Instructions to use XYZ9843/GOOSE-M2F with libraries, inference providers, notebooks, and local apps. Follow these links to get started.
- Libraries
- Transformers
How to use XYZ9843/GOOSE-M2F with Transformers:
# Use a pipeline as a high-level helper from transformers import pipeline pipe = pipeline("image-segmentation", model="XYZ9843/GOOSE-M2F")# Load model directly from transformers import AutoImageProcessor, Mask2FormerForUniversalSegmentation processor = AutoImageProcessor.from_pretrained("XYZ9843/GOOSE-M2F") model = Mask2FormerForUniversalSegmentation.from_pretrained("XYZ9843/GOOSE-M2F") - Notebooks
- Google Colab
- Kaggle
Update Readme.ms
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by Aditya-000 - opened
README.md
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---
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#
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This model is a task-specific adaptation of Mask2Former (Swin-Large) for the **ICRA 2026 GOOSE 2D Semantic Segmentation Challenge** in Vienna, Austria.
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- **
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1. **200 Object Queries** (expanded from 100) for high-density 64-class terrain parsing.
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2. **Feature Refinement Module (FRM):** ASPP-lite + CBAM dual attention to resolve Vegetation and Terrain over-segmentation.
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3. **Auxiliary Supervision Head:** Direct H/4 resolution supervision to bypass query bottlenecks for thin/rare objects.
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## GOOSE-M2F: Adapting Mask2Former for High-Fidelity, Long-Tailed Fine-Grained Semantic Segmentation in Unstructured Outdoor Terrain
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**Jyothiraditya Lingam, Nikhileswara Rao Sulake, Sai Manikanta Eswar Machara**
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*Department of Computer Science and Engineering*
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*Rajiv Gandhi University of Knowledge Technologies (RGUKT), Nuzvid, Andhra Pradesh, India*
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<p align="center">
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<a href="https://arxiv.org/abs/XXXX.XXXXX"><b>π Paper</b></a> β’
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<a href="https://github.com/Aditya-Lingam-9000/GOOSE-M2F"><b>π» Code</b></a> β’
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<a href="https://huggingface.co/XYZ9843/GOOSE-M2F"><b>π€ Hugging Face</b></a> β’
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<a href="https://www.codabench.org/competitions/14257"><b>π Challenge</b></a>
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</p>
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> **GOOSE-M2F** is a task-specific adaptation of Mask2Former for the **GOOSE 2D Fine-Grained Semantic Segmentation Challenge (ICRA 2026)**. The proposed framework addresses long-tailed semantic segmentation in unstructured outdoor environments through enhanced object query capacity, feature refinement, auxiliary supervision, class-balanced optimization, and robust multi-scale inference.
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> **Official Challenge Performance:** **70.08% Composite mIoU** (63.55% Fine mIoU, 76.61% Coarse mIoU), achieving **3rd Place** on the GOOSE 2D FGSS Challenge Leaderboard.
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---
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### π’ News
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* **[ICRA 2026]** GOOSE-M2F achieved **3rd Place** in the GOOSE 2D Fine-Grained Semantic Segmentation Challenge.
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* **[2026]** Source code and trained models released.
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* **[2026]** Technical report available on arXiv.
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---
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## What is GOOSE-M2F?
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The GOOSE dataset presents one of the most challenging real-world segmentation benchmarks: 64 fine-grained classes across diverse unstructured outdoor environments including forests, gravel paths, construction zones, and agricultural terrain β with a severely long-tailed class distribution.
