Project Description
The goal is to build **Tripix**, a production-grade, real-time mobility and automotive services platform that combines ride-booking, live tracking, and intelligent routing into a unified, scalable system. The platform should deliver a seamless experience comparable to leading ride-hailing applications while introducing advanced engineering practices and machine learning capabilities.
Architecture & System Design
• Frontend: Angular 15+ SPA with modular architecture, lazy loading, SCSS, and high-quality UI/UX with smooth animations.
• Backend: ASP.NET Core Web API (latest LTS) using Clean Architecture, CQRS, and Dependency Injection.
• Real-Time Layer: SignalR for bi-directional communication between drivers and passengers to enable live tracking and instant updates.
• Database: SQL Server with Entity Framework Core (code-first) and optimized indexing.
• Caching: Redis for fast access to live driver locations and high-frequency data.
• Messaging: RabbitMQ for handling asynchronous workflows such as notifications, trip processing, and background jobs.
• ML Service: Python-based microservice (FastAPI) for ETA prediction and future intelligent features.
• Deployment: Fully Dockerized and cloud-ready (Azure/AWS).
Live Tracking System
Tripix implements a real-time tracking engine where drivers continuously stream their GPS coordinates to the backend via SignalR.
– Location updates are throttled (every 2–5 seconds) to balance accuracy and performance.
– Passenger clients receive live updates instantly and render smooth movement on the map using interpolation techniques.
– Optional filtering techniques (e.g., Kalman Filter) are applied to reduce GPS noise and improve tracking accuracy.
– Redis is used to cache active driver positions for high scalability under load.
Routing & Intelligent Systems
The platform integrates Google Maps APIs (Directions, Places, Geolocation) for baseline routing and navigation.
On top of that, Tripix introduces a Machine Learning layer to enhance decision-making:
• ETA Prediction Model
A predictive model (e.g., Linear Regression / Gradient Boosting) estimates trip duration based on:
– Distance
– Time of day
– Historical traffic patterns
– Road conditions
This provides more accurate arrival times than standard map APIs alone.
• Route Optimization (Future Scope)
Machine learning and graph-based techniques can be used to improve route selection based on historical congestion and driver behavior.
• Demand & Pricing Intelligence (Future Scope)
Dynamic pricing models based on demand/supply, time-series forecasting, and regional activity.
Core Functional Requirements
– Secure authentication (JWT-based) with role-based access (Passenger, Driver, Admin).
– End-to-end booking flow: pickup, destination, route preview, ETA, and trip confirmation.
– Real-time driver tracking on map.
– Payment integration (cards, wallets, PayPal, Apple Pay, Google Pay) via abstracted service layer.
– Admin dashboard for monitoring trips, users, and system metrics.
– Multi-service support (ride booking, car services, rentals, and marketplace expansion).
Performance & Scalability
– API response optimization using caching, pagination, and indexing.
– Real-time data handled efficiently via SignalR and Redis.
– Asynchronous processing using RabbitMQ.
– Microservice-ready architecture for future scaling.
Code Quality & Engineering Standards
– Strict adherence to SOLID principles and clean coding practices.
– Unit testing coverage (>80%) for core business logic.
– Well-documented code (XML + TypeScript docs).
– Swagger/OpenAPI documentation for all endpoints.
Deliverables
• Complete source code (Frontend + Backend + ML service)
• Database schema and seed data
• Real-time tracking implementation
• ML ETA prediction service
• API documentation (Swagger + Postman collection)
• Docker setup (docker-compose)
• Deployment guide (Azure/AWS)
• Comprehensive README
Acceptance Criteria
1. Users can book a trip, view route and ETA, and track the driver in real time.
2. Driver location updates are reflected live with smooth map movement.
3. ETA predictions are dynamically generated via ML service.
4. System performs efficiently under load with low latency (<200 ms for optimized endpoints).
5. Platform delivers a seamless, mobile-first experience similar to top ride-hailing apps.
Tripix is designed to evolve into a **smart mobility platform**, combining real-time systems, scalable architecture, and machine learning to deliver a next-generation transportation experience.
Please provide examples of similar real-time or map-based systems you have built, along with a clear timeline and milestones.