背景(考古学)
树(集合论)
计算机科学
环境科学
持续监测
遥感
极限(数学)
时滞
滞后
后备箱
生物系统
滞后时间
土壤科学
变更检测
数学
系统误差
水文学(农业)
数据采集
航程(航空)
统计分析
木材加工
实时计算
气象学
木本植物
数据挖掘
自动化方法
模型验证
数据处理
校准
准确度和精密度
观测误差
全自动
海洋工程
大气科学
软件
度量(数据仓库)
地质学
农业工程
苗木
个人计算机
作者
Martijn van den Ende,Eléonore Oberlé,Thierry Améglio,Robin Ardito,Gildas Gâteblé
标识
DOI:10.1093/treephys/tpaf058
摘要
Abstract Dendrometry is the main non-invasive macroscopic technique commonly used in plant physiology and ecophysysiology studies. Over the years several types of dendrometric techniques have been developed, each with their respective strengths and drawbacks. Automatic and continuous monitoring solutions are being developed, but are still limited, particularly for non-invasive monitoring of large-diameter trunks. In this study, we propose a new type of automated dendrometer based on distributed fibre-optic sensing that continuously measures the change in stem circumference, is non-invasive and has no upper limit on the trunk diameter on which it can be installed. We performed a 3-month validation experiment during which we deployed a fibre-optic cable at three localities around the trunks of two specimens of Brachychiton. We verified the accuracy of this new method through comparison with a conventional point-dendrometer, and we observed a consistent time lag between the various measurement locations that varies with the meteorological conditions. Finally, we discuss the feasibility of the fibre-based dendrometer in the context of existing dendrometric techniques and practical experimental considerations.
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