Agricultural Use Research Articles

Study of the Importance of Irrigation Projects to Agricultural Water Resources Using the Baiqi Canal as an Example

In the global economic system, the stable development of agriculture as a basic industry is inseparable from the rational utilization of water resources. Irrigation projects play a vital role in ensuring agricultural water use, increasing grain output and promoting agricultural sustainable development. This study aims to explore the scientific experience of Baiqi Canal, an excellent irrigation project in ancient China, and its profound value as a world irrigation project heritage, analyze the importance of irrigation projects to agricultural water resources, and promote the protection and sustainable utilization of irrigation project heritage. Firstly, the irrigation mode of Baiqi Canal and its important role in agricultural development were introduced, and then its influence on local agricultural water resources and ecological environment was analyzed. Finally, the positive influence of international irrigation projects on agricultural water resources was further discussed, and its key role in ensuring food security and promoting agricultural sustainable development was emphasized.

Co-composting: A Comprehensive Review of Its Potential in Transforming Coir Pith Waste into Nutrient-rich Manure

Coir industries in India generates around 7.5Mt of coir waste yearly, which is unsuitable for agricultural use due to its high C:N ratio, lignin, phenol, cellulose and tannin content. The accumulation of coir pith leads to adverse environmental problems due to the release of phenolic compounds, lignin, tannins etc. Biodegradation or composting is the best way to manage coir waste and thereby the environmental pollution can be avoided. Co-composting is a method of decomposing multiple organic materials, which aims to create stable humus, and overcome the limitations of composting with a single organic source. Co-composting of coir pith reduces the C:N ratio, lignin content, cellulose content and increases the nutrient contents. In co-composting technology more than one feed stock are used for composting. It can be done by treating the coir pith with organic source of nutrients viz., farm yard manure or poultry manure or agro-industrial wastes or green manure crops or leguminous weeds or treating the coir pith with organic wastes and earthworms, or treating the coir pith lignin degrading micro-organisms and or supplementing the coir pith with lime, rock phosphate etc. along with the organic sources of nutrients mentioned above to speed up the composting process. Co-composting of coir pith resulted in the production of nutrient rich organic manure within a short period of time. Application of coir pith compost had significant effect on the growth and yield attributes of crops. Harnessing the potential of coir pith can lead us towards a more sustainable and greener future.

Communication of EU agricultural antibiotic use policies to farmers & implications for public health

Abstract Background It is estimated that by 2050, ten million people will die each year from antimicrobial resistant infections. AMR is driven by the improper use of antimicrobials, particularly in agriculture. 73% of the antimicrobials sold globally are used in food-producing animals. Problem EU regulations 2019/6 and 2019/4 on veterinary medications and medicated feed require behavior change by farmers to reduce their antimicrobial use. While this is welcomed by public health professionals, the response of the farming community is more complicated, as these regulations exist within the complex context of the global food system and current political unrest between farmers and the EU. Given the influential role of agricultural media for farmers’ decision making, it is critical to understand how AMR and associated public health and EU policies are being communicated to farmers and how the views of specific stakeholders including farmer representative organizations, veterinary bodies and government regulators are being represented. To examine this problem, a case study content analysis of three major agricultural newspapers in Ireland is undertaken. Results Preliminary results suggest that AMR and AMU have been covered in the agricultural media with specific coverage on these EU policies. This includes negative coverage, with key terms such as “threatens”, “risk”, or “warns”, as well as potentially positive views (e.g. “hope”). Preliminary results also suggest that the agricultural media might be a useful source to identify the farming community’s concerns and reactions to EU policy, for example calls by farmer representative bodies for the national government to intervene. Lessons Public health professionals must recognize the important role of farmers in addressing AMR. Evaluating how EU policies on AMR are represented in the agricultural media can help to better understand how this public health issue and its solutions are being communicated to these important stakeholders. Key messages • Public health professionals must recognize the importance of animal health and the role of farmers in addressing the AMR problem. • It is critical to evaluate how EU policies on AMR and associated One Health issues are communicated to non-public health professionals.

Evaluation of the Quality of Organic Compost Produced From Fish Filleting Waste: Application and Use in Agriculture

Objective: This study aims to chemically characterize the compost resulting from fish filleting waste, identifying macro and micronutrients, and investigating the effects of different dosages of this compost on lettuce fertilization. Theoretical Framework: The research is based on concepts of sustainable management of urban solid waste, highlighting composting as an effective practice for recycling organic matter. Previous studies on composting animal waste and its application underpin the context of the research. Method: The methodology consisted of experiments with 28 plants, applying 7 treatments with 4 replications, ranging from 10% to 50% fish compost. Fresh and dry mass, root size and volume, and nutrients were analyzed. Results and Discussion: The results indicated that fish waste compost has significant potential as a source of nutrients, with medium to high levels of macro and micronutrients. In lettuce cultivation, the 10% dosage was the most cost-effective, although proportions of up to 30% promoted good development in all the indicators evaluated. Research Implications: The practical implications of this research suggest that fish waste compost could be a viable alternative for organic fertilization, promoting sustainable practices in waste management and agricultural production. Originality/Value: This study contributes to the literature by exploring the use of fish filleting waste compost as a fertilizer, demonstrating its effectiveness and potential as a source of nutrients for lettuce cultivation.

