Impact Of Water Scarcity Research Articles

Examining the impact of water scarcity on agricultural output in the Gulf Cooperation Council (GCC) region

AbstractThis research paper examines the impact of water scarcity on agricultural output in the Gulf Cooperation Council (GCC) region. It highlights the increasing global water scarcity and its consequences, including the prevalence of water‐stressed areas and the adverse effects on human health and economic sectors. The paper focuses on the GCC region, known for its water scarcity and desertification, exacerbated by climate change and pollution. The study aims to investigate the relationship between water stress levels and agricultural productivity, evaluating the effects of freshwater withdrawals, fertilizer consumption, and agricultural methane emissions on crop production. Additionally, it explores the connection between agricultural output and net national income per capita. By addressing these research questions, the study contributes to the understanding of agricultural water scarcity and its implications for global food security and sustainability. The paper utilizes data from the World Bank to analyze crop production in the GCC countries from 2001 to 2020, shedding light on the influence of water scarcity on agricultural landscapes. The research highlights the efforts made by GCC countries to enhance food security, including strategic investments in agricultural lands and bilateral agreements. It also discusses the challenges faced by specific countries within the region, such as Saudi Arabia, the United Arab Emirates (UAE), and Kuwait, in terms of agricultural production and water constraints. Overall, the paper provides insights into the complexities of agricultural water scarcity and its effects on the GCC region, emphasizing the need for sustainable solutions to ensure food security and economic stability.

Impact of Water Scarcity on the Growth of Golden Sweet Potato

In this review study, the effect of water scarcity on the growth of Golden Sweet Potatoes (Ipomoea batatas) is investigated. Particular emphasis is made to the morphological and biochemical responses of this significant crop to weather circumstances that are characterized by drought. One of the most important crops, the golden sweet potato is well-known for the remarkable nutritional benefits it has, including high levels of vitamins, minerals, and antioxidants. Water scarcity, which is made worse by climate change and expanding agricultural requirements, poses significant threats to its production and productivity. However, these threats are made worse by the fact that water is scarce. In order to achieve the objective of this study, which is to provide a comprehensive understanding of how the growth and physiological health of Golden Sweet Potato plants are influenced by decreased water availability, the data from prior studies will be synthesized. The study focuses on the key morphological changes that occur as a result of water scarcity. These changes include a decrease in plant height, leaf area, biomass production, and root architecture. When the plant is experiencing a drought, these alterations demonstrate that it is making an effort to save water and maintain critical physiological functions. Biological reactions, such as alterations in protein synthesis, glucose metabolism, antioxidant activity, and chlorophyll content, are also investigated in this research. Chlorophyll content regularly decreases in reaction to water scarcity, which in turn reduces the efficiency of photosynthetic processes and the overall amount of energy produced. Through the production of stress-responsive proteins and the accumulation of osmolytes, which are both essential adaptation processes, plants are able to control the process of dehydration and maintain the integrity of their cells. An further characteristic response that protects plants from the oxidative stress that is brought on by drought is an increase in the activity of antioxidants. For the purpose of summarizing, this article presents a comprehensive investigation of the ways in which water scarcity influences the growth of golden sweet potatoes. It also gives insights into the processes by which the plant adapts to drought and alternative approaches for improving drought resistance. When it comes to finding solutions to the issues that are brought about by climate change and water scarcity in agriculture, the findings highlight how urgently additional research and ingenuity are required.

Assessing the impact of water scarcity on thermoelectric and hydroelectric potential and electricity price under climate change: Implications for future energy management

This study investigates the impact of water resource restrictions on thermoelectric and hydroelectric stations, analyzing its influence on demand and electricity prices. It uses General Circulation Models (GCMs) and Soil and Water Assessment Tools (SWAT) to forecast future temperature trends and estimate river flow patterns. The research provides insights into climate change's potential effects on water resources and electricity potential. The study shows a significant decrease in river flow, indicating potential issues with hydroelectric and thermoelectric systems. The study also uses an optimized Echo State Network (ESN) for accurate electricity demand, using the Modified Snow Leopard Optimization (MSLO) algorithm as a new metaheuristic model. The simulation results show a consistent increase in electricity demand scenarios, which is expected to lead to higher supply prices due to decreased production capacity. This could have significant economic effects. The investigation provides a comprehensive understanding of water resource management challenges in power production, aiding in informed decisions in the future energy industry.

