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Precision Agriculture in Latvia in the Last 20 Years 拉脱维亚近20年的精准农业
Pub Date : 2017-07-01 DOI: 10.1017/S2040470017000681
A. Gailums
The establishment of the system Soil – Yield that occured in Latvia during the 1970–80s could be considered as the beginning of precision farming with the available technologies. The first precision farming technologies have been associated with harvesting where combines and tractors with the automatic steering were used. The precision agriculture in Latvia includes various branches. Latvia farmers are using precision crop farming, precision livestock farming, precision fruit growing, precision bee keeping, precision farming greenhouse and precision growing berries. Precision farming technologies in Latvia are introduced mainly in large scale farms, with more than 1000 ha. The most important researches in precision farming in Latvia were done in 2000s.
1970 - 80年代在拉脱维亚建立的土壤-产量系统可以被认为是利用现有技术进行精准农业的开始。最早的精准农业技术与收获有关,使用的是自动转向的联合收割机和拖拉机。拉脱维亚的精准农业包括多个分支。拉脱维亚的农民正在使用精准种植作物、精准养殖牲畜、精准种植水果、精准养蜂、精准种植温室和精准种植浆果。拉脱维亚的精准农业技术主要是在规模超过1000公顷的大型农场引进的。拉脱维亚最重要的精准农业研究是在2000年代完成的。
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引用次数: 1
High resolution strawberry field monitoring using the compact hyperspectral imaging solution COSI 高分辨率草莓田监测使用紧凑的高光谱成像解决方案COSI
Pub Date : 2017-07-01 DOI: 10.1017/S2040470017001297
S. Delalieux, B. Delauré, L. Tits, M. Boonen, A. Sima, P. Baeck
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引用次数: 4
Creating a statistically representative set of Danish agricultural field shapes to robustly test route planning algorithms 创建具有统计代表性的丹麦农田形状集,以鲁棒性地测试路线规划算法
Pub Date : 2017-07-01 DOI: 10.1017/S2040470017000188
Nick Skou-Nielsen, Andrés Villa-Henriksen, Ole Green, G. Edwards
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引用次数: 4
Translational learnings from Australia: How SPAA plays a role in increasing the adoption of precision agriculture 来自澳大利亚的转化学习:SPAA如何在增加采用精准农业方面发挥作用
Pub Date : 2017-07-01 DOI: 10.1017/S2040470017000085
N. Dimos, R. Schaefer, E. Leonard, J. Koch
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引用次数: 4
Accuracy assessment of a mobile terrestrial laser scanner for tree crops 移动地面激光扫描仪对林木作物的精度评估
Pub Date : 2017-07-01 DOI: 10.1017/S2040470017000073
F. Karp, A. Colaço, R. Trevisan, J. Molin
LiDAR technology is one option to collect spatial data about canopy geometry in many crops. However, the method of data acquisition includes many errors related to the LiDAR sensor, the GNSS receiver and the data acquisition set up. Therefore, the objective of this study was to evaluate the errors involved in the data acquisition from a mobile terrestrial laser scanner (MTLS). Regular shaped objects were scanned with a developed MTLS in two different tests: i) with the system mounted on a vehicle and ii) with the system mounted on a platform running over a rail. The errors of area estimation varied between 0.001 and 0.071 m² for the circle, square and triangle objects. The errors on volume estimations were between 0.0003 and 0.0017 m³, for cylinders and truncated cone.
激光雷达技术是收集许多作物冠层几何空间数据的一种选择。然而,该数据采集方法存在许多与LiDAR传感器、GNSS接收机和数据采集装置相关的误差。因此,本研究的目的是评估移动地面激光扫描仪(MTLS)数据采集所涉及的误差。在两种不同的测试中,使用开发的MTLS扫描规则形状的物体:i)系统安装在车辆上,ii)系统安装在运行在轨道上的平台上。圆形、正方形和三角形物体的面积估计误差在0.001 ~ 0.071 m²之间。对于圆柱体和截锥体,体积估计误差在0.0003 ~ 0.0017 m³之间。
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引用次数: 2
Prototype Environment for integrating and sharing Farm Things and associated data 用于集成和共享农场物品及相关数据的原型环境
Pub Date : 2017-07-01 DOI: 10.1017/S2040470017000425
J. Nikander, R. Linkolehto, Markus Jäger, L. Pesonen, A. Ronkainen, A. Suokannas
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引用次数: 2
Technological and agronomic assessment of a Variable Rate Irrigation system integrated with soil sensor technologies 结合土壤传感器技术的可变速率灌溉系统的技术和农艺评估
Pub Date : 2017-07-01 DOI: 10.1017/S2040470017000140
M. Martello, A. Berti, G. Lusiani, A. Lorigiola, F. Morari
The main goal of this study was assessing the technological and agronomic performances of a centre pivot Variable Rate Irrigation (VRI) system. The study was conducted in 2015 on a 16-ha field cultivated with maize. Irrigation was scheduled in three Management Zones according to data provided by a real-time monitoring system based on an array of soil moisture sensors. First results demonstrated the potential benefits of the VRI system on irrigation performance however a multiyear comparison is requested for evaluating the response to climate variability. VRI resulted in yields comparable to the business-as-usual regime but through a noticeable reduction in irrigation volumes.
