5500W 420V Max.200m High Suitcase Tether Station For Tether Drone System
size | 46x26x41.5cm |
weight | 24kg |
input | 220V AC ±10% 50Hz/60Hz |
output | 420V DC / 5.5KW |
height | 100m/150m |
features | ※ Automatic voltage compensation, automatic overcurrent protection ※ Anti -inverted electric momentum for safe landing ※ Isolation design to prevent electric shock ※ With a lifting rod to prevent the cable from dragging on earth ※ Low -current alarm for safe flight ※ Base station with 485 communication to display datas in real time |

A light tether drone system designed like a suitcase offers several advantages, including portability, ease of setup, and minimal interference with the surrounding environment.
Here's a brief overview of how such a system might work:
1. Design: The drone system would be designed as a compact, lightweight suitcase-like package. It should have a durable and weather-resistant exterior to protect the sensitive electronics inside. The case would include handles or a carrying strap for easy transportation.
2. Drone deployment: The drone itself would be stored inside the suitcase, along with a folded or collapsible frame that allows for quick and easy deployment. When needed, the user would open the suitcase, unfold the frame, and attach the drone's propellers and other necessary components.
3. Tether system: The drone would be tethered to the suitcase via a lightweight, flexible cable. This cable would supply power to the drone and potentially serve as a communication link as well. The tether could be detachable, allowing the drone to operate independently when needed.
4. Power supply: A portable battery pack or solar panel would be included in the suitcase to provide power for the drone and its electronics. The battery pack should have a long battery life and fast charging capabilities to ensure continuous operation.
5. Camera and sensors: The drone would be equipped with a high-resolution camera, sensors, and other payload options tailored to specific applications, such as reconnaissance, inspection, or communication relay.
6. Autonomous flight capabilities: The drone would feature advanced flight control systems, enabling it to operate autonomously or under remote control. This would include collision avoidance, obstacle detection, and precision hovering capabilities.
7. Data processing and transmission: The drone's payload would be integrated with a real-time data processing system that enables instant analysis and transmission of the captured data. This would allow for quick decision-making and seamless integration with other systems.
8. Integration with existing infrastructure: The drone system would be designed to work with existing communication and data networks, enabling it to seamlessly integrate with other drone systems or ground stations.
9. Safety features: The drone would include safety features such as emergency landing systems, low-battery alarms, and signal loss protection to ensure safe operation in a variety of environments.
10. Customization and upgradeability: The drone system would be designed with modular components and open-source software, allowing for easy customization and upgradeability to meet the specific needs of different users or applications.
By combining these features, a light tether drone system designed like a suitcase can offer a versatile and portable solution for a wide range of civilian and commercial applications.