太平洋西北地区北部高丛蓝莓抗寒性模型

IF 1.5 3区 农林科学 Q2 HORTICULTURE
Clark Kogan, Lisa W. DeVetter, Gwen-Alyn Hoheisel
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引用次数: 0

摘要

秋季、冬季和春季的低温会对多种多年生水果作物造成损害,包括北方高丛蓝莓(Vaccinium corymbosum)。致命温度的预测模型使生产者能够就减少冰冻的做法做出明智的决定,但对于太平洋西北地区生长的北方高丛蓝莓却缺乏预测模型。如果芽比空气温度更坚硬,那么不必要地使用丙烷加热器和/或风力机是昂贵的。相比之下,在冻结和破坏性温度期间使用加热器和/或风力机可以最大限度地减少作物损害和潜在的产量损失。本研究的目的是模拟在美国华盛顿不同地区种植的北方高丛蓝莓的多个品种的抗寒性,并生成可预测的抗寒性模型,太平洋西北地区的生产者可以使用该模型来通知抗冻措施。对生长在美国华盛顿西部和东部的4个北方高丛蓝莓品种进行了多年耐寒性试验。冷冻室系统地降低芽温,然后解剖芽,评估芽存活情况。采用二项响应和logit联系的广义线性混合模型对各品种的芽成活率、冷冻室温度、近期气温和生长度数在秋季驯化至冬春脱驯化期间的关系进行了拟合。进行模型模拟以获得边际尺度致死温度估计。模型误差估计采用交叉验证。结果表明,可以建立特定品种的抗寒性模型,模型的开发和使用可以帮助种植者做出更明智的防冻决策,并在不必要的情况下最大限度地减少昂贵的防冻应用。此外,这些模型可以适用于其他蓝莓产区和经历类似气候条件的品种。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Modeling Northern Highbush Blueberry Cold Hardiness for the Pacific Northwest
Freezing temperatures in fall, winter, and spring can cause damage to multiple perennial fruit crops including northern highbush blueberry ( Vaccinium corymbosum ). Predictive modeling for lethal temperatures allows producers to make informed decisions about freeze mitigation practices but is lacking for northern highbush blueberry grown in the Pacific Northwest. If buds are hardier than air temperatures, unnecessary use of propane heaters and/or wind machines is costly. In contrast, use of heaters and/or wind machines during freezing, damaging temperatures can minimize crop damage and potential yield loss. The objective of this study was to model cold hardiness across multiple cultivars of northern highbush blueberry grown in various regions in Washington, USA, and to generate predictive cold hardiness models that producers in the Pacific Northwest could use to inform freeze mitigation. Multiple years of experimental cold hardiness data were collected on four cultivars of northern highbush blueberry grown in western and eastern Washington, USA. Freeze chambers were used to reduce bud temperatures systematically, after which buds were dissected and bud survival was assessed. A generalized linear mixed model with a binomial response and logit link was fit to each cultivar to characterize the relationship between bud survival, freezer temperature, recent air temperatures, and growing degree days from fall acclimation to late winter/spring deacclimation. Model simulation was performed to obtain marginal-scale lethal temperature estimates. Model error estimation was performed using cross validation. Results show cultivar-specific cold hardiness models can be generated, and model development and use can help growers make more informed decisions regarding freeze protection that also minimizes costly applications of freeze protection when unnecessary. Furthermore, such models can be adapted to other blueberry growing regions and cultivars experiencing similar climactic conditions.
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来源期刊
Hortscience
Hortscience 农林科学-园艺
CiteScore
3.00
自引率
10.50%
发文量
224
审稿时长
3 months
期刊介绍: HortScience publishes horticultural information of interest to a broad array of horticulturists. Its goals are to apprise horticultural scientists and others interested in horticulture of scientific and industry developments and of significant research, education, or extension findings or methods.
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