Quantifying and managing the water-energy-food nexus in dry regions food insecurity: New methods and evidence

Radmehr, Riza; Ghorbani, Mohammad; Ziaei, Ali Naghi

doi:10.1016/j.agwat.2020.106588

Cited by 53 publications

(37 citation statements)

References 67 publications

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“…The ecological enhancement zone is the outer barrier of the ecological core zone. There are a large number of oasis in this area, which is the main gathering place for human activities and an important area to ensure food security [39]. Therefore, it is necessary to limit the development of groundwater resources, vigorously develop water-saving agriculture, improve water delivery projects, strengthen the construction of shelter forests at the edges of oasis and inside oasis, improve wind and sand fixation capabilities, and focus on farmland shelter forests, green passage construction, and key sandstorm management.…”

Section: Main Ecological Restoration Strategiesmentioning

confidence: 99%

Research on Landscape Pattern Construction and Ecological Restoration of Jiuquan City Based on Ecological Security Evaluation

et al. 2021

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Jiuquan City is a typical ecologically fragile area in the arid areas of Northwest China, and unreasonable human activities directly affect the regional ecological security. Scientifically, it is necessary to construct an ecological landscape pattern on the basis of ecological security evaluation. This paper selected evaluation factors based on the perspective of “environmental base and human interference”, used spatial principal component analysis (SPCA) to comprehensively evaluate the regional landscape ecological security, and used the minimum cumulative resistance (MCR) model to construct the regional ecological security pattern. The results show that the overall ecological security level of the study area is low, and the area with a moderate safety level and below is 122,100 km2, accounting for 72.57% of the total area of the study area. The total area of the identified ecological source area is 6683 km2, the spatial distribution is extremely uneven, and it is extremely concentrated in the southern region; 32 ecological corridors with a total length of 3817.8 km are identified, of which corridor NO. 1–4 run through the Qilian Mountains, 11 oasis areas, and 14 nature reserves. The length of ecological corridors is 1376.1 km, accounting for 36.04% of the total. Forty-two ecological nodes are identified, and the central corridor area is more distributed; four ecological restoration zones are divided, including an ecological conservation zone, ecological improvement zone, ecological control zone, and ecological restoration zone, with areas of 34,380.3 km2, 61,884.4 km2, 21,134.4 km2, and 50,648.3 km2, respectively. Through the delineation of the urban ecological network pattern composed of source areas, corridors, and nodes, as well as the delineation of ecological restoration zones, the ecological security level of the study area will be effectively improved. Furthermore, a new method of ecological restoration zoning will be used, hoping to provide a useful reference for improving the quality of the ecological environment in arid areas and optimizing the spatial pattern of the land.

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Section: Main Ecological Restoration Strategiesmentioning

confidence: 99%

Research on Landscape Pattern Construction and Ecological Restoration of Jiuquan City Based on Ecological Security Evaluation

et al. 2021

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“…The agricultural sector, as a producer of food products, significantly depends on water, energy, and chemical products, such that these resources cannot be replaced by other inputs in many cases (Sadeghi et al, 2020;Zhou et al, 2021;Radmehr et al, 2021). Increasing the production of agricultural products to ensure food security needs the use of agrochemicals (Ridolfi et al, 2014;Alvarez et al, 2017).…”

Section: Introductionmentioning

confidence: 99%

“…In order to assess the sustainability of water resources, several criteria have been employed including water availability, the vulnerability of water resources, water stress, water poverty, and physical and water economic productivity. However, considering these criteria without considering the water-energy-food nexus will not have the necessary credibility (Molle and Mollinga, 2003;Brown and Matlock, 2011;Juwana et al, 2012;El-Gafy, 2017;Sadeghi et al, 2020;Radmehr et al, 2021).…”

Section: Introductionmentioning

confidence: 99%

“…Today, the water-energy-food nexus approach has been utilized via different dimensions in several studies under various objective functions in the form of optimization models (Jalilov et al, 2016;Dhaubanjar et al, 2017;El-Gafy et al, 2017;Stamou and Rutschmann, 2018;Zhang et al, 2018;Gonz´alez-Bravo et al, 2018;Si et al, 2019;Hu et al, 2019;Li et al, 2019;Liu et al, 2019;Zhou et al, 2019;Namany et al, 2019;Nie et al, 2019;Niu et al, 2019;Wicaksono et al, 2019;Sun et al, 2020;Ji et al, 2020;Falconer et al, 2020;Esmaeli and Roshandel, 2020;Yu et al, 2020;Medina-Santana et al, 2020;Sadeghi et al, 2020;Radmehr et al, 2021). For instance, Jalilov et al (2016) attempted to optimally allocate water resources in the Amu Darya River Basin using the concept of the water-energy-food approach through maximizing the net present value of the total benefits of agriculture and Hydroelectricity generated in the Rogun Dam.…”

