Activity | Dates | Description |
---|---|---|
Concept Development and Planning | 08/01/2024 - 12/01/2024 | Develop project concept, define scope, and initial planning. |
Research and Requirements Gathering | 13/01/2024 - 15/02/2024 | Conduct research, gather requirements, and analyze feasibility. |
Design and Prototyping | 16/02/2024 - 15/03/2024 | Design project components, create prototypes, and develop core functionalities. |
Testing and Debugging | 01/04/2024 - 30/04/2024 | Perform testing, debug issues, and ensure functionality meets requirements. |
Integration of Modules | 01/05/2024 - 15/05/2024 | Integrate all project modules, ensure compatibility, and conduct system testing. |
Testing | 16/05/2024 - 25/05/2024 | Conduct Testing, gather feedback, and make necessary refinements. |
Documentation and Finalization | 26/05/2024 - 04/06/2024 | Prepare project documentation, user manuals, and finalize deliverables. |
Presentation and Deployment | 05/06/2024 - 12/06/2024 | Prepare for final presentation, showcase project outcomes, and deploy if applicable. |
I also plan to build a web dashboard that will be used to monitor data from airquality monitoring sensors on the device. You can find the details in Interface and application programming week assignment
During this week, significant progress has been made on the project. Key tasks that have been completed include:
Despite the progress, several tasks remain to be completed:
There have been successes and challenges during the development process:
As the project progresses, several questions need to be addressed:
The following steps are planned for the upcoming week:
Throughout this week, several important lessons have been learned:
Currently, my project is progressing well, focusing on developing a smart solar-powered mosquito killer with air quality monitoring capabilities. The project began with conceptualizing and designing a device that uses electric shocks instead of traditional kerosene methods for mosquito eradication. We have integrated a communication with WiFi for real-time data transmission to a cloud platform, facilitating comprehensive monitoring of air quality parameters such as CO2 levels. At present, we are in the final stages of assembling and testing the prototype to ensure seamless functionality and robust performance across various environmental conditions.
The essence of my project revolves around innovating mosquito control and air quality monitoring through sustainable technology. By replacing kerosene with electric shocks in our smart solar-powered device, we enhance safety and efficacy while minimizing environmental impact. The integration of a communication module enables real-time data transmission to our cloud platform, providing users with crucial insights into air quality metrics like CO2 levels. Through meticulous design, testing, and integration, our project aims to deliver an innovative solution that not only combats malaria but also fosters healthier living environments.