Modeling the Relationship Between Autonomous Mower Trampling Activity and Turfgrass Green Cover Percentage
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Open Access
Abstract
Autonomous mowers’ navigation pattern plays a crucial role in turfgrass quality, influencing both esthetic and functional performance. However, despite extensive research on mowing efficiency, the effects of different navigation patterns on turfgrass damage and visual quality remain inadequately investigated. This study aimed to evaluate the impact of three different autonomous mower navigation patterns (random, vertical, and chessboard) on operational performance and the effect of trampling activity on turfgrass. Each pattern was tested in terms of data on the number of passages, distance traveled (m), number of intersections and the percentage of area mowed using a remote sensing system and an updated custom-built software. Green coverage percentage was assessed weekly using image analysis (Canopeo app) to evaluate the turfgrass green coverage. The green coverage percentage, together with the number of passages, is analyzed and correlated. The random pattern generated the highest number of passages and intersections, leading to lower average green coverage (64%) compared with the chessboard (80%) and vertical (81%) patterns. Data of the green coverage percentage in the function of the average number of passages recorded using the custom-built software for each pattern fit the asymptotic regression model. The effective number of passages to reach 60% green cover (EP60) was 56.26, 87.30, and 155.32 for random, vertical, and chessboard, respectively. The model could be integrated into DSS, useful for the end user in turf management in order to maintain a high quality. Future studies should extend this approach to other species and environmental conditions, integrating the effective dose (in terms of passages) method for smart mowing management.Keywords
This publication has 40 references indexed in Scilit:
- Recognising lawns as a part of “designed nature”. Pioneering study of lawn’s plant biodiversity in Australian contextUrban Ecosystems, 2025
- The role of turfgrasses in environmental protection and their benefits to humans: Thirty years laterCrop Science, 2024
- Enhancing precision agriculture: A comprehensive review of machine learning and AI vision applications in all-terrain vehicle for farm automationSmart Agricultural Technology, 2024
- The comparison of Canopeo and samplepoint for measurement of green canopy cover for forage crops in IndiaMethodsX, 2022
- A review of precision management for golf course turfgrassCrop, Forage & Turfgrass Management, 2022
- Quantification of the environmental and economic benefits of the electrification of lawn mowers on the US residential marketThe International Journal of Life Cycle Assessment, 2021
- Estimating economic minimums of mowing, fertilizing, and irrigating turfgrassAgricultural & Environmental Letters, 2020
- Promoting sustainable intensification in precision agriculture: review of decision support systems development and strategiesPrecision Agriculture, 2016
- Precision turfgrass management: challenges and field applications for mapping turfgrass soil and stressPrecision Agriculture, 2009
- Use of digital webcam images to track spring green-up in a deciduous broadleaf forestOecologia, 2007