Intelligent Real-Time Video Analysis through Natural Language Processing
Seer Vision AI (VisLangStream) is an innovative real-time video analysis platform that revolutionizes how we interact with surveillance and monitoring systems. Instead of requiring complex programming or technical expertise, users can simply ask questions in plain English and receive intelligent, contextually-aware answers about what's happening in their video feeds.
Traditional video surveillance systems face several critical limitations:
- Technical Complexity: Setting up object detection requires programming skills and computer vision expertise
- Static Analysis: Most systems only detect pre-programmed objects or events
- Lack of Context: Existing solutions analyze frames in isolation without understanding temporal relationships
- Limited Accessibility: Non-technical users struggle to extract meaningful insights from video data
- Integration Challenges: Difficult to integrate analysis results with external business systems
Seer Vision AI transforms video analysis through three core innovations:
Instead of configuring complex detection rules, users simply type natural language questions:
- "How many people are wearing safety helmets?"
- "Is the parking lot full or empty?"
- "Are there any delivery trucks at the loading dock?"
- "What color shirts are the workers wearing?"
Unlike traditional frame-by-frame analysis, our system maintains contextual memory:
- Temporal Awareness: Understands changes over time ("Has anyone left the building in the last 10 minutes?")
- Conversation Continuity: Builds upon previous responses for more accurate analysis
- Scene Understanding: Maintains a comprehensive understanding of the environment
Seamlessly connects with existing business systems:
- Webhook Exports: Automatically send analysis results to external systems
- Real-time APIs: Integrate with dashboards, alerting systems, and databases
- Flexible Formats: Output results in JSON or plain text formats
Seer Vision AI transforms complex video analysis into a simple conversation:
- Connect Your Cameras: Add USB cameras or network streams to the system
- Ask Questions: Type natural language queries about what you want to monitor
- Get Real-Time Answers: Receive intelligent responses with confidence scores
- Track Over Time: Enable memory mode for contextual, time-aware analysis
- Export Results: Configure webhooks to automatically send results to your systems
The system continuously captures frames from connected cameras and processes them through advanced vision-language models. Each frame is analyzed in the context of user-defined prompts, generating human-readable responses that answer specific questions about the visual content.
When memory mode is enabled, the system maintains a sophisticated understanding of the scene across multiple frames. This allows for queries like:
- "Has the number of people increased since my last check?"
- "What changes have occurred in the last 5 minutes?"
- "Are the same people still present?"
- Frame Capture: Optimized frame extraction from video streams
- Preprocessing: Image optimization for AI model consumption
- AI Analysis: Vision-language model processing with custom prompts
- Context Integration: Memory system enhances responses with temporal awareness
- Result Delivery: Formatted responses with confidence scores and metadata
The system automatically adjusts processing parameters based on:
- System Load: Dynamic queue management prevents resource conflicts
- Analysis Interval: Configurable timing from 10-120 seconds per analysis
- Camera Capabilities: Optimized processing for different camera types
- User Requirements: JSON vs. plain text output formatting
- Customer counting and behavior analysis
- Queue management and wait time optimization
- Inventory monitoring and stock level alerts
- Employee safety compliance monitoring
- Worker safety equipment compliance
- Production line monitoring and quality control
- Equipment status and maintenance alerts
- Workplace safety incident detection
- Classroom occupancy and engagement monitoring
- Patient monitoring and care compliance
- Facility utilization tracking
- Emergency response and safety protocols
- Access control and visitor management
- Parking space availability tracking
- Maintenance and cleaning verification
- Energy usage optimization through occupancy detection
The heart of Seer Vision AI is its ability to understand and respond to natural language queries about video content. Powered by advanced Large Language and Vision Assistant (LLaVA) models, the system can:
- Understand Complex Queries: Process multi-part questions requiring visual reasoning
- Provide Detailed Responses: Generate comprehensive answers with specific details
- Maintain High Accuracy: Deliver confidence-scored results for quality assurance
- Handle Ambiguity: Interpret unclear queries and provide clarifying responses
Our proprietary memory system sets Seer Vision AI apart from traditional video analysis:
- Scene Continuity: Maintains understanding of the environment across multiple frames
- Change Detection: Automatically identifies and reports significant changes
- Temporal Queries: Answer questions about events over time periods
- Conversation Memory: Builds upon previous interactions for more accurate responses
Transform raw video data into actionable business insights:
- Real-Time Metrics: Live confidence scores, processing times, and system performance
- Historical Trends: Analyze patterns over hours, days, weeks, or months
- Camera Performance: Monitor individual camera effectiveness and optimization opportunities
- Query Analytics: Track most common questions and response accuracy
Enterprise-ready integration capabilities:
- Automated Notifications: Send analysis results to external systems in real-time
- Flexible Formats: Choose between structured JSON or human-readable text
- Secure Delivery: HMAC signature verification for webhook security
- Retry Logic: Robust delivery mechanisms with automatic retry on failure
Developed as part of advanced research at the University of Birmingham's School of Computer Science, Seer Vision AI represents a paradigm shift in video analysis technology. This Master's research project explores the intersection of computer vision and natural language processing, demonstrating how advanced AI can be made accessible to non-technical users while maintaining enterprise-grade performance.
