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README.md
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license: apache-2.0
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---
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license: apache-2.0
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task_categories:
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- question-answering
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- feature-extraction
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language:
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- en
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tags:
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- eda
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- analog
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- vlm
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pretty_name: Analog Layouts Dataset for Vision Language Models (VLMs)
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---
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# A VLM Framework to Optimize the Analysis of Analog Circuit Layouts
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***ICML 2026 Submission - Under Review***
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This repository contains the dataset presented in the paper *"A VLM Framework to Optimize the Analysis of Analog Circuit Layouts"*, along with the code for training and evaluating Visual Language Models (VLMs) on analog circuit layouts analysis tasks.
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The project addresses the challenge of interpreting technical diagrams by benchmarking VLMs on tasks ranging from single device identification to component counting in complex mixed circuits.
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## Dataset Overview
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The dataset comprises over **30,000 circuits** and **77,000+ Question-Answer pairs**, organized into a comprehensive benchmark suite.
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### Circuit Categories
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- **Single Devices** (19,997 images): PMOS, NMOS, Capacitors, Resistors.
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- **Base Circuits** (5,894 images): Ahuja OTA, Gate Driver, HPF, LDO, LPF, Miller OTA.
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- **Mixed Circuits** (4,140 images): Complex combinations of base circuits.
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### Benchmark Tasks
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The dataset defines 5 core tasks for evaluation:
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| Task | Description | Size |
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|------|-------------|------|
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| **Task A** | Single device identification | 19,997 samples |
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| **Task B** | Base circuit identification | 5,894 samples |
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| **Task C** | Component counting (base circuits) | 27,475 samples |
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| **Task D** | Component counting (mixed circuits) | 19,848 samples |
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| **Task E** | Base circuit identification in mixed circuits | 4,140 samples |
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*For detailed statistics, please refer to [DATASET_STATISTICS.md](DATASET_STATISTICS.md).*
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## Repository Structure
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Once `code.zip` and `dataset.zip` have been unzipped, the structure is as follows:
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```
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.
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├── code/ # Source code for fine-tuning and inference
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├── base_circuits/ # Base circuit datasets and templates
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├── mixed_circuits/ # Mixed circuit datasets
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├── single_devices/ # Single device datasets
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├── tasks/ # Task definitions and data splits
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└── DATASET_STATISTICS.md
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```
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## Getting Started
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### Prerequisites
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All execution scripts are located in the `code/` directory.
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```bash
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cd code
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pip install -r requirements.txt
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```
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### Fine-Tuning
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The repository provides a sequential fine-tuning launcher to handle dataset ablations and multiple tasks.
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**Basic Usage:**
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```bash
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# Dry-run to view planned training jobs
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python VLM_finetune/run_ablation_sequential_ft.py --dry_run
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# Train Task A (Single device identification) with 100% of dataset
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python VLM_finetune/run_ablation_sequential_ft.py --task a1 --perc 100
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```
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**Advanced Usage:**
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Train multiple tasks with specific data percentages:
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```bash
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python VLM_finetune/run_ablation_sequential_ft.py --tasks a1,b1,c1 --percs 25,50,75,100
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```
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### Evaluation
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The inference pipeline supports evaluating both base models and fine-tuned LoRA adapters.
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**Batch Evaluation (Ablation Study):**
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Evaluate many adapters across different tasks and splits:
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```bash
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python VLM_inference/run_ft_eval_ablation.py \
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--splits-root /path/to/dataset/ablation_splits \
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--adapter-root /path/to/outputs/finetune_lora \
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--cache-dir /path/to/cache
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```
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**Result Reorganization:**
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Map raw evaluation results from training tasks (A1/B1/C1) to the final benchmark tasks (A-E) and compute aggregated metrics:
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```bash
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python reorganize_results.py \
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--input-root /path/to/raw_results \
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--output-root /path/to/final_results
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```
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**Single Task Evaluation:**
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Run inference on a single task/circuit:
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```bash
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# Evaluate Task A (Task A1)
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python VLM_inference/test_base_models/run_ft_eval_update.py --task a1 --num-samples 200
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# Evaluate with a specific adapter
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python VLM_inference/test_base_models/run_ft_eval_update.py \
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--task a1 \
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--num-samples 200 \
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--adapter /path/to/adapter/checkpoint
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```
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