Inspiration
During disasters like floods, fires, and earthquakes, emergency responders often receive large amounts of scattered information but have limited time to determine where help is needed most, how severe an incident is, and which resources should be deployed first.
We wanted to build something that goes beyond simply reporting emergencies. This led us to ResQ-AI, an AI-powered disaster response platform designed to transform citizen reports into actionable insights and assist authorities in making faster, data-driven response decisions.
What it does
ResQ-AI allows citizens to report emergencies using:
- π· Images
- π Location
- π€ Voice messages
- π Text descriptions
AI analyzes these reports to identify information such as:
- Incident type β flood, fire, earthquake, etc.
- Severity β low, medium, high, or critical
- Estimated affected population
- Required resources β rescue teams, medical assistance, food, evacuation, etc.
The system then visualizes incidents on a priority-based map.
Our standout feature is AI-assisted resource allocation. If resources such as ambulances, rescue teams, and medical units are limited, ResQ-AI considers factors like severity, affected population, and distance to recommend where those resources could be deployed.
This makes ResQ-AI a decision-support system rather than just an AI chatbot.
How we built it
We built ResQ-AI using a modular architecture so that the citizen-facing application, AI analysis, mapping, and resource allocation components can work together.
The major components include:
- Citizen Reporting Interface β for submitting emergency information.
- AI Analysis Layer β extracts incident details from reports.
- Priority Engine β determines the urgency of reported incidents.
- Interactive Map β displays incidents geographically according to their priority.
- Resource Allocation Module β recommends deployment of available emergency resources.
- Authority Dashboard β provides responders with a centralized view of incidents and resources.
We used React, JavaScript, HTML/CSS, Tailwind CSS, AI services, APIs, and map-based visualization to develop the platform.
We focused on building an MVP that demonstrates the complete workflow while keeping the architecture flexible for future improvements.
Challenges we ran into
One of our biggest challenges was handling different types of emergency informationβimages, voice, text, and locationβand converting them into structured information that the system could understand.
Another challenge was designing the resource-allocation logic. We wanted recommendations to be based on understandable factors rather than producing a result without explanation.
We also faced several integration challenges while connecting the frontend with backend APIs, implementing routing, integrating the map, and making different modules communicate reliably.
Since this was developed within a hackathon environment, another major challenge was deciding which features to prioritize while keeping the project realistic and functional.
Accomplishments that we're proud of
We are particularly proud of turning our initial idea into a working disaster-response workflow instead of building only an isolated AI feature.
Our key accomplishments include:
- Building a complete citizen emergency reporting flow
- Designing an AI-based incident analysis workflow
- Creating a priority-based disaster visualization
- Developing an AI-assisted resource allocation concept
- Connecting multiple technologies into one platform
- Designing the interface with emergency situations and quick decision-making in mind
- Creating an architecture that can be expanded beyond the hackathon MVP
Most importantly, we were able to approach AI as a decision-support tool for a real-world problem, rather than using AI simply for the sake of adding an AI feature.
What we learned
This project taught us that building an AI-powered solution is not just about selecting a model. The surrounding data flow, user experience, reliability, explainability, and system architecture are equally important.
We learned how to:
- Design interfaces for emergency scenarios
- Process unstructured information into structured insights
- Combine multiple factors for prioritization
- Integrate AI with a web application
- Work with maps and location-based information
- Build and debug frontend-backend integrations
- Convert an ambitious idea into a practical MVP within a limited timeframe
We also learned the importance of keeping humans in the loop. In emergency situations, AI should assist responders with information and recommendations while leaving the final decision to trained authorities.
What's next for ResQ-AI
Our current MVP is only the beginning. We envision ResQ-AI evolving into a more comprehensive emergency-response platform.
Future improvements include:
- π°οΈ Real-time disaster data integration
- πΊοΈ More advanced geospatial analysis
- π€ Improved multimodal AI for image, voice, and text analysis
- π Real-time fleet and resource tracking
- π‘ Offline/low-connectivity support
- π Real-time alerts for authorities and citizens
- π Predictive risk and disaster hotspot analysis
- π Integration with official emergency-response systems
- π Stronger security and privacy mechanisms
Our long-term vision is to make ResQ-AI a system that helps emergency teams move from reacting to scattered reports toward coordinated, data-driven disaster response.
Built With
- ai
- api
- css
- data
- disaster
- emergency
- generative
- javascript
- learning
- machine
- management
- maps
- optimization
- python
- react
- response
- rest
- speech
- tailwind
- visualization
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