Article Review: Relationship between Toxoplasmosis and other Diseases

Water provision is sensitive to climate change, and agricultural production and food supply are sensitive to water availability. Water scarcity affects food security and agricultural economic development through changes in agricultural production and changes in the composition of produced goods. Recent droughts also led to a decrease in the volume of water allocated to agriculture, which led to a decrease in total agricultural production and exports, and this has subsequent impacts on food security and economic development. The research aimed to measure the impact of water scarcity on agricultural economic development for the period 1990-2022. The research included three behavioral equations with three endogenous variables: the cultivated area, the value of agricultural output, and the value of gross domestic product, and four exogenous variables: the amount of available water, agricultural labor, and the value of agricultural investments and the income of other sectors, the studied model is called the sequential model, which was estimated using the Recursive method, using the ordinary least squares (OLS) method. The results indicated that increasing the amount of available water will lead to an increase in the cultivated areas by 141,129.2 dunums, and that increasing one thousand dunums of the cultivated area will increase agricultural output by 0.00821, and that agricultural labor is inversely proportional to agricultural output. It became clear that if the income of the rest of the sectors increased by one unit, the domestic product would increase by 0.1873. Water scarcity will reduce cultivated areas, which in turn will decrease agricultural output, causing the value of agricultural output to decrease and its contribution to the gross domestic product to decrease. In turn, it will have serious repercussions on agricultural economic development. Therefore, the research recommends the necessity of integrated water management and improving the efficiency of its use, as well as the application of modern technologies in agriculture, such as sprinkler irrigation, hydroponics, and redrawing crop compositions to ensure maximizing the net return per unit of water.

Life cycle assessment of a circular textile value chain: the case of a garment made from chemically recycled cotton

Abstract Purpose The textile industry faces major challenges in reducing environmental impacts along the whole value chain. The overall aim of this paper was to assess the potential environmental benefit of a circular textile value chain, by evaluating a garment partly made from a chemically recycled cellulose carbamate fibre. The cellulose carbamate technology is a novel technology that turns cotton-rich textile waste into a cotton-like regenerated fibre. Methods Life cycle assessment was performed to evaluate the environmental impacts of a garment made from the chemically recycled fibre, considering the whole life cycle. The evaluation also considered that the garment was part of a take-back system, meaning that the garment is collected for recycling after consumer use and thereby helps in closing the loop of the circular textile value chain. The focus of the assessment was on climate impact, water scarcity impact and land use impact. Furthermore, sensitivity analyses were included to test parts of the European Commission’s product environmental footprint method, e.g. the impact of applying the circular footprint formula. Results and discussion The results showed that (1) using a recycled cellulose carbamate fibre over primary conventional cotton showed benefits in all considered environmental impact categories; (2) compared to organic cotton, the benefits were also shown for the land use impact category; (3) the cradle to gate processes were the main hotspots for the garment’s life cycle, meaning that using a recycled feedstock is not the only measure needed to reduce environmental burdens; (4) the use phase, and in particular using the garment to its full life length, is crucial for mitigating the environmental impact per garment use; and (5) methodological choices related to the use of recycled feedstock, and sending materials to recycling at end-of-life, affect the outcome of the study. Conclusions Selecting a chemically recycled cellulose carbamate fibre over primary fibres showed environmental benefits for the evaluated garment, but there are however trade-offs between different environmental impact categories and fibre types. Furthermore, using recycled fibres is one important step in reducing the environmental concerns of garments, but it is important to also make improvements along the whole textile value chain.

Assessing the impact of fresh water scarcity on semiarid vegetation by remote sensing, case study: Karbala, Iraq

Assessing the impact of fresh water scarcity on semiarid vegetation by remote sensing, case study: Karbala, Iraq

Impact of water scarcity on rural livelihood in the drought-prone region: A review of global perspectives

Water scarcity is a challenging task for the vast majority of people in the world, which has occurred due to changes in weather patterns due to less rainfall than usual. According to perceptions, in some parts of the world, water scarcity will be more frequent and intense now. Over 200 published articles and reports from the period 2003–2023 were considered for the measurement of the global impact of water shortages on livelihoods in arid areas. Such a type of review study is designed for a systematic approach. The manuscript illustrated different dimensions of water scarcity impacts by using electronic search engines, including Google, Scopus, Science Direct, Google Scholar, PubMed, ResearchGate, and Web of Science. The study was then distinguished by including the word water scarcity with keywords such as landscape, vulnerability, adjustment, displaced person, health effect, and risk management to inquire about the necessary articles. The study results illustrated that the shortage of water during the drought period increased the misery of affected people. Droughts affect the livelihood of these people in agronomic activities, food production and security, and natural assets, causing prolonged suffering.

