# Riverine Coverage with an Autonomous Surface Vehicle over Known   Environments

**Authors:** Nare Karapetyan, Adam Braude, Jason Moulton, Joshua A. Burstein, Scott, White, Jason M. O'Kane, Ioannis Rekleitis

arXiv: 1908.02827 · 2019-08-09

## TL;DR

This paper presents three deterministic algorithms for autonomous surface vehicles to efficiently and accurately cover river segments, improving upon manual operations through extensive simulation and real-world deployment.

## Contribution

It introduces novel coverage algorithms for ASVs tailored to river environments, validated through simulations and field tests, enhancing coverage efficiency and accuracy.

## Key findings

- Algorithms increased coverage accuracy and efficiency.
- Successful deployment covered over 35 km in real rivers.
- Validated performance in diverse river shapes and sizes.

## Abstract

Environmental monitoring and surveying operations on rivers currently are performed primarily with manually-operated boats. In this domain, autonomous coverage of areas is of vital importance, for improving both the quality and the efficiency of coverage. This paper leverages human expertise in river exploration and data collection strategies to automate and optimize these processes using autonomous surface vehicles(ASVs). In particular, three deterministic algorithms for both partial and complete coverage of a river segment are proposed,providing varying path length, coverage density, and turning patterns. These strategies resulted in increases in accuracy and efficiency compared to human performance.The proposed methods were extensively tested in simulation using maps of real rivers of different shapes and sizes. In addition, to verify their performance in real world operations, the algorithms were deployed successfully on several parts of the Congaree River in South Carolina, USA, resulting in total of more than 35km of coverage trajectories in the field.

## Full text

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## Figures

42 figures with captions in the complete paper: https://tomesphere.com/paper/1908.02827/full.md

## References

26 references — full list in the complete paper: https://tomesphere.com/paper/1908.02827/full.md

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Source: https://tomesphere.com/paper/1908.02827