An adaptive navigation strategy that adjusts velocity, mapping frequency, and resolution based on obstacle density cuts UAV mission time by up to 3.2X and energy by up to 2.4X in simulation, and 2.6X/1.6X in real flights, versus a fixed baseline.
MAVRL: Learn to Fly in Cluttered Environments with Varying Speed
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abstract
Many existing obstacle avoidance algorithms overlook the crucial balance between safety and agility, especially in environments of varying complexity. In our study, we introduce an obstacle avoidance pipeline based on reinforcement learning. This pipeline enables drones to adapt their flying speed according to the environmental complexity. Moreover, to improve the obstacle avoidance performance in cluttered environments, we propose a novel latent space. The latent space in this representation is explicitly trained to retain memory of previous depth map observations. Our findings confirm that varying speed leads to a superior balance of success rate and agility in cluttered environments. Additionally, our memory-augmented latent representation outperforms the latent representation commonly used in reinforcement learning. Finally, after minimal fine-tuning, we successfully deployed our network on a real drone for enhanced obstacle avoidance.
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EANS: Reducing Energy Consumption for UAV with an Environmental Adaptive Navigation Strategy
An adaptive navigation strategy that adjusts velocity, mapping frequency, and resolution based on obstacle density cuts UAV mission time by up to 3.2X and energy by up to 2.4X in simulation, and 2.6X/1.6X in real flights, versus a fixed baseline.