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通过将STB原位服务与实时传感器监测相结合,控制温室温度,以实现更高产量和更高品质的葡萄生产。

Control temperature of greenhouse for higher yield and higher quality grapes production by combining STB in situ service with on time sensor monitoring.

作者信息

Li Zengyuan, Huang Hao, Duan Zhiping, Zhang Weifeng

机构信息

College of Resources and Environmental Sciences, National Academy of Agriculture Green Development, Key Laboratory of Plant-Soil Interactions, Ministry of Education, Agricultural University, Beijing, 100193, China.

出版信息

Heliyon. 2023 Feb 8;9(2):e13521. doi: 10.1016/j.heliyon.2023.e13521. eCollection 2023 Feb.

Abstract

The use of plastic film to promote early cultivation is common by small farmers in Northern China for out of season facility fresh grape production, but the lack of effective technical indicators, sensors and temperature control techniques for facility temperature management has resulted in high cost and low yields. To explore effective ways of enhancing grape yield and quality through temperature monitoring and precise temperature control by sensors under the current plastic covering systems of small farmers. By providing a resident service in the Science and Technology Backyard (STB) and using intelligent sensors to monitor and manage the temperature in small farmers' facilities in real-time (on an hourly basis). We found that the phenological and effective accumulated temperature in plastic film-covered facilities was significantly different from those in open field cultivation, with a 15.9% advance in the phenological process and 19.5% reduction in effective accumulated temperature requirements, as well as a 51.4% increase in effective accumulated temperature requirements during the vegetative stage. In the case of the delay in temperature regulation of the plastic film cover system, it is necessary to control the minimum temperature and high temperature to match the effective accumulated temperature demand. By installing the Pycno temperature sensor, using units of minutes, accurately monitoring the temperature changes inside and outside the facility, and deploying smoke to prevent low temperature and open the air outlet to control the high temperature at the right time, plastic film can reduce the proportion of effective accumulated temperature distribution during the vegetative stage by 3.2% and reduce the vigorous growth of new shoots by 22.2%. The result had shown 40.2% increase in spike weight and 30.1% increase in yield. By combining real-time sensor monitoring with grape growth and development indicators, we have quantified the difference in effective temperature requirements between the vegetative and reproductive growth periods of grapes in current smallholder plastic cover systems and open field cultivation systems. By combining sensor monitoring and technical services in a precise manner, the production of grapes in facilities under smallholder plastic cover systems can also achieve smart agriculture and gain yield and quality improvements.

摘要

在中国北方,小农户使用塑料薄膜促进早熟栽培以进行反季节设施鲜食葡萄生产很常见,但设施温度管理缺乏有效的技术指标、传感器和温度控制技术,导致成本高、产量低。为探索在当前小农户塑料覆盖系统下,通过传感器进行温度监测和精确温度控制来提高葡萄产量和品质的有效方法。通过在科技小院提供驻场服务,利用智能传感器实时(每小时)监测和管理小农户设施内的温度。我们发现,塑料薄膜覆盖设施中的物候期和有效积温与露地栽培有显著差异,物候期提前了15.9%,有效积温需求降低了19.5%,营养生长期的有效积温需求增加了51.4%。在塑料薄膜覆盖系统温度调控延迟的情况下,有必要控制最低温度和高温以匹配有效积温需求。通过安装Pycno温度传感器,以分钟为单位,精确监测设施内外的温度变化,并适时部署烟雾防低温、打开出风口控高温,塑料薄膜可使营养生长期有效积温分布比例降低3.2%,新梢旺长减少22.2%。结果表明,穗重增加了40.2%,产量提高了30.1%。通过将实时传感器监测与葡萄生长发育指标相结合,我们量化了当前小农户塑料覆盖系统和露地栽培系统中葡萄营养生长和生殖生长阶段有效温度需求的差异。通过精确结合传感器监测和技术服务,小农户塑料覆盖系统下设施葡萄生产也能实现智慧农业并提高产量和品质。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/3088/9957702/166bfc443f85/gr1.jpg

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