Data Visualization To Track Water Consumption Across Various Locations
Overview
This project aims to develop a Smart Water Management System utilizing smart technology to monitor and manage water usage efficiently. By closely monitoring water consumption, the system provides real-time data and suggestions for users to optimize water usage in residential and commercial properties. The project is designed to revolutionize water conservation through an intuitive user interface and a cloud-based IoT system.
This IoT solution should monitor and assess environmental conditions in real-time, providing data for informed decision-making to improve the overall environmental health surrounding the industrial site.
Objectives
The primary objective is to design an intuitive and efficient user interface for the Smart Water Management System, enabling users to analyze and manage water consumption. The system incorporates real-time monitoring, reminders, and cloud-based IoT functionalities.
Development Stages
Phase 1: Design Process
We conducted interviews with water experts and users to gain insights into the challenges of water management. Following this, we delved into existing water management systems and explored IoT technologies to identify best practices. Based on the research findings, we created user personas to inform the design process effectively. Subsequently, we developed wireframes with a focus on user interactions and intricate design details. To ensure optimal usability, we tested the wireframes with target users and iteratively refined them for continuous improvement throughout the development process.
Phase 2: Development Process
The project involved designing and developing distinct features for both user and admin dashboards. To achieve this, a technology stack was carefully chosen, which included React.js for the frontend interface along with Redux for state management. AWS Amplify was utilized for seamless deployment and continuous updates of the frontend. On the backend, Node.js and Express.js were employed to create a RESTful API, with PostgreSQL serving as the database management system.
Specific user-oriented components such as consumption charts and services were developed to enhance the user experience. Meanwhile, admin-specific functionalities like data analytics tools and user management systems were implemented to streamline administrative tasks.
The deployment process involved using AWS Amplify to ensure a smooth and efficient deployment pipeline, with a custom domain established for the production environment to enhance branding and accessibility. Additionally, comprehensive user guides were created to assist both end-users and administrators in navigating the platform effectively.
Furthermore, the codebase was thoroughly documented to facilitate future maintenance and updates, ensuring that the project remains scalable, secure, and maintainable in the long run.
Utilize React.js, Redux, and AWS for UI and backend services. On the backend, employ Node.js, Express.js, and PostgreSQL for seamless integration.
Develop user and admin dashboards prioritizing air quality data display, location management, analytics, and system configuration. Ensure an intuitive experience for both users and administrators. Deploy using AWS Amplify, set up a custom domain, and provide comprehensive user guides for reference and troubleshooting
Phase 3: Testing & Documentation
The testing process began by identifying critical features and prioritizing testing paths. This involved configuring testing tools and databases to ensure comprehensive coverage. Realistic test data sets were prepared to simulate various scenarios, allowing for thorough testing of component rendering, state changes, and interactions within the system. Integration testing was then performed to verify proper state management and API communication. Additionally, training sessions were conducted for both administrators and users to ensure they were equipped to effectively use and manage the system.
Project Challenges and Solution
One significant challenge involved troubleshooting device connection issues by examining logs and error messages to identify and address bugs in the communication module. This was overcome through a systematic approach to log analysis and bug resolution.
Impact
The Smart Water Management System has significantly improved water efficiency, offering mindful water consumption in homes and businesses. It represents a revolutionary step towards water conservation by actively suggesting ways to save water and promoting sustainable water management. The user-friendly interface encourages widespread adoption, allowing users to easily monitor and manage water usage for a more water-conscious society. The proactive reminders and real-time monitoring through the cloud-based IoT system ensure instant awareness of water consumption levels.
Technologies/Tools involved
