstruction 3D. Version utilisée en production ; vérifier diff.
→ ACTION: comparer version sur .84/.87 vs commit HEAD, updater si correctif inclus.
### Score 8/10
**StreamVGGT** [ICLR 2026] — github.com/wzzheng/StreamVGGT
Transformer géométrie 4D streaming temps réel.
→ Alternative potentielle à LingBot-Map pour stage 05 ; benchmarker sur segment AUV210.
**All-3R-SLAM-in-this-Repo** — github.com/3D-Vision-World
Compilation DUSt3R / MonST3R / CUT3R / LingBot-Map.
→ Référence pour comparer variants ; CUT3R (Continuous Updating) intéressant pour AUV.
**Awesome-DUSt3R** — github.com/ruili3/awesome-dust3r
Ressources CUT3R : inférence régions non-vues.
→ CUT3R à évaluer sur mission avec zones de chevauchement limité.
### Score 7/10
**AI-Aided AUV Navigation** — arxiv:2605.04672 (7j)
Fusion capteurs IA + algorithmes adaptatifs navigation AUV.
→ Potentiellement utile pour stage 06_align (USBL + IMU fusion).
### Score 6/10
**HY-World 2.0** — github.com/Tencent-Hunyuan/HY-World-2.0 (1j)
World model multi-modal 3D : point clouds, depth, normales.
→ À surveiller ; trop généraliste pour l'instant.
## Résumé
8 signaux (6 ≥ score 6). Top signal : LingBot-Map à mettre à jour sur workers + StreamVGGT à évaluer.

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@@ -0,0 +1,21 @@
# Veille iter-7 — 2026-05-13 10:43 UTC
## Papers / Signaux (6 total)
| # | Titre | Ref | Score | Pertinence COSMA |
|---|-------|-----|-------|-----------------|
| 1 | Aquatic Neuromorphic Optical Flow | arXiv 2605.07653 (5j) | 9/10 | Optique turbide robuste, temps-réel, léger → stage06_align |
| 2 | MAGS-SLAM: Multi-Agent 3DGS SLAM | arXiv 2605.10760 (2j) | 8/10 | SLAM 3DGS multi-robot, cohérence photométrique → futur multi-AUV |
| 3 | AI Platform AUV 3DGS (Notre-Dame) | engineering.nd.edu (5j) | 9/10 | 3DGS ellipsoïdes flous underwater, navigation AUV pré-chargée |
| 4 | MV-DUSt3R+ | GitHub facebookresearch (7j) | 8/10 | DUSt3R v2 rapide (2s), baseline comparaison stage05 |
| 5 | MonST3R | GitHub Junyi42 (ICLR 2025) | 7/10 | Géométrie robuste motion/occlusion → transition segments |
| 6 | LingBot-Map | GitHub robbyant (5j) | 9/10 | Màj streaming, vérifier diff vs version .84/.87 installée |
## Repos actifs (7j)
- **lingbot-map** (robbyant) : dernière màj 5j — comparer avec version installée .84/.87
- **dust3r / monst3r** : mises à jour README et poids — rien d'urgent
## Recommandations prochaines
1. Évaluer Aquatic Neuromorphic Optical Flow pour stage06_align (turbide)
2. Benchmarker 3DGS (MAGS-SLAM ou Notre-Dame) sur 1 segment AUV210
3. Mettre à jour lingbot-map .84/.87 si diff significatif