本研究的主要目的是评估中心支点可变速率灌溉(VRI)系统的技术和农艺性能。该研究于2015年在一块16公顷的玉米田进行。根据基于一系列土壤湿度传感器的实时监测系统提供的数据,在三个管理区安排灌溉。第一个结果证明了VRI系统对灌溉性能的潜在好处,但需要多年的比较来评估对气候变化的响应。VRI的产量与一切照旧制度相当,但灌溉量明显减少。
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引用次数: 2
Proximal sensing of soil biological activity for precision agriculture 精准农业土壤生物活性的近端传感
Pub Date : 2017-07-01 DOI: 10.1017/S204047001700139X
V. Adamchuk, F. Reumont, J. Kaur, J. Whalen, N. Adamchuk-Chala
There is growing interest in monitoring soil biological health to complement the traditional evaluation of soil physical and chemical characteristics in agricultural fields. Activity of soil microorganisms mediates many essential soil processes that affect fertility, and, therefore, essential to the successful adoption of precision agriculture. However, there are technical limitations to cost-effective monitoring of spatial and temporal dynamics of soil biological activity across agricultural landscapes. This paper summarizes three consecutive studies on in situ measurement of soil biological activity. The first study reveals spatial heterogeneity of microbial population growth in three agricultural fields using bio-films. In the second study, microbiological activity was analyzed using a substrate-induced respiration technique. This technique was evaluated through a series of soil toxicity experiments that involved a comparison of fresh and autoclaved soil samples. Finally, the aim of the third study was to develop a portable instrumented system to evaluate carbon dioxide concentrations in soil by extracting air stored within the soil pores. This instrument was tested under various conditions to quantify the effects of soil moisture, compaction and presence of glucose (artificially increased microbial respiration). Optimization of the discussed techniques will allow for detailed mapping of these indices of soil biological health and their interactions with the physical and chemical environment at any specific point in time.
人们对监测土壤生物健康的兴趣日益增加,以补充农业领域土壤物理和化学特征的传统评价。土壤微生物的活动介导了许多影响肥力的基本土壤过程,因此,对成功采用精准农业至关重要。然而,在具有成本效益的农业景观土壤生物活动时空动态监测方面存在技术限制。本文综述了连续三项土壤生物活性原位测量研究。第一项研究利用生物膜揭示了三种农田微生物种群生长的空间异质性。在第二项研究中,使用底物诱导呼吸技术分析微生物活性。这项技术是通过一系列土壤毒性实验来评估的,这些实验涉及新鲜和高压灭菌土壤样本的比较。最后,第三项研究的目的是开发一种便携式仪器系统,通过提取土壤孔隙中储存的空气来评估土壤中的二氧化碳浓度。该仪器在各种条件下进行了测试,以量化土壤湿度,压实和葡萄糖存在的影响(人工增加微生物呼吸)。优化所讨论的技术将允许详细绘制土壤生物健康的这些指数及其与任何特定时间点的物理和化学环境的相互作用。
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引用次数: 2
Can temperatures from an online weather forecast service be suitable for modelling growth stages using a CERES-Wheat type phenology model? 在线天气预报服务的温度是否适合使用CERES-Wheat类型物候模型来模拟生长阶段?
Pub Date : 2017-07-01 DOI: 10.1017/S2040470017000383
M. Launspach, J. Taylor, J. Wilson
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引用次数: 2
Farmers’ Adoption Path of Precision Agriculture Technology 农民对精准农业技术的采用路径
Pub Date : 2017-07-01 DOI: 10.1017/S2040470017000528
N. Miller, T. Griffin, J. Bergtold, I. Ciampitti, A. Sharda
Precision agriculture technologies have been adopted individually and in bundles. A sample of 348 Kansas Farm Management Association farm-level observations provides insight into technology adoption patterns of precision agriculture technologies. Estimated transition probabilities shed light on how adoption paths lead to bundling of technologies. Three information intensive technologies were assigned to one of eight possible bundles, and the sequence of adoption was examined using Markov transition processes. The probability that farms remain with the same bundle or transition to a different bundle by the next time period are reported. Farms with the complete bundle of all three technologies were likely to persist with their current technology.
精准农业技术已被单独和捆绑采用。堪萨斯州农场管理协会对348个农场层面的观察样本提供了对精准农业技术采用模式的洞察。估计的转移概率揭示了采用路径如何导致技术捆绑。将三种信息密集型技术分配给八个可能的束之一,并使用马尔可夫转换过程检查采用顺序。报告农场在下一个时间段内保持同一捆绑或过渡到不同捆绑的可能性。拥有这三种技术的农场可能会坚持使用现有的技术。
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引用次数: 26
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Advances in Animal Biosciences
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