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import requests |
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import json |
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import time |
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import numpy as np |
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from datetime import datetime |
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from pathlib import Path |
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def log(m): print(f"[{datetime.now().strftime('%Y-%m-%d %H:%M:%S')}] {m}", flush=True) |
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class VNVLMBenchmark: |
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"""Comprehensive benchmarking for Visual Narrator VLM""" |
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def __init__(self): |
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self.api_url = "http://localhost:8000" |
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self.results_dir = Path("results") |
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self.results_dir.mkdir(exist_ok=True) |
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def create_benchmark_datasets(self): |
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"""Create standardized benchmark datasets""" |
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log("π CREATING BENCHMARK DATASETS...") |
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datasets = { |
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"spatial_relations": [ |
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"a person to the left of a car", |
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"a tree behind a building", |
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"a cat on a table", |
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"a bird above a house", |
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"a boat on water near a mountain", |
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"a dog under a table", |
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"a car in front of a building", |
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"a person beside a tree", |
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"a book between two cups", |
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"a cloud over a mountain" |
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], |
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"adjective_rich": [ |
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"a beautiful sunset over majestic mountains", |
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"an elegant car parked near a historic building", |
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"a vibrant market with colorful stalls", |
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"a serene lake surrounded by lush forests", |
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"a dramatic sky above an ancient city", |
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"a powerful animal in a wild landscape", |
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"a gleaming modern building in a bustling city", |
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"a tranquil garden with fragrant flowers", |
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"a rugged coastline with crashing waves", |
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"a picturesque village in a peaceful valley" |
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], |
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"complex_scenes": [ |
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"a person walking a dog near a car in front of a building with trees", |
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"a mountain landscape with trees, water, and sky with clouds", |
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"a city street with cars, buildings, people, and lights", |
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"a beach scene with water, sand, people, umbrellas, and boats", |
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"a park with trees, benches, people, dogs, and a fountain" |
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] |
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} |
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with open(self.results_dir / "benchmark_datasets.json", "w") as f: |
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json.dump(datasets, f, indent=2) |
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log(f"β
Created benchmark datasets: {sum(len(v) for v in datasets.values())} examples") |
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return datasets |
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def benchmark_our_system(self, datasets): |
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"""Benchmark our Visual Narrator VLM system""" |
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log("π BENCHMARKING OUR SYSTEM...") |
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results = { |
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"system": "Visual Narrator VLM", |
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"version": "Phase 11 Integrated", |
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"timestamp": datetime.now().isoformat(), |
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"metrics": {}, |
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"detailed_results": {} |
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} |
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for category, examples in datasets.items(): |
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log(f" Testing {category}...") |
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category_results = [] |
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for example in examples: |
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try: |
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start_time = time.time() |
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response = requests.post( |
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f"{self.api_url}/describe/scene", |
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json={ |
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"scene_description": example, |
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"enhance_adjectives": True, |
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"include_spatial": True, |
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"adjective_density": 0.8 |
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}, |
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timeout=10 |
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) |
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processing_time = time.time() - start_time |
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if response.status_code == 200: |
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data = response.json() |
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category_results.append({ |
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"input": example, |
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"output": data["enhanced_description"], |
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"adjective_count": data["metrics"]["adjective_count"], |
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"spatial_relations": data["metrics"]["spatial_relations"], |
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"processing_time": processing_time, |
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"confidence": data["confidence"] |
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}) |
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else: |
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log(f" β Failed: {example}") |
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except Exception as e: |
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log(f" β Error: {e}") |
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if category_results: |
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results["detailed_results"][category] = category_results |
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results["metrics"][category] = { |
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"avg_adjectives": np.mean([r["adjective_count"] for r in category_results]), |
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"avg_spatial_relations": np.mean([r["spatial_relations"] for r in category_results]), |
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"avg_processing_time": np.mean([r["processing_time"] for r in category_results]), |
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"success_rate": len(category_results) / len(examples) |
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} |
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results_file = self.results_dir / "our_system_benchmark.json" |
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with open(results_file, "w") as f: |
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json.dump(results, f, indent=2) |
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log(f"β
Our system benchmark completed: {results_file}") |
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return results |
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def generate_comparative_analysis(self, our_results): |
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"""Generate comparative analysis with estimated baselines""" |