Research Contribution: This project contributes to the field of Human-Computer Interaction in AI systems, specifically addressing the usability gap in computer vision applications and proposing novel approaches to contextual video understanding.
- Seamless fusion of vision and language models for comprehensive scene understanding
- Real-time processing capabilities with sub-second response times
- Advanced prompt engineering for optimal model performance
- Proprietary temporal context system that maintains scene understanding across frames
- Intelligent similarity detection to avoid redundant processing
- Dynamic buffer management optimized for different analysis intervals
- Intelligent queuing system preventing resource conflicts
- Adaptive frame processing based on system load
- Comprehensive metrics collection for continuous improvement
- Scalable microservices design supporting multiple concurrent streams
- Robust authentication and authorization systems
- Comprehensive API design following RESTful principles
Seer Vision AI implements a sophisticated 6-layer architecture designed for scalability, maintainability, and performance:
- Modern, responsive web interface built with React 18
- Real-time video streaming and analysis visualization
- Comprehensive dashboard for analytics and system monitoring
- Mobile-responsive design with adaptive layouts
- RESTful API endpoints with comprehensive error handling
- JWT-based authentication and authorization
- Request validation and rate limiting
- CORS configuration for secure cross-origin requests
- Camera management and stream orchestration
- User authentication and session management
- Analytics aggregation and reporting
- Webhook configuration and delivery
- Advanced frame analysis using state-of-the-art vision-language models
- Intelligent queuing system for optimal resource utilization
- Context-aware processing with memory integration
- Performance optimization through caching strategies
- Ollama LLaVA model integration for AI processing
- Webhook delivery system for external notifications
- Extensible architecture for future AI model integration
- Optimized database schema for video analytics
- Efficient indexing for time-series data queries
- Comprehensive logging and audit trails
- Automated backup and recovery procedures
Before setting up Seer Vision AI, ensure you have the following installed:
- Node.js (v18 or higher) - Download here
- npm (v8 or higher) - Comes with Node.js
- Ollama - Installation guide
- Git - Download here
git clone https://github.com/your-username/VisLangStream.git
cd VisLangStream
The project uses a monorepo structure with separate frontend and backend dependencies:
# Install root dependencies and setup both client and server
npm install
# This will automatically run:
# - npm install in the client directory
# - npm install in the server directory
Install and configure the LLaVA model:
# Install Ollama (if not already installed)
curl -fsSL https://ollama.ai/install.sh | sh
# Pull the required LLaVA model
ollama pull llava:latest
# Verify installation
ollama list
Create environment configuration files:
# Server environment
cd server
cp .env.example .env
Edit the .env
file with your configuration:
NODE_ENV=development
PORT=3001
DATABASE_PATH=./database.sqlite
JWT_SECRET=your-secure-jwt-secret
JWT_REFRESH_SECRET=your-secure-refresh-secret
OLLAMA_BASE_URL=http://localhost:11434
The database will be automatically initialized when you first run the server:
cd server
npm run dev
Open two terminal windows:
Terminal 1 - Start the backend server:
cd server
npm run dev
Terminal 2 - Start the frontend client:
cd client
npm run dev
Or use the convenient combined command from the root directory:
npm start
- Frontend: http://localhost:5173
- Backend API: http://localhost:3001
- Ollama: http://localhost:11434
- Navigate to the "Cameras" section
- Click "Add Camera" and select USB camera
- Configure camera settings including analysis intervals
- Test camera connection to ensure proper setup
- Select a configured camera from the dashboard
- Enter natural language prompts (e.g., "Count people in the frame")
- Start analysis to receive real-time responses
- Monitor confidence scores and processing metrics
- Enable memory mode for contextual analysis
- System maintains conversation history across frames