Section: Introductionmentioning

confidence: 99%

“…Sadeghi et al (2020) maximized the water-energy-food index using the linear optimization model based on some constraints of available production factors, and then extracted the optimal cultivation pattern in the Shazand basin in Iran. Radmehr et al (2021) considered the optimal assignment of groundwater resources in the Neishaboor Basin of Iran using the multi-objective planning method for maximizing agricultural, urban, and industrial benefits obtained from the groundwater consumption, as well as minimizing the destruction of groundwater resources. They extracted the sum of Pareto optimal solutions using the ε-constraint method.…”

Section: Introductionmentioning

confidence: 99%

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New Designing The Relationship Between The Water-Energy-Food Nexus With Environmental Objectives At The Basin Level For Sustainable Agricultural Management

Mirzaei

Abdeshahi²,

Azarm

et al. 2021

Preprint

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Accomplishing the objectives of optimal and sustainable management in the agricultural sector is increasingly getting complicated, which includes increasing the sustainable productivity of water and energy resources, ensuring food security, decreasing contaminations from fertilizers and chemical pesticides, and environmental destruction. The present research deals with designing the relationships between the water-energy-food (WEF) nexus approach with economic and environmental objectives to accomplish the aforementioned objectives. Hence, a multi-objective programming model was developed to maximize the water-energy-food nexus index and farmers' gross margin, minimize the use of chemical fertilizers (nitrogen and phosphate), and minimize the use of chemical pesticides (herbicides) by considering the balancing constraint to groundwater resources. Afterward, the proposed multi-objective model was solved using the augmented ε-constraint method, and then the total of strong and efficient Pareto solutions was extracted. Then, the best solution was chosen using the TOPSIS method and assigning a weight of equal importance to the desired objectives. The irrigation network of Jiroft plain in Kerman province in Iran was chosen as the study area to implement such a system. The obtained results indicated that the optimal and sustainable management in the agriculture sector can be hopeful using the proposed approach in the current research. On the other hand, the results revealed that despite considering the economic objective in the proposed system, the farmers' profits can be significantly decreased. Thus, the realization of optimal and sustainable management in the agricultural sector is not possible without the implementation of policies for increasing the economic incentive of farmers.

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Evaluation of food μPADs with the new tech perspectives and future prospects

Okutan Arslan,

Trabzon

2023

eFood

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Food microfluidic paper‐based analytical devices (µPADs) are powerful tools to create total analysis systems and have long been demonstrated to be useful for safety and quality applications. Thanks to new technological innovations food µPADs offer exciting new possibilities. This review introduces how µPADs are obtained from chromatography, filter, or office papers and detect analytes from a food sample. We introduce the most current developments in the use of µPADs with an emphasis on paper types, adapted new technologies, and detection limits. Classifications are also made on food µPADs according to applied innovations and adapted novel technologies. In the first section, simple forms of µPADs for the detection of pathogen, mycotoxin, pesticides, and other food components are discussed with technical details. Then, we introduce multisensing approaches for high throughput analysis and a concise summary will be given. In the case of three‐dimensional (3D) µPADs, the use of 3D is discussed and compared to 2D µPADs in terms of its advantageous with the example of a food colorant test device. In the following section, smartphone adoption to µPADs is introduced in detail with eight different assay examples. Centrifugal platform for nickel assay is demonstrated as an enabling approach with shortened assay times by rotational velocity. The potential of user‐friendly hybrid devices is also summarized in the last part. Finally, we present an outlook to underline the opportunities created by smartphone‐based and intelligent µPADs for food safety and quality with real success perspectives

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Quantifying and managing the water-energy-food nexus in dry regions food insecurity: New methods and evidence

Cited by 53 publications

References 67 publications

Research on Landscape Pattern Construction and Ecological Restoration of Jiuquan City Based on Ecological Security Evaluation

Research on Landscape Pattern Construction and Ecological Restoration of Jiuquan City Based on Ecological Security Evaluation

New Designing The Relationship Between The Water-Energy-Food Nexus With Environmental Objectives At The Basin Level For Sustainable Agricultural Management

Evaluation of food μPADs with the new tech perspectives and future prospects

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