Mine Detection Drone

Our project of a mine detection aerial vehicle is developed to ensure human safety and detect mines. Initially, the aim is to plan the necessary calculations for the flight capability of the aerial vehicle and software processes ensuring its maneuverability. Subsequently, the intention is to remotely lift the aerial vehicle from a secure area and transport it to the designated zone to commence the mine scanning process. For these procedures, the user interface design will be executed using appropriate interface design software.

While flying over the designated area, the aerial vehicle will maintain a specific distance which is at least 40 centimeters above the ground, close enough to detect mines yet ensuring safety without causing harm to the drone. As the pilot might not be able to gauge the proximity between the drone and the ground, we plan to utilize sensor software to oversee this process. The aerial vehicle will communicate with the mine detector via software to relay the positions of detected mines to the drone operator.

Throughout history, mines have been employed in wars for various purposes like slowing down operations, inflicting material damage, and causing human casualties. However, the absence of a definitive mine detection device and the slow and hazardous nature of ground-based scans emphasize the significance of aerial scanning in this domain. During this era of evolving rotary-wing unmanned aerial vehicle projects, it is anticipated that mine detectors could be integrated into these aerial vehicles.

The objectives of this project encompass the stable flight capability of the rotary-wing aerial vehicle, its resilience against adverse weather conditions, the harmonious functioning of the mine detector with the aerial vehicle, processing acquired data for transfer to a GPS module, and initiating mapping operations. The mine detection application via the aerial vehicle will record the positions of detected mines within the designated area and transmit this information to the control center, enabling communication with relevant units.

Our project of a mine detection aerial vehicle is developed to ensure human safety and detect mines. Initially, the aim is to plan the necessary calculations for the flight capability of the aerial vehicle and software processes ensuring its maneuverability. Subsequently, the intention is to remotely lift the aerial vehicle from a secure area and transport it to the designated zone to commence the mine scanning process. For these procedures, the user interface design will be executed using appropriate interface design software.

While flying over the designated area, the aerial vehicle will maintain a specific distance which is at least 40 centimeters above the ground, close enough to detect mines yet ensuring safety without causing harm to the drone. As the pilot might not be able to gauge the proximity between the drone and the ground, we plan to utilize sensor software to oversee this process. The aerial vehicle will communicate with the mine detector via software to relay the positions of detected mines to the drone operator.

Throughout history, mines have been employed in wars for various purposes like slowing down operations, inflicting material damage, and causing human casualties. However, the absence of a definitive mine detection device and the slow and hazardous nature of ground-based scans emphasize the significance of aerial scanning in this domain. During this era of evolving rotary-wing unmanned aerial vehicle projects, it is anticipated that mine detectors could be integrated into these aerial vehicles.

The objectives of this project encompass the stable flight capability of the rotary-wing aerial vehicle, its resilience against adverse weather conditions, the harmonious functioning of the mine detector with the aerial vehicle, processing acquired data for transfer to a GPS module, and initiating mapping operations. The mine detection application via the aerial vehicle will record the positions of detected mines within the designated area and transmit this information to the control center, enabling communication with relevant units.