With inspiration from arthropods' exoskeletons, we designed a simple, easily manufactured, semi-rigid structure with flexible joints that can passively damp impact energy. This exoskeleton fuses the protective shell to the main robot structure, thereby minimizing its loss in payload capacity. Our design is simple to build and customize using cheap components and consumer-grade 3D printers. Our results show we can build a sub-250g, autonomous quadcopter with visual navigation that can survive multiple collisions, shows a five-fold increase in the passive energy absorption, that is also suitable for automated battery swapping, and with enough computing power to run deep neural network models. This structure makes for an ideal platform for high-risk activities (such as flying in a cluttered environment or reinforcement learning training) without damage to the hardware or the environment.
翻译:利用节肢动物的外骨质素的灵感,我们设计了一个简单、容易制造的半硬体结构,具有灵活的接合点,能够被动地潮湿地撞击能量。这个外骨骼将防护壳与主要机器人结构连接起来,从而最大限度地减少其有效载荷能力的损失。我们的设计很简单,可以使用廉价部件和消费者级的3D打印机来建造和定制。我们的结果表明,我们可以建造一个二级250克的自动四肢电脑,可进行视觉导航,在多次碰撞中幸存下来,这表明被动能量吸收增加了五倍,这也适用于自动电池交换,并有足够的计算能力运行深神经网络模型。这一结构为高风险活动提供了一个理想的平台(如在封闭的环境中飞行或加强学习培训),而不会损害硬件或环境。