The Efficiency of Automated Control Microprocessor Systems for LED Irradiation Installations

Crop productivity is significantly affected by the dose of optical radiation. In particular, southern crops do not have enough time to ripen in a temperate climate because of decreased daylight duration. In conditions of protected soil due to low irradiance and a short daylight duration in autumn­-w...

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Main Authors: N. P. Kondratieva, R. I. Korepanov, I. R. Ilyasov, R. G. Bolshin, M. G. Krasnolutskaya, Ye. N. Somova, M. G. Markova
Format: Article
Language:Russian
Published: Federal Scientific Agroengineering Centre VIM 2018-07-01
Series:Сельскохозяйственные машины и технологии
Subjects:
Online Access:https://www.vimsmit.com/jour/article/view/249
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author N. P. Kondratieva
R. I. Korepanov
I. R. Ilyasov
R. G. Bolshin
M. G. Krasnolutskaya
Ye. N. Somova
M. G. Markova
author_facet N. P. Kondratieva
R. I. Korepanov
I. R. Ilyasov
R. G. Bolshin
M. G. Krasnolutskaya
Ye. N. Somova
M. G. Markova
author_sort N. P. Kondratieva
collection DOAJ
description Crop productivity is significantly affected by the dose of optical radiation. In particular, southern crops do not have enough time to ripen in a temperate climate because of decreased daylight duration. In conditions of protected soil due to low irradiance and a short daylight duration in autumn­-winter months, the cultivation of fully developed plants is possible only with the use of artificial radiation sources. The use of LED phytoinstallations with the help of microprocessor­based automatic control systems allows obtaining the required dose of optical radiation. (Purpose of research) To substantiate, as exemplified by meristematic grape plants, the effectiveness of LED phytoinstallations and their impact on the increase in the leaf surface area; to develop multi­colored LED phytoinstallations; to offer new technical solutions to improve the efficiency of the microprocessor system of automatic control of LED phytoinstallations. (Materials and methods) the authors have carried out experiments with meristematic grape plants of RF­48 variety (in vitro) at the stages of their rooting and adaptation. The following equipment has been used: LED phytoirradiator with a changing spectrum using a microprocessor control system, “blinking” led phytoirradiator, multi­colored phytoiradiator with the addition of UV LEDs. The authors have developed on the basis of microcontroller Arduino uno a microprocessor dispensing system of the spectral components of the areas of the photosynthetically active radiation to automatically control the operation of LED­based phytoinstallations. (Results and discussion) it has been shown that a LED irradiator with a changing spectral composition, as compared to a luminescent irradiator, at the stage of rooting of grape microsprouts contributes to a significant increase in the leaf surface area of microplants at 100 percent rooting of sprouts. The blinking phytoirradiator and the UV­LED phytoirradiator, as compared to the fluorescent ones, contributed to an insignificant increase in leaf area of plants at the adaptation stage of grape microplants. (Conclusions) The authors have confirmed the need to further improve the efficiency of the microprocessor­based automatic control system of LED irradiation installations.
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spelling doaj.art-8fb2a22e972b430c8ffc6a48afdbb9422023-03-13T10:16:46ZrusFederal Scientific Agroengineering Centre VIMСельскохозяйственные машины и технологии2073-75992018-07-01123323710.22314/2073-7599-2018-12-3-32-37239The Efficiency of Automated Control Microprocessor Systems for LED Irradiation InstallationsN. P. Kondratieva0R. I. Korepanov1I. R. Ilyasov2R. G. Bolshin3M. G. Krasnolutskaya4Ye. N. Somova5M. G. Markova6Ижевская государственная сельскохозяйственная академия, г. ИжевскИжевская государственная сельскохозяйственная академия, г. ИжевскИжевская государственная сельскохозяйственная академия, г. ИжевскИжевская государственная сельскохозяйственная академия, г. ИжевскИжевская государственная сельскохозяйственная академия, г. ИжевскУдмуртский научно-исследовательский институт сельского хозяйства, г. ИжевскУдмуртский научно-исследовательский институт сельского хозяйства, г. ИжевскCrop productivity is significantly affected by the dose of optical radiation. In particular, southern crops do not have enough time to ripen in a temperate climate because of decreased daylight duration. In conditions of protected soil due to low irradiance and a short daylight duration in autumn­-winter months, the cultivation of fully developed plants is possible only with the use of artificial radiation sources. The use of LED phytoinstallations with the help of microprocessor­based automatic control systems allows obtaining the required dose of optical radiation. (Purpose of research) To substantiate, as exemplified by meristematic grape plants, the effectiveness of LED phytoinstallations and their impact on the increase in the leaf surface area; to develop multi­colored LED phytoinstallations; to offer new technical solutions to improve the efficiency of the microprocessor system of automatic control of LED phytoinstallations. (Materials and methods) the authors have carried out experiments with meristematic grape plants of RF­48 variety (in vitro) at the stages of their rooting and adaptation. The following equipment has been used: LED phytoirradiator with a changing spectrum using a microprocessor control system, “blinking” led phytoirradiator, multi­colored phytoiradiator with the addition of UV LEDs. The authors have developed on the basis of microcontroller Arduino uno a microprocessor dispensing system of the spectral components of the areas of the photosynthetically active radiation to automatically control the operation of LED­based phytoinstallations. (Results and discussion) it has been shown that a LED irradiator with a changing spectral composition, as compared to a luminescent irradiator, at the stage of rooting of grape microsprouts contributes to a significant increase in the leaf surface area of microplants at 100 percent rooting of sprouts. The blinking phytoirradiator and the UV­LED phytoirradiator, as compared to the fluorescent ones, contributed to an insignificant increase in leaf area of plants at the adaptation stage of grape microplants. (Conclusions) The authors have confirmed the need to further improve the efficiency of the microprocessor­based automatic control system of LED irradiation installations.https://www.vimsmit.com/jour/article/view/249светодиодные фитоустановкирастения in vitroмикропроцессорная система управлениясветодиодные ленты
spellingShingle N. P. Kondratieva
R. I. Korepanov
I. R. Ilyasov
R. G. Bolshin
M. G. Krasnolutskaya
Ye. N. Somova
M. G. Markova
The Efficiency of Automated Control Microprocessor Systems for LED Irradiation Installations
Сельскохозяйственные машины и технологии
светодиодные фитоустановки
растения in vitro
микропроцессорная система управления
светодиодные ленты
title The Efficiency of Automated Control Microprocessor Systems for LED Irradiation Installations
title_full The Efficiency of Automated Control Microprocessor Systems for LED Irradiation Installations
title_fullStr The Efficiency of Automated Control Microprocessor Systems for LED Irradiation Installations
title_full_unstemmed The Efficiency of Automated Control Microprocessor Systems for LED Irradiation Installations
title_short The Efficiency of Automated Control Microprocessor Systems for LED Irradiation Installations
title_sort efficiency of automated control microprocessor systems for led irradiation installations
topic светодиодные фитоустановки
растения in vitro
микропроцессорная система управления
светодиодные ленты
url https://www.vimsmit.com/jour/article/view/249
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