Co-financing irrigation water services: farmers' perspectives in the Mekong Delta, Vietnam

Insufficient financial resources pose a considerable obstacle to Vietnam's endeavors to alleviate the repercussions of climate change. The adverse impacts of extreme weather events, particularly drought and water scarcity, have inflicted severe consequences on rice production across diverse regions, imperiling both the livelihoods of farmers and the nation's food security. While international aid is crucial, involving farmers in co-financing irrigation water services is essential for addressing these challenges in the long run. This study employs a blended approach encompassing quantitative and qualitative methodologies to investigate the determinants influencing farmers' willingness to participate in co-financing irrigation water services. Data were meticulously gathered through direct interviews with 289 farmers in An Giang province within the Mekong Delta, Vietnam. The findings underscore that the majority of respondents (86.16%) reported encountering water-related stresses in rice production, with 76.47% experiencing productivity losses attributable to extreme weather events. The results of the binary logistic regression model reveal significant factors associated with a farmer's decision to engage in co-financing irrigation services, including household income, participation in non-farm employment, farmers' perceptions of water scarcity, the adverse impact of water scarcity on rice yields, and the assessment of associated risks. Based on these discernments, we offer several policy recommendations aimed at facilitating the efficacious implementation of the irrigation water service co-financing initiative.

Measuring The Impact of Water Scarcity on Agricultural Economic Development in Iraq

Measuring The Impact of Water Scarcity on Agricultural Economic Development in Iraq

Assessing the impact of climate change and water scarcity of ferronickel production in Indonesia: A life cycle assessment approach

In Indonesia, emissions from coal-fired steam power stations are the greatest environmental concern of the nickel industry. Prior researches have exclusively focused on carbon dioxide (CO2) emissions. Meanwhile, this study includes CO2 fossil and CO2 biogenic emissions as well as CO2 absorption by plants into its assessment of the climate change consequences associated with ferronickel production in Indonesia. The objective of this study is to evaluate the potential impacts of climate change and water scarcity on the nickel industry in Indonesia by implementing various power facility scenarios. The methodology chosen for this study was Attributional Life Cycle Assessment (ALCA). The impact of climate change can be reduced by 38.9 %, or from 99,024.7 to 60,522.2 kg CO2 eq/t, if coal fuel is replaced with biomass fuel in steam power plants. By replacing steam power stations fuelled by coal with hydroelectric facilities, the impact of climate change can be reduced by 96 %, from 99,024.7 to 3,993.7 kg CO2 eq/t. This results in a 12.5 % decrease in water scarcity, from 100.3 to 89.1 m3 H2O eq/t. In the nickel industry, hydroelectric power plants are more effective at mitigating climate change than steam power plants powered by coal or biomass.

Microbial preference for chlorate over perchlorate under simulated shallow subsurface Mars-like conditions

The Martian surface and shallow subsurface lacks stable liquid water, yet hygroscopic salts in the regolith may enable the transient formation of liquid brines. This study investigated the combined impact of water scarcity, UV exposure, and regolith depth on microbial survival under Mars-like environmental conditions. Both vegetative cells of Debaryomyces hansenii and Planococcus halocryophilus, alongside with spores of Aspergillus niger, were exposed to an experimental chamber simulating Martian environmental conditions (constant temperatures of about − 11 °C, low pressure of approximately 6 mbar, a CO2 atmosphere, and 2 h of daily UV irradiation). We evaluated colony-forming units (CFU) and water content at three different regolith depths before and after exposure periods of 3 and 7 days, respectively. Each organism was tested under three conditions: one without the addition of salts to the regolith, one containing sodium chlorate, and one with sodium perchlorate. Our results reveal that the residual water content after the exposure experiments increased with regolith depth, along with the organism survival rates in chlorate-containing and salt-free samples. The survival rates of the three organisms in perchlorate-containing regolith were consistently lower for all organisms and depths compared to chlorate, with the most significant difference being observed at a depth of 10–12 cm, which corresponds to the depth with the highest residual water content. The postulated reason for this is an increase in the salt concentration at this depth due to the freezing of water, showing that for these organisms, perchlorate brines are more toxic than chlorate brines under the experimental conditions. This underscores the significance of chlorate salts when considering the habitability of Martian environments.