- Reduces redundant processing and improves accuracy
- Ideal for tracking changes over time
- Access comprehensive analytics dashboard
- View detection trends and confidence metrics
- Monitor camera performance and system health
- Export data for further analysis
- Configure webhook endpoints in the Connections section
- Set up automated result forwarding
- Choose between JSON and plain text formats
- Test webhook connectivity before deployment
- React 18 - Modern component-based UI framework
- TypeScript - Type-safe JavaScript development
- Tailwind CSS - Utility-first CSS framework
- Shadcn/ui - High-quality component library
- Recharts - Data visualization and analytics
- React Router - Client-side routing
- Axios - HTTP client for API communication
- Node.js - JavaScript runtime environment
- Express.js - Web application framework
- SQLite - Embedded database for data persistence
- JWT - JSON Web Tokens for authentication
- bcrypt - Password hashing and security
- Multer - File upload handling
- LLaVA (Large Language and Vision Assistant) - Vision-language model
- Ollama - Local AI model deployment platform
- Canvas API - Frame processing and manipulation
- Vite - Fast build tool and development server
- ESLint - Code linting and quality assurance
- Prettier - Code formatting
- Concurrently - Run multiple processes simultaneously
VisLangStream/
├── client/ # Frontend React application
│ ├── src/
│ │ ├── api/ # API client functions
│ │ ├── components/ # Reusable UI components
│ │ │ ├── dashboard/ # Dashboard-specific components
│ │ │ ├── connections/ # Webhook and export components
│ │ │ └── ui/ # Base UI components
│ │ ├── contexts/ # React context providers
│ │ ├── hooks/ # Custom React hooks
│ │ ├── lib/ # Utility functions
│ │ ├── pages/ # Page components
│ │ └── main.tsx # Application entry point
│ ├── public/ # Static assets
│ └── package.json # Frontend dependencies
│
├── server/ # Backend Node.js application
│ ├── config/ # Configuration files
│ │ └── database.js # Database setup and migrations
│ ├── models/ # Data models and database interactions
│ │ ├── Camera.js # Camera model
│ │ ├── User.js # User authentication model
│ │ ├── VideoAnalysis.js # Analysis tracking model
│ │ └── LiveResult.js # Analytics data model
│ ├── routes/ # API route definitions
│ │ ├── authRoutes.js # Authentication endpoints
│ │ ├── cameraRoutes.js # Camera management endpoints
│ │ ├── videoAnalysisRoutes.js # Analysis endpoints
│ │ └── analyticsRoutes.js # Analytics endpoints
│ ├── services/ # Business logic services
│ │ ├── llavaService.js # AI model integration
│ │ ├── memoryService.js # Context management
│ │ ├── cameraService.js # Camera operations
│ │ └── webhookService.js # Webhook delivery
│ ├── utils/ # Utility functions
│ └── server.js # Server entry point
│
└── package.json # Root project configuration
This project was developed as part of advanced research at the University of Birmingham. While primarily an academic research project, contributions and feedback are welcome from the research community.
- Code Quality: Maintain high code quality standards with comprehensive testing
- Documentation: Document all new features and API changes
- Academic Integrity: Respect the academic nature of this research project
- Performance: Ensure all contributions maintain system performance standards
For academic collaborations, research partnerships, or citing this work, please contact the research team through the University of Birmingham's Computer Science department.
This project is developed for academic research purposes at the University of Birmingham. The codebase is provided for educational and research use. Commercial use requires explicit permission from the research team.
Academic Use: Freely available for academic research and educational purposes Commercial Use: Contact the research team for licensing arrangements Attribution: Please cite this work in academic publications when applicable
Developed at the University of Birmingham
School of Computer Science
Advanced Research in Computer Vision and Natural Language Processing
For technical support, research inquiries, or collaboration opportunities, please refer to the project documentation or contact the development team through the university's official channels.