轻量化结构和功能集成使之成为可能：借助仿生蜻蜓，我们的仿生学习网络在技术上实现了蜻蜓高度复杂的飞行特性。就像其自然界原型一样，超轻型飞行器可以向四面八方机动，原地盘旋，不用翻转机翼就能飞行。一个模型第一次可以应对比直升机、动力滑翔机和无动力滑翔机加起来还要多的飞行条件。
In addition to controlling the shared flapping frequency and the rotation of the individual wings, amplitude control is used in each of the four wings. The pivoting of the wings determines the direction of thrust. Amplitude control is used to regulate the amount of thrust. When these are combined, the smartphone-controlled dragonfly can assume almost any position in the space.
Whether in cutting-edge bionic technology solutions or in day-to-day industry, we believe that the principle of ongoing diagnosis guarantees operational reliability and process stability. During flight, software therefore continuously records sensor data, evaluates it in real time and thereby recognises complex events and critical states.