Discovery of Enantiopure (S)-Methoprene Derivatives as Potent Biochemical Pesticide Candidates.

(S)-Methoprene has been widely applied as a powerful biochemical pesticide to control disease vectors and other pestiferous arthropods of economic importance. As a juvenile hormone analogue, many products based on (S)-methoprene are developed and commercialized in the USA, Europe, and elsewhere. However, the agricultural use of (S)-methoprene and its analogues remains underexplored. Here, based on an intermediate derivatization strategy and structural modification, a series of enantiopure (S)-methoprene derivatives were designed for their expected bioactivity against two crop-threatening pests. Six compounds showed more than 2-fold stronger inhibition of emergence against Plutella xylostella than (S)-methoprene, among which one that was designated as B2 showed even superior activity to the conventional chemical pesticide and biopesticide with IE50 of 0.02 mg/L. Nine compounds exhibited over 2-fold higher bioactivity against Aphis craccivora growth than (S)-methoprene. The physicochemical property evaluation and toxicological test showed that the potent (S)-methoprene derivatives were low toxic to the nontarget organism and the environment. Molecular docking studies further demonstrated that the high bioactivity of B2 may be partially attributed to its great affinity for binding to juvenile hormone receptors of P. xylostella. The current study suggests that B2 is a biochemical pesticide candidate with potency to be developed as a new agrochemical for lepidopteran control.

Evaluation of some anions in groundwater in Riyadh, Saudi Arabia, and human health risk assessment of nitrate and fluoride.

Groundwater is a vital source of water for human and agricultural use in many parts of the world. The purpose of this research was to establish the quality of groundwater in Riyadh, Saudi Arabia, as well as the human health concerns associated with it. We collected and examined groundwater samples for pH, EC, TDS, CaCO3, fluoride (F-), chloride (Cl-), sulfate (SO42-), and nitrate (NO3-). The ion chromatography conductometric detection method was constructed to determine fluoride, chloride, sulfate, and nitrate in groundwater. The suggested method worked well for the anions that were being studied; it had a high coefficient of determination (r2 > 0.998) and average recoveries for all analytes that were between 97.5% and 99.0%, with a range of error of 0.77 to 2.37%. Fluoride concentrations were detected between 0.001 and 0.14mg/L, which are within the acceptable limit by several organizations. Chloride was measured in the range of 17.1 to 966.5mg/L, with some samples above the limits. The influence on sulfate ranged from 2.0 to 1136.0mg/L, with several samples exceeding the limits. In contrast, with nitrate levels ranging from 1.4 to 5.0mg/L, the majority of the samples fall within the acceptable range. The overall intake of fluoride, chloride, sulfate, and nitrate is 0.00605, 138.911, 65.515, and 1.19, respectively, which is lower than the recommended daily consumption except for chloride. The groundwater sample contains fluoride and nitrate with HQ values less than one: 0.000064-0.0641 and 0.033654-0.120192. Humans in Riyadh, Saudi Arabia, do not pose a health risk when digesting or absorbing groundwater fluoride or nitrate.

Role of Biocontrol Agents in Suppressing Plant Pathogen: A Compressive Analysis

Biocontrol agents have emerged as important tools in the quest for sustainable agriculture, offering environmentally friendly alternatives to chemical pesticides for managing plant pathogens and pests. This comprehensive review explores the advancements in biocontrol agent research, focusing on the exploration of new agents, genetic engineering, and integration into Integrated Pest Management (IPM) systems. The discovery of novel biocontrol agents from diverse environments, including plant microbiomes and marine ecosystems, has expanded the arsenal available for agricultural use, while genetic engineering and synthetic biology have enhanced the efficacy of existing agents by improving their production of antimicrobial metabolites and stress tolerance. Additionally, the development of synthetic microbial consortia and innovative delivery systems, such as encapsulation and nanotechnology, has improved the stability and application efficiency of biocontrol agents in various agricultural settings. The review also highlights the importance of sustainable and eco-friendly approaches, such as the use of organic amendments and crop rotation, to enhance the effectiveness of biocontrol strategies. These methods not only improve soil health and biodiversity but also reduce the reliance on chemical inputs. However, the widespread adoption of biocontrol agents faces challenges, including environmental variability, host specificity, and the need for supportive regulatory frameworks. Harmonizing regulatory processes, promoting public awareness, and providing incentives for sustainable practices are essential for overcoming these barriers. International cooperation and knowledge exchange are crucial for advancing research and ensuring that biocontrol agents become integral components of modern agriculture. This review underscores the potential of biocontrol agents to contribute significantly to global food security and environmental sustainability, provided that ongoing research and innovation continue to address existing challenges and expand their practical applications in diverse agricultural contexts.

