Architecting Multi-Platform Healthcare Systems: Lessons from Production
Building healthcare management systems that work seamlessly across web, mobile, and desktop platforms requires careful architectural planning. This article shares insights from developing a production-grade dental clinic management system using C#, WPF, Angular, and Flutter. Discover how to design unified data models, implement role-based access control, handle cross-platform synchronization, and maintain code reusability while delivering platform-specific user experiences.
View on GitHubBuilding healthcare management systems that work seamlessly across web, mobile, and desktop platforms is one of the most challenging yet rewarding engineering tasks. In this article, I share insights from developing a production-grade dental clinic management system.
The core challenge lies in maintaining data consistency across platforms while delivering platform-specific user experiences. We chose a modular architecture with shared business logic and platform-specific UI layers.
For the desktop application, we used WPF (Windows Presentation Foundation) with C#, which provided excellent performance for complex data entry and reporting features. The web application was built with Angular and TypeScript, offering a responsive design that works across all devices.
The mobile application uses Flutter, allowing us to share code between iOS and Android while maintaining native performance. We implemented a unified data model using Entity Framework Core, which simplified database operations across all platforms.
Role-based access control (RBAC) was crucial for this system. We implemented a hierarchical permission system where administrators can define custom roles with specific access levels. This required careful database design to ensure security while maintaining performance.
Cross-platform synchronization was handled through a RESTful API layer. We implemented optimistic concurrency control to handle simultaneous updates from different platforms, with conflict resolution strategies for critical data like appointment schedules.
The treatment planning module required complex business logic to handle multi-step procedures, dependencies between treatments, and automated cost calculations. We used a state machine pattern to manage treatment workflows effectively.
Performance optimization was key, especially for the reporting module. We implemented database indexing strategies, query optimization, and caching mechanisms to ensure fast report generation even with large datasets.
Lessons learned include the importance of early architectural decisions, the value of comprehensive testing across all platforms, and the need for clear documentation when working with complex multi-platform systems.