Land and Water Management Strategies for the Improvement of Crop Production

Ondrašek, Gabrijel; Rengel, Zdenko; Petošić, Dragutin; Filipović, Vilim

doi:10.1016/b978-0-12-800875-1.00013-2

Cited by 11 publications

(6 citation statements)

References 31 publications

(25 reference statements)

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“…Application and adaptation of specific agro/technical/technological operations can also ensure a wide spectrum of land, water, and crop management solutions for controlling and avoiding detrimental effects of salinity to crops [ 12 ]. Some of the most applicative strategies are controlled water management over the applications of (i) modern, low-pressurized, and localized irrigation [ 4 ], and if necessary, (ii) surface/underground drainage systems [ 35 ]. Both systems can help maintain salinized groundwater levels below the critical root zone level and leach concentrated salts from the rhizosphere.…”

Section: Sustainable Approaches and Solutions To Improve Plant Nutrit...mentioning

confidence: 99%

Salt Stress in Plants and Mitigation Approaches

Ondrašek

Rathod

Manohara

et al. 2022

Plants

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Salinization of soils and freshwater resources by natural processes and/or human activities has become an increasing issue that affects environmental services and socioeconomic relations. In addition, salinization jeopardizes agroecosystems, inducing salt stress in most cultivated plants (nutrient deficiency, pH and oxidative stress, biomass reduction), and directly affects the quality and quantity of food production. Depending on the type of salt/stress (alkaline or pH-neutral), specific approaches and solutions should be applied to ameliorate the situation on-site. Various agro-hydrotechnical (soil and water conservation, reduced tillage, mulching, rainwater harvesting, irrigation and drainage, control of seawater intrusion), biological (agroforestry, multi-cropping, cultivation of salt-resistant species, bacterial inoculation, promotion of mycorrhiza, grafting with salt-resistant rootstocks), chemical (application of organic and mineral amendments, phytohormones), bio-ecological (breeding, desalination, application of nano-based products, seed biopriming), and/or institutional solutions (salinity monitoring, integrated national and regional strategies) are very effective against salinity/salt stress and numerous other constraints. Advances in computer science (artificial intelligence, machine learning) provide rapid predictions of salinization processes from the field to the global scale, under numerous scenarios, including climate change. Thus, these results represent a comprehensive outcome and tool for a multidisciplinary approach to protect and control salinization, minimizing damages caused by salt stress.

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Section: Sustainable Approaches and Solutions To Improve Plant Nutrit...mentioning

confidence: 99%

Salt Stress in Plants and Mitigation Approaches

Ondrašek

Rathod

Manohara

et al. 2022

Plants

Self Cite

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“…This possibility is confirmed by the trend of lower levels of Sava river by 0.51 m per year for the period from 2014 to 2018 (Figure 7). Using Sava river water for irrigation should therefore be applied with the utmost rationality, that is, taking into consideration the optimal water regime within the river-soil-plant-atmosphere system, for example [23]. Additionally, the education of local farmers should be included as an important step in the planning and implementation of any irrigation system which is depending on a natural system, such as (Sava) river.…”

Section: Construction Of the Appropriate Irrigation Systemsmentioning

confidence: 99%

Agricultural Management Strategies for Countering Drought Conditions in Eastern Croatia

Mustać¹,

Filipović²,

Filipović³

et al. 2020

Drought - Detection and Solutions

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The occurrence of drought periods which last for several months is becoming increasingly frequent, even in regions which have not encountered them before. Agricultural production is very sensitive to drought, and in areas where such conditions were rather unexpected, it is also unprepared for limited water management. As an example, in the area of the Biđ-Bosut field located in eastern Croatia, a significant change in the agricultural soil water regime is noticed during a long-term study (2003-2018). From 2003 to 2018, the groundwater level at 4 m below the soil surface showed a decreasing trend of 6-10 cm annually, while this negative trend was even more prominent from 2014 to 2018 (18-71 cm annually). Furthermore, water level in a groundwater aquifer at 15 m below the soil surface showed a decreasing trend of 26-77 cm during 2015-2018. In accordance with the obtained results, this study proposes certain agro-hydrotechnical strategies which can be used in agricultural production to alleviate the effects of drought period. Although these management strategies are primarily described on an eastern continental Croatia example, they can also be applied in all agricultural areas with similar agroecological conditions.

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“…Paddy cultivation has been functioning to leach out accumulated salts in the soil profile. Salt leaching in arable soils can be supported by prevailing sub-surface drainage systems (e.g., [15,16]).…”

Section: Impacts Of Paddy Fields In the Dry Region: The Cases Of Egypmentioning

confidence: 99%

Paddy Fields as Artificial and Temporal Wetland

Watanabe¹

2019

Irrigation in Agroecosystems

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Paddy cultivation plays a significant and vital role on rice production. Most of the global population depends on the 480 million tons of rice produced each year as the basis for their lives. While about 90% of the world's 160 million hectares of paddy fields are in Asian countries, mainly in monsoon regions, paddies are also seen in North America and Africa, even in dry regions. Most of the paddy fields are flooded naturally or artificially during rice production period. In the case that paddy fields are kept submerged artificially, hydraulic structures are required. Irrigated paddy fields produce traditionally much rice, taking befits of stable water supply and continuous ponding. Paddy fields are simultaneously performing other functions for local environment, including climate mitigation, flood control, groundwater recharge, biodiversity, and ecosystem development. On the other hand, since paddy fields require much water and modify the original and natural hydrological regime, they might cause adverse effect on local environment. Much water supply by irrigation sometimes requires drainage system, which also might alter local water balance. In this chapter, implication of paddy fields as artificial and temporal wetland is reviewed comprehensively with various aspects, focusing mainly on their role for local hydrological environment.

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Land and Water Management Strategies for the Improvement of Crop Production

Cited by 11 publications

References 31 publications

Salt Stress in Plants and Mitigation Approaches

Salt Stress in Plants and Mitigation Approaches

Agricultural Management Strategies for Countering Drought Conditions in Eastern Croatia

Paddy Fields as Artificial and Temporal Wetland

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