Cooperation of unmanned systems for agricultural applications: A case study in a vineyard. (November 2022)

• Record Type: Journal Article
• Authors: Mammarella, Martina; Comba, Lorenzo; Biglia, Alessandro; Dabbene, Fabrizio; Gay, Paolo
• Is Part Of: Biosystems engineering. Volume 223(2022)Part B
• Page Start: 81
• Page End: 102
• Publication Date: 2022-11
• Subjects: Precision farming -- Unmanned vehicles cooperation -- Unmanned aerial vehicles -- Unmanned ground vehicles -- Control logic -- Path and mission planning; Bioengineering -- Periodicals; Agricultural engineering -- Periodicals; Biological systems -- Periodicals; Génie rural -- Périodiques; Systèmes biologiques -- Périodiques; 631
• DOI: 10.1016/j.biosystemseng.2021.12.010
• Languages: English
• ISSNs: 1537-5110

Abstract

Abstract : Fully-autonomous vehicles, both aerial and ground, could provide great benefits in the Agriculture 4.0 framework when operating within cooperative architectures, thanks to their ability to tackle difficult tasks, particularly within complex irregular and unstructured scenarios such as vineyards on sloped terrains. A decentralised multi-phase approach has been proposed as an alternative to more common cooperative schemes. When perennial crops are considered, it is advantageous to build a simplified geometrical (and georeferenced) crops model, which can be identified by using 3D point clouds acquired during a-priori explorative missions by unmanned aerial vehicles. This model can be used to plan the tasks to be performed within the crops by the in-field aerial and ground drones. In this companion paper, the proposed strategy is applied to a specific case study involving a vineyard on a sloped terrain, located in the Barolo region in Piedmont, Italy. Ad-hoc technologies and guidance, navigation and control algorithms were designed and implemented. The main objectives were to improve the autonomous driving capabilities of the drones involved and to automate the process of retrieving low-complexity maps from the data collected with preliminary remote sensing missions to make them available for the autonomous navigation by a quadrotor and an unmanned 4-wheel steering ground vehicle within the vine rows. Preliminary results highlight the benefits achievable by exploiting the tailored technologies selected and applied to improve each of the analysed mission phases. Highlights: Autonomous ground and aerial vehicles can lead to improve agriculture management. A collaborative scheme based on a multi-phase approach is proposed. A specific case study involving a vineyard located in the Barolo is presented. Design of advanced GNC schemes are proposed for autonomous navigation of drones.