A Comprehensive study of wheat genotypes for combining ability and heritability in drought tolerance

A major challenge in wheat cultivation is the negative impact of water scarcity on growth and yield. Therefore, it is crucial to develop wheat varieties with both high productivity and resilience to drought stress to support food production and improve global food security. The study aims to identify general and specific combining abilities and to understand the genetic mechanisms responsible for key traits by employing half-diallel analysis. In the current study, a half-diallel set comprising 10 x 10 wheat genotypes was subjected to crosses in all feasible combinations, excluding reciprocals, under drought stress conditions. Significant mean squares were observed for both General Combining Ability (GCA) and Specific Combining Ability (SCA) components among the 10 parents and 45 F1 progenies across eleven traits. Assessment of variance components (s2g and s2s), narrow-sense heritability (Hn), broad-sense heritability (Hb) and the GCA/SCA ratio allowed for the determination of the relative contributions of additive and non-additive genetic components. High narrow-sense heritability was noted for traits such as days to 75 % flowering, spike length and biological yield, indicating their predominantly additive genetic control. Conversely, the remaining eight traits exhibited low narrow-sense heritability, suggesting their inheritance is primarily governed by non-additive genetic factors, thus indicating the potential benefits of heterosis breeding. Based on GCA effects, P5 demonstrated superior general combining ability across traits, except for biological yield. P1, P3, P8 and P9 exhibited better combining ability for grain yield per plant. Specific cross combinations including P7×P10, P3×P4 and P5×P6 displayed notable specific combining ability and could be leveraged to develop superior pure lines in subsequent breeding endeavors.

Systems analysis for energy assets of Iraq influenced by water scarcity

Water security in arid and semi-arid Middle Eastern climates has been severely impacted by effects of climate change such as reduced precipitation, diminished storage, increased evapotranspiration, and prolonged heat waves. These climate effects are compounded in Iraq, where populations, agriculture, industry, and energy rely heavily on varying transboundary water flows to meet water demands. Iraq’s most profitable sector, energy, is especially threatened by insufficient water supply, which complicates government decision making in energy infrastructure development. The goal of this paper is to develop a scenario-based multi-criteria analysis framework to prioritize infrastructure investments in the context of climate change and scarcity of natural resources. Infrastructure facilities are evaluated against social, economic, climate, and hydrologic criteria across a set of disruptive climatological, economic, and social scenarios to identify robust initiatives and the most and least disruptive scenarios to the system. A particular innovation of this paper is the evaluation of hydrology data derived from satellites in determining water scarcity impact on individual energy facilities. The methods are demonstrated for a critical sector of Iraq’s economy: oil and natural gas. The demonstration includes 13 system-order criteria, 44 oil and gas initiatives within Iraq, and seven risk scenarios. The results include an accounting of the most and least disruptive scenarios to energy sector priorities and scenario-based system orderings to guide stakeholders in investment prioritization.

Aridification and Its Impacts on Terrestrial Hydrology and Ecosystems over a Comprehensive Transition Zone in China

Abstract In China, the topography, climate, ecology, hydrology, and human environment vary greatly from southeast to northwest, and a typical natural and social environmental transition zone (i.e., comprehensive transition zone) exists near the “Hu Huanyong line,” which is a famous demographic dividing line in China, known as the Hu zone. Dry and wet climate changes in the Hu zone can have a significant impact on terrestrial ecosystems and hydrological conditions, ultimately affecting human–land relations. However, there is still a lack of clear understanding of environmental changes in the context of climate change in the Hu zone. Here, a quantitative analysis of climate change and its impacts on terrestrial hydrology and ecosystems from 1951 to 2020 is presented. The results showed that there exists a significant drying trend in the Hu zone and a dramatic decrease in terrestrial water storage (TWS), indicating that the environment has become worse. Conversely, from the perspective of significant greening, the environment has improved. This contradiction is mainly due to climate change dominating the depletion of TWS, while the increase in vegetation greenness is more driven by human activities including agricultural management and ecological restoration, offsetting to some extent the negative impact of water scarcity on vegetation growth. Significance Statement The Hu zone is a transition zone between southeast and northwest China, which is a sensitive area under climate change as well as key region for coordinated development. The purpose of this study is to reveal the long-term climate change in the Hu zone and its impacts on hydrology and ecology. Our results indicate a significant drying trend in this zone over the last 70 years, which led to a substantial reduction in water storage. However, the vegetation coverage increased due to human activities. This study provides guidance for agricultural structure adjustment and ecological protection in transition zones. Future research should focus more on the assessment and risk management of dry/wet changes in climate transition areas around the world.

