Objective
Design and develop an intuitive Graphical User Interface (GUI) for the foam bath testing system, prioritizing user-friendliness and ease of interaction. The system will comply with international standards (ASTM D 892, ISO 6247, IP 146, ASTM D 6082) and include a “Custom test” feature. JSON data integration will dynamically reflect changes in parameter values, and Modbus TCP/IP integration will facilitate communication with external systems.
Key Components
GUI Design and Development
Craft an intuitive GUI with a user-centric design, ensuring a seamless and efficient user experience during foam bath testing.
Standard Compliance
Implement functionalities adhering to ASTM D 892, ISO 6247, IP 146, ASTM D 6082 standards, featuring three sequences for each standard with distinct temperature settings.
Custom Test Feature
Integrate a “Custom test” feature enabling users to input values for blowing period, flow rate, settling period, bath soaking period, sample soaking, and diffuser stone soaking, with default temperature settings.
JSON Data Integration
Develop a mechanism to extract and integrate parameter values from a “Value.JSON” file. Ensure the GUI dynamically reflects changes, providing real-time updates based on the selected testing standards.
Modbus TCP/IP Integration
Establish seamless communication with external systems through the Modbus TCP/IP protocol. This integration will enable the GUI to receive temperature inputs and transmit outputs to the oil testing module.
Dynamic Process Tracking
Implement a visual display for precise temperature control, progress tracking, countdown timers, and alerts throughout the testing phases. This guarantees a user-guided experience with real-time feedback.
Data Entry and Analysis
Enable users to input and save analysis data directly in Excel using a standardized naming convention. This facilitates organized data management for subsequent analysis and reporting.
User Interaction and Validation
Develop functionalities for users to interact with GUI elements, set parameters, adjust settings, and trigger actions. Implement robust data validation mechanisms to ensure inputs adhere to acceptable ranges and predefined rules.
Graph Generation for Testing Process
We will generate graphs of the testing process and attach them to the report file. After completing the entire test process, we will create a test report and store it in the reports tab. The test reports will be protected with a password.
Configuration Tab for Service Engineers
We have a configuration tab specifically designed for service engineers to check if all the components of the machine are working properly.
Technologies
Frontend Technologies: Python , Tkinter
Backend Technologies: Python
Benefits
The intuitive design ensures a user-friendly experience, reducing the learning curve and enhancing user efficiency.
Compliance with international standards ensures accuracy and reliability in foam bath testing procedures.
Real-time integration of parameter values from "Value.JSON" provides dynamic updates, improving the system's adaptability to changing conditions.
Modbus TCP/IP integration enhances connectivity, allowing seamless communication with external systems for temperature inputs and outputs.
The ability to input and save analysis data directly in Excel with a standardized naming convention streamlines data management for further analysis and reporting.
Conclusion
This project focuses on creating a sophisticated and user-centric GUI for the foam bath testing system, aligning with international standards and incorporating advanced features like dynamic updates, connectivity, and efficient data management. The successful implementation of this scope will result in an advanced testing system that enhances precision, flexibility, and overall user experience in foam bath testing processes.