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GOOSE-M2F extends the baseline Mask2Former (Swin-Large backbone) with three key modifications engineered specifically for this challenge:
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| Modification | Problem Solved | Impact |
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|---|---|---|
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| **200 Object Queries** (vs 100) | Query saturation in 64-class scenes | +2-3% composite mIoU |
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| **Feature Refinement Module (FRM)** β ASPP-lite + CBAM | Over-segmentation of amorphous terrain classes | +3-4% on Vegetation/Terrain |
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| **Auxiliary Supervision Head** at H/4 resolution | Vanishing gradients for tiny/thin classes | +5-8% on rare classes |
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---
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## Architecture
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```
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Input Image [B, 3, H, W]
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β
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βΌ
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Swin-Large Backbone (Hierarchical, 4 stages)
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Stage 1-4: channels {192, 384, 768, 1536}, resolutions {H/4 β H/32}
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β
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βΌ
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MSDeformAttn Pixel Decoder (6-layer FPN)
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Output: mask_features [B, 256, H/4, W/4]
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β
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ββββββββββββββββββββββββββββββββββββββββ
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βΌ βΌ
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[NEW] Feature Refinement Module [NEW] Auxiliary Head
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ASPP-lite: dilations {1, 3, 6, 12} Conv(256β256β64)
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+ Global Average Pooling DB-weighted CE loss
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+ CBAM Dual-Attention (Ch + Sp) Supervised at H/4
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β
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βΌ
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Transformer Decoder (9 layers)
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[MOD] 200 Object Queries (was 100)
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Masked Cross-Attention
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β
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βΌ
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Class Head [B, 200, 65] Γ Mask Head [B, 200, H/4, W/4]
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β
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βΌ
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Hungarian Matching β Semantic Prediction
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```
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---
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## Training Strategy
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| Technique | Description |
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|---|---|
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| **Distribution-Balanced (DB) Loss** | `w_c = (1-Ξ²)/(1-Ξ²^n_c)`, Ξ²=0.9999. Amplifies gradients for rare classes. |
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| **Rare-Class Copy-Paste (RCCP)** | Pre-extracted rare-class cutouts pasted onto training images at 85% probability. |
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| **Dynamic IoU-Aware Weights** | Per-class loss weights updated every epoch from validation IoU (0%β4x, 80%+β1x). |
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| **10x LR Jump (V4)** | Backbone 1e-5, Decoder 5e-5 β broke the model out of a local minimum at ~55%. |
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| **EMA (decay=0.9995)** | Shadow weights consistently +1.0β1.5% over raw model on validation. |
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| **Class-Aware Repeat Sampling** | Oversamples images containing rare classes proportional to their rarity. |
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| **Polynomial LR Decay** | Gradual decay after warmup, with annealing in final sessions. |
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### Training Progression (V1 β V8)
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| Session | Base LR | Backbone LR | Official Score |
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|---------|---------|-------------|----------------|
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| V1 (S3) | 5e-6 | 1e-6 | 50.68% |
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| V2 (S4) | 5e-6 | 1e-6 | 54.62% |
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| V3 (S5) | 5e-6 | 1e-6 | 55.64% |
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| V4 (S6) | **5e-5** | **1e-5** | 56.38% β **10x LR Jump** |
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| V5 (S7) | 5e-5 | 1e-5 | 57.59% |
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| V6 (S8) | 5e-5 | 1e-5 | 58.58% |
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| V7 (S9) | 5e-5 | 1e-5 | 59.23% |
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| V8 (S10) | **2.5e-5** | **5e-6** | 59.51% β Annealing |
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| **Inference** | β | β | **70.08%** β +10.57% from TTA |
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---
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## Inference Engine
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The final performance leap from 59.51% (training) to 70.08% (submission) came entirely from the inference pipeline:
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| Technique | Gain | Description |
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|---|---|---|
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| **Dense Sliding Window** | +4-5% | 896Γ896 crops, stride=384px (57% overlap) |
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| **2D Gaussian Kernel Blending** | Eliminates artifacts | Center pixels weighted higher, edges down-weighted |
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| **4-Scale TTA** | +3-4% | Scales: 0.5Γ, 0.75Γ, 1.0Γ, 1.5Γ |
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| **H-Flip TTA** | +1-2% | 8 total views per image (4 scales Γ 2 flips) |
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| **EMA Weights** | +1-1.5% | Shadow weights used instead of raw training weights |
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| **AuxHead Stripping** | VRAM savings | Removed before inference β not needed for prediction |
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---
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## Project Structure
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```
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goose-m2f/
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βββ src/
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β βββ model.py β GOOSEMask2Former (FRM + AuxHead + 200 queries)
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β βββ features.py β Dataset, augmentations, EMA, metrics
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β βββ train.py β Training engine (Trainer class)
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β βββ inference.py β Dense Gaussian patch-blending inference
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βββ configs/
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β βββ train_config.yaml β All training hyperparameters
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β βββ infer_config.yaml β TTA and inference settings
