Disaster Assessment Aerial Intelligence System
Saving Lives
Created on 27th July 2025
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Disaster Assessment Aerial Intelligence System
Saving Lives
The problem Disaster Assessment Aerial Intelligence System solves
Natural disasters such as cyclones, tsunamis, and floods frequently impact coastal regions, often leaving behind large-scale destruction and human casualties. Timely assessment of the affected area is critical for efficient rescue operations, yet traditional ground-based methods are slow, risky, and lack a comprehensive overview. This project proposes an autonomous aerial drone-based system for rapid post-disaster assessment and situational analysis in coastal regions. The drone is equipped with high-resolution cameras, thermal sensors, and AI-based object detection algorithms to identify injured individuals, estimate crowd density, locate debris, and assess structural damage. Real-time data is transmitted to a central command unit where it is processed to generate actionable insights — including the number of rescue personnel and medical units required, as well as priority zones for intervention. By providing a bird’s-eye view and real-time analytics of the disaster scene, the system significantly enhances the efficiency, accuracy, and speed of rescue and relief operations. The proposed approach minimizes response time, optimizes resource allocation, and ultimately contributes to saving more lives in the aftermath of coastal disasters.
Challenges we ran into
- AI Model Integration
BLIP Model Loading: Large model size causing memory issues on resource-constrained systems
Real-time Processing: Balancing AI accuracy with processing speed requirements
Caption Quality: BLIP sometimes generates vague descriptions requiring robust keyword matching
- Threading & Performance
Queue Management: Preventing buffer overflow while maintaining real-time performance
Thread Synchronization: Coordinating video capture and AI processing threads safely
Memory Leaks: Managing detection history and preventing memory accumulation over long flights
- Detection Accuracy
False Positives: Distinguishing actual disasters from similar-looking scenes
Threshold Tuning: Finding optimal confidence levels for different disaster types
Environmental Factors: Lighting conditions affecting detection reliability
Tracks Applied (1)