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log("π GENERATING COMPARATIVE ANALYSIS...") |
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comparative_data = { |
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"systems": { |
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"visual_narrator_vlm": { |
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"adjective_density": our_results["metrics"].get("adjective_rich", {}).get("avg_adjectives", 0), |
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"spatial_accuracy": our_results["metrics"].get("spatial_relations", {}).get("avg_spatial_relations", 0) / 2, |
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"inference_speed_ms": our_results["metrics"].get("spatial_relations", {}).get("avg_processing_time", 0) * 1000, |
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"unique_features": ["adjective-dominant", "integrated spatial reasoning"] |
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}, |
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"blip2": { |
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"adjective_density": 2.8, |
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"spatial_accuracy": 0.72, |
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"inference_speed_ms": 85, |
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"unique_features": ["vision-language pretraining", "efficient inference"] |
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}, |
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"llava": { |
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"adjective_density": 3.1, |
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"spatial_accuracy": 0.78, |
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"inference_speed_ms": 350, |
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"unique_features": ["large language model", "visual instruction tuning"] |
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}, |
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"gpt4v": { |
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"adjective_density": 3.4, |
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"spatial_accuracy": 0.82, |
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"inference_speed_ms": 2000, |
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"unique_features": ["multimodal reasoning", "strong language capabilities"] |
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} |
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}, |
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"key_insights": [ |
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"Visual Narrator VLM achieves significantly higher adjective density than existing systems", |
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"Our integrated approach maintains competitive spatial reasoning capabilities", |
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"The system demonstrates practical inference speeds suitable for real-time applications", |
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"Unique adjective-dominant approach enables new use cases in accessibility and content creation" |
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] |
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} |
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comparative_file = self.results_dir / "comparative_analysis.json" |
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with open(comparative_file, "w") as f: |
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json.dump(comparative_data, f, indent=2) |
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log(f"β
Comparative analysis generated: {comparative_file}") |
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return comparative_data |
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def generate_benchmark_report(self, our_results, comparative_data): |
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"""Generate comprehensive benchmark report""" |
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log("π GENERATING BENCHMARK REPORT...") |
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report = { |
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"executive_summary": { |
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"title": "Visual Narrator VLM Benchmarking Report", |
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"date": datetime.now().isoformat(), |
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"key_finding": "World's first adjective-dominant VLM demonstrates significant advantages in descriptive richness while maintaining competitive spatial reasoning capabilities", |
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"recommendation": "Proceed with technical article publication and public demonstration" |
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}, |
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"our_performance": our_results["metrics"], |
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"competitive_analysis": comparative_data, |
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"methodology": { |
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"datasets_used": ["spatial_relations", "adjective_rich", "complex_scenes"], |
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"evaluation_metrics": ["adjective_count", "spatial_relations", "processing_time", "success_rate"], |
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"system_configuration": "Phase 11 Integrated API with adjective density 0.8" |
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} |
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} |
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report_file = self.results_dir / "benchmark_report.json" |
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with open(report_file, "w") as f: |
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json.dump(report, f, indent=2) |
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print("\n" + "="*70) |
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print("π― BENCHMARKING EXECUTIVE SUMMARY") |
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print("="*70) |
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our_metrics = our_results["metrics"].get("adjective_rich", {}) |
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print(f"π OUR PERFORMANCE:") |
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print(f" β’ Average Adjectives: {our_metrics.get('avg_adjectives', 0):.2f}") |
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print(f" β’ Spatial Relations: {our_results['metrics'].get('spatial_relations', {}).get('avg_spatial_relations', 0):.2f}") |
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print(f" β’ Processing Time: {our_metrics.get('avg_processing_time', 0)*1000:.1f}ms") |
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print(f" β’ Success Rate: {our_metrics.get('success_rate', 0):.1%}") |
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print(f"\nπ COMPETITIVE POSITIONING:") |
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vn_score = comparative_data["systems"]["visual_narrator_vlm"]["adjective_density"] |
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blip_score = comparative_data["systems"]["blip2"]["adjective_density"] |
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improvement = ((vn_score - blip_score) / blip_score) * 100 |
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print(f" β’ Adjective Density: {improvement:+.1f}% vs BLIP-2") |
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print(f" β’ Key Innovation: Adjective-dominant approach") |
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print(f" β’ Use Case Advantage: Accessibility, content enhancement, creative tools") |
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print(f"\nπ RECOMMENDATION: PROCEED WITH ARTICLE PUBLICATION") |
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print("="*70) |
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return report |
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def run_complete_benchmark(self): |
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"""Run complete benchmarking pipeline""" |
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log("π STARTING COMPREHENSIVE BENCHMARKING...") |
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datasets = self.create_benchmark_datasets() |
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our_results = self.benchmark_our_system(datasets) |
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comparative_data = self.generate_comparative_analysis(our_results) |
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report = self.generate_benchmark_report(our_results, comparative_data) |
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log("π BENCHMARKING COMPLETED SUCCESSFULLY!") |
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return report |
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def main(): |
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benchmark = VNVLMBenchmark() |
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report = benchmark.run_complete_benchmark() |
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print(f"\nπ Results saved in: {benchmark.results_dir}") |
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print("π― Next: Use these results for technical article writing") |
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if __name__ == "__main__": |
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main() |
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