Climate Change and Water Security Scenario of an Agrarian Locale in Upper Punjab

Climate change is exacerbating both water scarcity and water-related hazards as rising temperatures disrupt precipitation patterns and the entire water cycle. Water is crucial for all types of living creatures; therefore, its availability and quality are important for humans, too. However, water-related issues have increased all over the world, and people are facing more difficulties than in the past. Water scarcity is the most obvious issue, which results from the imbalance between water demand and supply. It has numerous negative effects on community health and societal development. This study was undertaken in the agriculturally oriented rural locale of district Rawalpindi in Pothwar, region of Punjab, Pakistan. The study primarily assessed the magnitude of water scarcity and, further investigated the impact of water scarcity on the health of the local community and looked into the problems faced by women and children. A sample size of one hundred respondents was selected using the probability technique of Simple Random Sampling. Both qualitative and quantitative techniques were used in collecting and analyzing data for this field research. The major sources of water in the locale are distant natural wells. The research indicated that local inhabitants faced many difficulties in tapping distant natural water resources to meet their daily needs. Water is generally stored in plastic drums and plastic tanks, but some local people have also constructed underground concrete tanks. The water used for drinking and meeting various others' needs is contaminated, impure, unclean and hard. As a consequence, several diseases such as diarrhea, vomiting, kidney disorders and jaundice are common in the locale inhabitants because of water scarcity, which forces the people to use water from contaminated resources. Further, they have to bear expenses on the disease treatment, and spend extra money for fetching water.

The Water Footprint of Pastoral Dairy Farming: The Effect of Water Footprint Methods, Data Sources and Spatial Scale

The water footprint of pastoral dairy milk production was assessed by analysing water use at 28 irrigated and 60 non-irrigated ‘rain-fed’ pastoral dairy farms in three regions of New Zealand. Two water footprint methods, the WFN-based blue water footprint impact index (WFIIblue) and the Available WAter REmaining (AWARE) water scarcity footprint (WFAWARE), were evaluated using different sets of global or local data sources, different rates of environmental flow requirements, and the regional or catchment scale of the analysis. A majority (~99%) of the consumptive water footprint of a unit of pastoral dairy milk production (L/kg of fat- and protein-corrected milk) was quantified as being associated with green and blue water consumption via evapotranspiration for pasture and feed used at the studied dairy farms. The quantified WFIIblue (-) and WFAWARE (m3 world eq./kg of FPCM) indices ranked in a similar order (from lowest to highest) regarding the water scarcity footprint impact associated with pastoral dairy milk production across the study regions and catchments. However, use of the global or local data sets significantly affected the quantification and comparative rankings of the WFIIblue and WFAWARE values. Compared to the local data sets, using the global data sets resulted in significant under- or overestimation of the WFIIblue and WFAWARE values across the study regions and catchments. A catchment-scale analysis using locally available data sets and calibrated models is recommended to robustly assess water consumption and its associated water scarcity impact due to pastoral dairy milk production in local catchments.

Water Footprint of Bioethanol Production in Negros Occidental, Philippines

This study investigates the water scarcity implications of bioethanol production in Negros Occidental, Philippines. The water footprint (WF) of three bioethanol production scenarios was assessed, revealing respective values of 3,574 L L-1, 3,935 L L-1, and 4,293 L L-1 for Case 2 (molasses bioethanol), Case 3 (50% sugarcane and 50% molasses bioethanol), and Case 1 (sugarcane bioethanol). Predominantly, 99% of the total WF comes from sugarcane plantation activities, with the blue WF (freshwater use) accounting for a mere 1.3%, owing to predominantly rainfed sugarcane farms. Region VI, encompassing Negros Occidental, faces severe blue water scarcity at 41%, with projections indicating exacerbation unless water footprint mitigation strategies are implemented. Notably, the contribution of the bioethanol industry to the total WF of the region is only about 0.1%. Sensitivity analysis for varying sugarcane yield done revealed that increasing yield from 65 t ha-1 to 115 t ha-1 can significantly reduce WF to about 43%. This research underscores the need for water-efficient practices to address potential water scarcity of the region, while emphasizing the limited water scarcity impact of bioethanol industry.

