Assessing the precision and consistency of agroview in orchard management: A multi-temporal analysis

Remote sensing technologies and predictive models have seen significant advancements, yet issues related to data quality, consistency, and accuracy persist. While many studies emphasize model accuracy, the precision and consistency of these technologies are often overlooked. This study addresses that gap by conducting a comprehensive evaluation of Agroview, a cloud-based AI-driven application, assessing its performance in analyzing plant-level data, such as inventory, canopy height, area, and leaf density, across two citrus blocks over four distinct data collection dates. Agroview demonstrated consistent reliability, with low coefficients of variation (CV) across key metrics. For example, tree inventory showed variations of <3 %, with CVs of 2.63 % for Block A and 1.56 % for Block B. Canopy height measurements exhibited CVs below 9 % for most trees, with a slightly higher CV of 12 % for trees over 12 ft in Block B. This analysis highlights the software's precision and identifies areas for potential refinement. The findings of this study highlight the importance of precision in remote sensing, providing valuable insights for users and stakeholders while promoting confidence in the broader adoption of advanced technologies in agriculture.

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Publication Details

Journal
Smart Agricultural Technology
Published
2024-12-01
DOI
https://doi.org/10.1016/j.atech.2024.100693
Primary Topic
Leaf Properties and Growth Measurement
Type
article
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article

Assessing the precision and consistency of agroview in orchard management: A multi-temporal analysis

Carolina Trentin, Yiannis G. Ampatzidis
Smart Agricultural Technology
Leaf Properties and Growth Measurement
article

Assessing the precision and consistency of agroview in orchard management: A multi-temporal analysis

Carolina Trentin, Yiannis G. Ampatzidis
article en

Abstract

Remote sensing technologies and predictive models have seen significant advancements, yet issues related to data quality, consistency, and accuracy persist. While many studies emphasize model accuracy, the precision and consistency of these technologies are often overlooked. This study addresses that gap by conducting a comprehensive evaluation of Agroview, a cloud-based AI-driven application, assessing its performance in analyzing plant-level data, such as inventory, canopy height, area, and leaf density, across two citrus blocks over four distinct data collection dates. Agroview demonstrated consistent reliability, with low coefficients of variation (CV) across key metrics. For example, tree inventory showed variations of <3 %, with CVs of 2.63 % for Block A and 1.56 % for Block B. Canopy height measurements exhibited CVs below 9 % for most trees, with a slightly higher CV of 12 % for trees over 12 ft in Block B. This analysis highlights the software's precision and identifies areas for potential refinement. The findings of this study highlight the importance of precision in remote sensing, providing valuable insights for users and stakeholders while promoting confidence in the broader adoption of advanced technologies in agriculture.

Smart Agricultural TechnologyVol. 9
University of Florida (US), Southwest Florida Research (US)
Zero hunger
Openalex Percentile: Top 87%
Leaf Properties and Growth Measurement
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Assessing the precision and consistency of agroview in orchard management: A multi-temporal analysis — Carolina Trentin, Yiannis G. Ampatzidis · Smart Agricultural Technology (2024) | TGRS Research Map | TGRS