Plastic Use in Agriculture: Balancing Benefits, Environmental Impacts, and Sustainable Solutions

Plastics have become an essential component of modern agriculture, significantly enhancing productivity, improving water efficiency, and protecting crops due to their versatility, durability, and cost-effectiveness. Their widespread use in applications such as plastic mulches, greenhouse covers, irrigation systems, and packaging has revolutionized crop production by boosting yields and aiding pest control. However, the growing reliance on plastics in agriculture, commonly referred to as plasticulture, has raised significant environmental concerns. These include soil contamination, diminished soil fertility, microplastic pollution, and greenhouse gas emissions, all of which pose serious long-term risks to ecosystems. This review offers a comprehensive exploration of plastic use in agriculture, detailing its various applications and the associated environmental challenges. The persistence of plastic waste in soils, waterways, and natural habitats not only leads to pollution and biodiversity loss but also presents potential threats to human health. This review emphasizes the urgent need for sustainable solutions, including effective waste management strategies and advancements in biodegradable and bio-based plastics. It also discusses the potential of recycling technologies and the role of policy reform in minimizing the ecological footprint of agricultural plastics. In conclusion, this review advocates for a balanced approach that maximizes the agronomic benefits of plastics while minimizing their environmental impacts through innovation, research, and the promotion of sustainable agricultural practices.

Translating weighted probabilistic bits to synthetic genetic circuits.

Synthetic genetic circuits in plants could be the next technological horizon in plant breeding, showcasing potential for precise patterned control over expression. Nevertheless, uncertainty in metabolic environments prevents robust scaling of traditional genetic circuits for agricultural use, and studies show that a deterministic system is at odds with biological randomness. We analyze the necessary requirements for assuring Boolean logic gate sequences can function in unpredictable intracellular conditions, followed by interpreted pathways by which a mathematical representation of probabilistic circuits can be translated to biological implementation. This pathway is utilized through translation of a probabilistic circuit model presented by Pervaiz that works through a series of bits; each composed of a weighted matrix that reads inputs from the environment and a random number generator that takes the matrix as bias and outputs a positive or negative signal. The weighted matrix can be biologically represented as the regulatory elements that affect transcription near promotors, allowing for an electrical bit to biological bit translation that can be refined through tuning using invertible logic prediction of the input to output relationship of a genetic response. Failsafe mechanisms should be introduced, possibly through the use of self-eliminating CRISPR-Cas9, dosage compensation, or cybernetic modeling (where CRISPR is clustered regularly interspaced short palindromic repeats and Cas9 is clustered regularly interspaced short palindromic repeat-associated protein 9). These safety measures are needed for all biological circuits, and their implementation is needed alongside work with this specific model. With applied responses to external factors, these circuits could allow fine-tuning of organism adaptation to stress while providing a framework for faster complex expression design in the field.

Antimicrobial Resistance: What Lies Beneath This Complex Phenomenon?

Antimicrobial Resistance (AMR) has evolved from a mere concern into a significant global threat, with profound implications for public health, healthcare systems, and the global economy. Since the introduction of antibiotics between 1945 and 1963, their widespread and often indiscriminate use in human medicine, agriculture, and animal husbandry has led to the emergence and rapid spread of antibiotic-resistant genes. Bacteria have developed sophisticated mechanisms to evade the effects of antibiotics, including drug uptake limitation, drug degradation, target modification, efflux pumps, biofilm formation, and outer membrane vesicles production. As a result, AMR now poses a threat comparable to climate change and the COVID-19 pandemic, and projections suggest that death rates will be up to 10 million deaths annually by 2050, along with a staggering economic cost exceeding $100 trillion. Addressing AMR requires a multifaceted approach, including the development of new antibiotics, alternative therapies, and a significant shift in antibiotic usage and regulation. Enhancing global surveillance systems, increasing public awareness, and prioritizing investments in research, diagnostics, and vaccines are critical steps. By recognizing the gravity of the AMR threat and committing to collaborative action, its impact can be mitigated, and global health can be protected for future generations.