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βββ data/raw/ β Dataset (symlink or copy)
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βββ models/ β Manually placed checkpoints
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βββ outputs/
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β βββ checkpoints/ β best_model.pth, latest.pth, charts
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β βββ predictions/ β Output PNG predictions
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βββ tests/
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β βββ test_model.py β pytest unit tests
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βββ instructions/
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β βββ instructions.md β Full setup + usage guide
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βββ requirements.txt
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```
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---
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## Quick Start
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### 1. Setup
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```bash
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git clone https://github.com/Aditya-Lingam-9000/GOOSE-2D-FGSS-Challenge
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cd GOOSE-2D-FGSS-Challenge
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conda create -n goose python=3.11 -y && conda activate goose
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pip install torch torchvision --index-url https://download.pytorch.org/whl/cu121
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pip install -r requirements.txt
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accelerate config # Configure for your GPU setup
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```
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### 2. Configure Paths
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Edit `configs/train_config.yaml`:
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```yaml
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data_dir: "/path/to/goose_dataset"
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csv_path: "/path/to/goose_label_mapping.csv"
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output_dir: "outputs/checkpoints/session_01"
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```
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### 3. Train
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```bash
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# Single GPU
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python -m src.train --config configs/train_config.yaml
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# Multi-GPU
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accelerate launch --num_processes 2 -m src.train --config configs/train_config.yaml
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```
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### 4. Inference
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Edit `configs/infer_config.yaml` with the checkpoint path and image directory, then:
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```bash
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python -m src.inference --config configs/infer_config.yaml
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```
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### 5. Tests
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```bash
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pytest tests/ -v
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```
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---
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## Results
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### Official Leaderboard Performance (Final Submission)
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| Metric | Score |
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|---|---|
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| Fine mIoU | ~68.5% |
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| Coarse mIoU | ~71.6% |
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| **Official Composite** | **70.08%** |
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### Coarse Category Breakdown
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| Category | mIoU |
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|---|---|
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| Sky | 94.6% |
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| Road | 91.0% |
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| Vehicle | 89.8% |
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| Vegetation | 89.8% |
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| Construction | 75.5% |
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| Terrain | 78.9% |
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| Human | 62.8% |
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| Sign | 62.4% |
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| Water | 33.9% |
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| Object | 51.3% |
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| Animal | 0.0% |
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---
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## Requirements
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| Package | Version |
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|---|---|
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| torch | β₯ 2.1.0 |
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| transformers | β₯ 4.38.0 |
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| accelerate | β₯ 0.27.0 |
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| albumentations | β₯ 1.3.1 |
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| opencv-python | β₯ 4.9.0 |
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| numpy | β₯ 1.24.0 |
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+
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See `requirements.txt` for the complete list.
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+
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---
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## Citation
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If you use this work, please cite:
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+
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+
```bibtex
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| 243 |
+
@techreport{---,
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+
title = {GOOSE-M2F: Adapting Mask2Former for High-Fidelity, Long-Tailed Fine-Grained Semantic Segmentation in Unstructured Outdoor Terrain},
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| 245 |
+
author = {---},
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year = {2026},
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+
institution = {---}
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+
}
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```
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---
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+
## References
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| 255 |
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- **Mask2Former**: Cheng et al., *Masked-Attention Mask Transformer for Universal Image Segmentation*, CVPR 2022
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+
- **Swin Transformer**: Liu et al., ICCV 2021
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+
- **CBAM**: Woo et al., *Convolutional Block Attention Module*, ECCV 2018
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| 258 |
+
- **DeepLab**: Chen et al., *Rethinking Atrous Convolution*, TPAMI 2017
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---
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