Impact of Water Scarcity on Domestic Water Use in Drought-prone Barind Tract, Bangladesh: A Sociological Perspective

The Barind tract (northwest part of Bangladesh) is facing the prevailing disaster of drought due to extreme climatic conditions, including low rainfall. This research attempts to measure the character of the domestic water crisis and the adaptation capacity of the drought-affected Barind people. It also investigates the impact of climate-induced water scarcity on the socioeconomic livelihood of respondents in two villages of the Tanore sub-district in Rajshahi district, which is the most drought-prone area in the Barind tract. In the study area, face-to-face interviews (n = 246) through a structured questionnaire with the respondents of two villages were conducted in an affable environment to collect primary (quantitative) data. In-depth interviews were also conducted with two farmers to collect qualitative data for the study. So it is mixed-method research. All the gathered data were examined using Atlas TI, SPSS, and GIS software. The results of this research show an extended scenario of excessive use of groundwater for domestic purposes due to water table depletion. It presents a portfolio of the sufferings of domestic water users in the study area, not only during the load-shedding period but also during the lack of technical support. Few people are bound to use more contaminated pond water for applying artificial fish feed. Poor inhabitants who depend on others for domestic water are facing more critical conditions due to the inability to install deep-tube wells at a higher cost. As a result, people need to move further away to collect fresh groundwater for domestic use.

A Review of Nutritional Water Productivity (NWP) in Agriculture: Why It Is Promoted and How It Is Assessed?

Assessment of nutritional water productivity (NWP) combines a metric of crop or livestock production per unit water consumed and human nutritional value of the food produced. As such, it can rationalize the use of scarce water for a portfolio of crop and livestock production systems that jointly match human nutritional needs and reduce water scarcity impacts. However, a comprehensive search and review of 40 NWP studies highlighted that current NWP studies vary widely in terms of their methodological approaches, the data and tools used and the water flows and nutrient content accounted for. Most of the studies accounted for evapotranspiration stemming from precipitation and technical water, and/or inclusion of the withdrawn technical water. Water scarcity was only addressed in four studies. The reported NWP values also varied for accounting of macro- (energy, protein, fat and carbohydrates) and micro-nutrient (minerals and vitamins) content. The methodological differences, however, severely limit the informative value of reported NWP values. A multidisciplinary research effort is required to further develop standardized metrics for NWP, including its local environmental water scarcity impacts. A robust NWP analysis framework in agriculture should focus on the integration of assessments of NWP and water scarcity impact (WSI), and development of more field measurements and locally calibrated and validated agrohydrological and farm production models to quantify reliable NWP values and their associated WSI of agriculture production systems worldwide.

Climate change and future challenges to the sustainable management of the Iraqi marshlands

The application of restoration plans for the Iraqi marshlands is encountering significant challenges due to water scarcity and the impacts of climate change. This paper assesses the impact of water scarcity on the possibility of continuing the application of restoration and sustainable management plans for the main marshlands in Iraq. This assessment was conducted based on the available data and expected situation of available water resources under climate change conditions until the year 2035. Additionally, a satellite image–based index model was prepared and applied for the period 2009–2020 to obtain the spatiotemporal distribution of the restored marshlands. The results show that the shortage in water resources and insufficient inundation rates prevented the adequate application of the restoration plans. Also, applying the scenarios of distributing the deficit equally over all water demand sectors (S1) and according to the percentage of demand for each sector (S2) shows that the expected deficit in available water for the three marshes by the years 2025 and 2035 will be approximately 25% and 32% for S1 and 9% for S2. Consequently, the considered marshes are expected to lose approximately 20 to 33% of their eligible restoration areas. Accordingly, looking for suitable alternatives to support the water resources of these marshes became a very urgent matter and/or recourse to reduce the areas targeted by inundation and being satisfied with the areas that can be sustainable and maintain the current status of the rest of the regions as an emerging ecosystem characterized by lands that are inundated every few years. Accordingly, steps must be urged to develop plans and programs to maintain the sustainability of these emerging ecosystems within the frameworks of climate change and the conditions of scarcity of water resources and water and air pollution to ensure that they are not lost in the future.