Automated Battery Drain Test

Testing battery performance manually can be time-consuming and prone to error. This automated system measures and logs battery voltage while simulating device usage. By combining a 3D-printed PCB probe jig, a Raspberry Pi 4, and cloud connectivity, it provides accurate, real-time insights into battery behavior over time.

Testing battery performance manually can be time-consuming and prone to error. This automated system measures and logs battery voltage while simulating device usage. By combining a 3D-printed PCB probe jig, a Raspberry Pi 4, and cloud connectivity, it provides accurate, real-time insights into battery behavior over time.

Testing battery performance manually can be time-consuming and prone to error. This automated system measures and logs battery voltage while simulating device usage. By combining a 3D-printed PCB probe jig, a Raspberry Pi 4, and cloud connectivity, it provides accurate, real-time insights into battery behavior over time.

Earth from Space

The hardware setup includes a 3D-printed PCB probe jig and an OWON HDS272S multimeter to measure voltage. The Raspberry Pi 4 runs Python scripts that interface with the OWON via its Python API and trigger simulated button presses through GPIO, automating the testing process.

Sensor readings and battery performance data are sent to Adafruit IO, allowing for real-time monitoring and visualization on a cloud dashboard. This enables the collection of long-term data and trends without manual intervention.

This project demonstrates the integration of hardware, software, and cloud systems to streamline testing workflows. It is a practical application for makers and engineers who need consistent, repeatable battery testing while gaining experience with automation, data logging, and IoT connectivity.


The hardware setup includes a 3D-printed PCB probe jig and an OWON HDS272S multimeter to measure voltage. The Raspberry Pi 4 runs Python scripts that interface with the OWON via its Python API and trigger simulated button presses through GPIO, automating the testing process.

Sensor readings and battery performance data are sent to Adafruit IO, allowing for real-time monitoring and visualization on a cloud dashboard. This enables the collection of long-term data and trends without manual intervention.

This project demonstrates the integration of hardware, software, and cloud systems to streamline testing workflows. It is a practical application for makers and engineers who need consistent, repeatable battery testing while gaining experience with automation, data logging, and IoT connectivity.


The hardware setup includes a 3D-printed PCB probe jig and an OWON HDS272S multimeter to measure voltage. The Raspberry Pi 4 runs Python scripts that interface with the OWON via its Python API and trigger simulated button presses through GPIO, automating the testing process.

Sensor readings and battery performance data are sent to Adafruit IO, allowing for real-time monitoring and visualization on a cloud dashboard. This enables the collection of long-term data and trends without manual intervention.

This project demonstrates the integration of hardware, software, and cloud systems to streamline testing workflows. It is a practical application for makers and engineers who need consistent, repeatable battery testing while gaining experience with automation, data logging, and IoT connectivity.


Unlocking the Potential of Scalable Solutions for Success

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Unlocking the Potential of Scalable Solutions for Success

We help you to elevate your projects!

Unlocking the Potential of Scalable Solutions for Success

We help you to elevate your projects!