菠萝开花和收获期预测模型

IF 0.9 4区 农林科学 Q4 HORTICULTURE
Toshihiko Sugiura, Makoto Takeuchi, Takuya Kobayashi, Yuta Omine, Itaru Yonaha, Shohei Konno, Moriyuki Shoda
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引用次数: 0

摘要

建立了菠萝的生长度数(GDD)模型,用于预测开花和收获日期;然而,它还没有适应日本种植区的气候,那里的气温波动很大,预测精度很低。本研究旨在通过分析来自日本主要产区(名护)和较温暖产区(石垣)的大型物候数据集,开发高精度预测开花和收获日期的模型。在25°C左右的气温下,萌发和开花之间的天数减少,在25°C以上保持不变。开花和收获之间的天数减少到大约23°C。日照长度对开花和收获的影响较小。利用GDD模型和指数函数模型建立了气温与出芽至开花、开花至收获发育速率的关系模型,二者均有上限。与传统的GDD模型相比,具有上限温度的GDD模型在预测花期和收获期方面更为准确。特别是收获日期的预测精度得到了显著提高。由于开花前发育速率与气温的关系是指数关系而不是线性关系,因此指数函数模型对开花日期的预测更为准确。最准确的模型预测花期的均方根误差为3.7 ~ 6.1 d,收获期的均方根误差为6.1 ~ 10.2 d。我们相信,这些模型将有助于在日本等温度范围较宽的地区规划菠萝的运输,并有助于应对气候变化的种植管理。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Models for Predicting Pineapple Flowering and Harvest Dates

The growing-degree-days (GDD) model for pineapple was developed to predict flowering and harvest dates; however, it has not been adapted to the climate in Japan’s growing regions, where air temperatures fluctuate over a wide range, and the prediction accuracy is low. The present study aimed to develop models for predicting flowering and harvest dates with high accuracy by analyzing a large phenological dataset from Japan’s main (Nago) and warmer (Ishigaki) production areas. The number of days between budding and flowering decreased at air temperatures of up to approximately 25°C and remained constant above 25°C. The number of days between flowering and harvest decreased until approximately 23°C. The effect of day length on both days to flowering and harvest was small. The relationship between air temperature and the developmental rate after budding to flowering and after flowering to harvest was modeled using the GDD and exponential function models, both with upper limits. The GDD model with an upper limit temperature was more accurate at predicting flowering and harvest dates compared to the conventional GDD model. In particular, the prediction accuracy of the harvest date was dramatically improved. Because the relationship between the developmental rate until flowering and the air temperature was exponential rather than linear, the exponential function model provided a more accurate prediction of the flowering date. The root-mean-square errors of the most accurate models were 3.7–6.1 days for predicting the flowering date and 6.1–10.2 days for the harvest date. We believe that these models will be useful for planning shipments of pineapple in regions with wide temperature ranges, such as Japan, and for cultivation management in response to climate change.

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来源期刊
Horticulture Journal
Horticulture Journal HORTICULTURE-
CiteScore
2.20
自引率
8.30%
发文量
61
期刊介绍: The Horticulture Journal (Hort. J.), which has been renamed from the Journal of the Japanese Society for Horticultural Science (JJSHS) since 2015, has been published with the primary objective of enhancing access to research information offered by the Japanese Society for Horticultural Science, which was founded for the purpose of advancing research and technology related to the production, distribution, and processing of horticultural crops. Since the first issue of JJSHS in 1925, Hort. J./JJSHS has been central to the publication of study results from researchers of an extensive range of horticultural crops, including fruit trees, vegetables, and ornamental plants. The journal is highly regarded overseas as well, and is ranked equally with journals of European and American horticultural societies.
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