Growth, Yield, and Water Productivity Responses of Pepper to Sub-Irrigated Planter Systems in a Greenhouse

A sub-irrigated planter (SIP) is a container irrigation technique in which water is supplied to the crop from the bottom, stored in a saturated media-filled reservoir beneath an unsaturated soil, and then delivered by capillary action to the root zone. The aim of this study was to optimize the water...

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Main Authors: Vahabi Mashhor, Marjan, Mashal, Mahmoud, Hashemi Garmdareh, Seyyed Ebrahim, Reca Cardeña, Juan, Lao Arenas, María Teresa, Veravipour, Maryam, Ebrahimian, Hamed
Format: info:eu-repo/semantics/article
Language:English
Published: MDPI 2020
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Online Access:http://hdl.handle.net/10835/7695
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author Vahabi Mashhor, Marjan
Mashal, Mahmoud
Hashemi Garmdareh, Seyyed Ebrahim
Reca Cardeña, Juan
Lao Arenas, María Teresa
Veravipour, Maryam
Ebrahimian, Hamed
author_facet Vahabi Mashhor, Marjan
Mashal, Mahmoud
Hashemi Garmdareh, Seyyed Ebrahim
Reca Cardeña, Juan
Lao Arenas, María Teresa
Veravipour, Maryam
Ebrahimian, Hamed
author_sort Vahabi Mashhor, Marjan
collection DSpace
description A sub-irrigated planter (SIP) is a container irrigation technique in which water is supplied to the crop from the bottom, stored in a saturated media-filled reservoir beneath an unsaturated soil, and then delivered by capillary action to the root zone. The aim of this study was to optimize the water management and to assess the performance of this technique in terms of water use efficiency, soil moisture, and solute distribution in comparison with surface irrigation in a Mediterranean greenhouse. The experiment consisted of four SIP treatments, with a constant water level in the bottom reservoir in order to evaluate the effect of two different irrigation salinities (1.2 and 2.2 dS m−1) and two depths of substrate profiles (25 and 15 cm). The results showed that SIP is capable of significantly improving both water-use efficiency and plant productivity compared with surface irrigation. Also, a 24% average reduction in water consumption was observed while using SIP. Moreover, SIPs with a higher depth were recommended as the optimum treatments within SIPs. The type of irrigation method affected the salinity distribution in the substrate profile; the highest salinity levels were registered at the top layers in SIPs, whereas the maximum salinity levels for the surface treatments were observed at the bottom layers. SIPs provide a practical solution for the irrigation of plants in areas facing water quality and scarcity problems.
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spelling oai:repositorio.ual.es:10835-76952023-04-12T18:56:34Z Growth, Yield, and Water Productivity Responses of Pepper to Sub-Irrigated Planter Systems in a Greenhouse Vahabi Mashhor, Marjan Mashal, Mahmoud Hashemi Garmdareh, Seyyed Ebrahim Reca Cardeña, Juan Lao Arenas, María Teresa Veravipour, Maryam Ebrahimian, Hamed sub-irrigated planter Capsicum annuum L capillary water use efficiency plant productivity salinity A sub-irrigated planter (SIP) is a container irrigation technique in which water is supplied to the crop from the bottom, stored in a saturated media-filled reservoir beneath an unsaturated soil, and then delivered by capillary action to the root zone. The aim of this study was to optimize the water management and to assess the performance of this technique in terms of water use efficiency, soil moisture, and solute distribution in comparison with surface irrigation in a Mediterranean greenhouse. The experiment consisted of four SIP treatments, with a constant water level in the bottom reservoir in order to evaluate the effect of two different irrigation salinities (1.2 and 2.2 dS m−1) and two depths of substrate profiles (25 and 15 cm). The results showed that SIP is capable of significantly improving both water-use efficiency and plant productivity compared with surface irrigation. Also, a 24% average reduction in water consumption was observed while using SIP. Moreover, SIPs with a higher depth were recommended as the optimum treatments within SIPs. The type of irrigation method affected the salinity distribution in the substrate profile; the highest salinity levels were registered at the top layers in SIPs, whereas the maximum salinity levels for the surface treatments were observed at the bottom layers. SIPs provide a practical solution for the irrigation of plants in areas facing water quality and scarcity problems. 2020-02-19T08:10:11Z 2020-02-19T08:10:11Z 2020-02-04 info:eu-repo/semantics/article 2071-1050 http://hdl.handle.net/10835/7695 en https://www.mdpi.com/2071-1050/12/3/1100 Attribution-NonCommercial-NoDerivatives 4.0 Internacional http://creativecommons.org/licenses/by-nc-nd/4.0/ info:eu-repo/semantics/openAccess MDPI
spellingShingle sub-irrigated planter
Capsicum annuum L
capillary
water use efficiency
plant productivity
salinity
Vahabi Mashhor, Marjan
Mashal, Mahmoud
Hashemi Garmdareh, Seyyed Ebrahim
Reca Cardeña, Juan
Lao Arenas, María Teresa
Veravipour, Maryam
Ebrahimian, Hamed
Growth, Yield, and Water Productivity Responses of Pepper to Sub-Irrigated Planter Systems in a Greenhouse
title Growth, Yield, and Water Productivity Responses of Pepper to Sub-Irrigated Planter Systems in a Greenhouse
title_full Growth, Yield, and Water Productivity Responses of Pepper to Sub-Irrigated Planter Systems in a Greenhouse
title_fullStr Growth, Yield, and Water Productivity Responses of Pepper to Sub-Irrigated Planter Systems in a Greenhouse
title_full_unstemmed Growth, Yield, and Water Productivity Responses of Pepper to Sub-Irrigated Planter Systems in a Greenhouse
title_short Growth, Yield, and Water Productivity Responses of Pepper to Sub-Irrigated Planter Systems in a Greenhouse
title_sort growth, yield, and water productivity responses of pepper to sub-irrigated planter systems in a greenhouse
topic sub-irrigated planter
Capsicum annuum L
capillary
water use efficiency
plant productivity
salinity
url http://hdl.handle.net/10835/7695
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