Environmental assessment of toxic heavy metals and natural radionuclides in irrigation water from Rustenburg, South Africa

Water is a transparent, tasteless and odourless inorganic compound, essential for life and sustainable development. It is important for food and energy production, socio-economic growth, healthy ecosystems and human existence. Global attention is given to water quality monitoring due to the role it plays in human exposure to different kinds of contaminants, including radioactive and toxic contaminants from industrial, agrochemicals, mining and other anthropogenic activities. This work presents the results of measured natural radionuclides and toxic heavy metals in Rustenburg, and their associated non-carcinogenic and carcinogenic risk. The average concentrations of Cd, Cu, Co, Fe, Ni, Mn, Pb and Zn are 0.00007 mg/l, 0.0087 mg/l, 0.0033 mg/l, 0.0636 mg/l, 0.0052 mg/l, 0.0217 mg/l, 0.0003 mg/l and 0.0047 mg/l respectively and are below the safe limit of toxic heavy metals in water. The activity concentration of 40K and 238U ranges from 7.07 Bq/l to 13.2 Bq/l and 1.24 × 10−04 Bq/l to 1.09 × 10−02 Bq/l, with a mean activity concentration of 11.6 Bq/l and 2.78 × 10−03 Bq/l respectively. 232Th was not found in all measured water samples. The estimated average committed effective dose from ingestion of natural radionuclides was observed to be below 170 μSv/yr for 40K, 120 μSv/yr for 232Th and 238U, and a total of 290 μSv/yr reported by the United Nations Scientific Committee on the Effects of Atomic Radiation. The assessment of human health risks resulting from exposure to toxic heavy metals shows negligible carcinogenic and non-carcinogenic health risks to the exposed population, making the water sources from which the sample was collected, safe for agricultural and domestic use. The obtained results will also serve as reference data for future environmental studies.

Biochar Production From Plastic‐Contaminated Biomass

ABSTRACTAnaerobic digestion and composting of biowastes are vital pathways to recycle carbon and nutrients for agriculture. However, plastic contamination of soil amendments and fertilizers made from biowastes is a relevant source of (micro‐) plastics in (agricultural) ecosystems. To avoid this contamination, plastic containing biowastes could be pyrolyzed to eliminate the plastic, recycle most of the nutrients, and create carbon sinks when the resulting biochar is applied to soil. Literature suggests plastic elimination mainly by devolatilization at co‐pyrolysis temperatures of > 520°C. However, it is uncertain if the presence of plastic during biomass pyrolysis induces the formation of organic contaminants or has any other adverse effects on biochar properties. Here, we produced biochar from wood residues (WR) obtained from sieving of biowaste derived digestate. The plastic content was artificially enriched to 10%, and this mixture was pyrolyzed at 450°C and 600°C. Beech wood (BW) chips and the purified, that is, (macro‐) plastic‐free WR served as controls. All biochars produced were below limit values of the European Biochar Certificate (EBC) regarding trace element content and organic contaminants. Under study conditions, pyrolysis of biowaste, even when contaminated with plastic, can produce a biochar suitable for agricultural use. However, thermogravimetric and nuclear magnetic resonance spectroscopic analysis of the WR + 10% plastics biochar suggested the presence of plastic residues at pyrolysis temperatures of 450°C. More research is needed to define minimum requirements for the pyrolysis of plastic containing biowaste and to cope with the automated identification and determination of plastic types in biowaste at large scales.

Anthropocentrism in Contemporary Chinese Dictionary: A Synergic Perspective of Critical Lexicographical Discourse Studies and Systemic Functional Linguistics

Abstract Critical Lexicographical Discourse Studies (CLDS) view the dictionary as a discourse and emphasize an ideological, ethico-political dimension to the lexicographical process. Combining CLDS with Systemic Functional Linguistics, this paper looks into how anthropocentrism is manifested linguistically in Contemporary Chinese Dictionary (Seventh Edition), the most influential authoritative general-purpose Chinese dictionary, by examining the transitivity and appraisal patterns in the definition texts concerning animals and plants. The analysis shows that animals and plants are seldom assigned agency in their own right and that the animals and plants are evaluated either positively or negatively according to whether they are useful to the human beings while their intrinsic value is ignored. In particular, animals are highlighted for their agricultural and medicinal use and plants for their medicinal and ornamental value. However, compared with its previous editions, the dictionary has shown an enhanced awareness of environmental protection by deleting the encyclopaedic information that describes the use of some rare animals’ meat, bones and fur. It is argued that, although modern general-purpose dictionaries are increasingly corpus-based and descriptive, their role in shaping social values and stances cannot be disregarded. Dictionary makers need to balance what words mean with what they can be said to mean or be allowed to mean (Moon, 2014). The study contributes to unmasking and denaturalizing the hidden ideology in colony texts such as the dictionary, enhances a critical use of dictionaries and helps develop the theory of critical lexicography and emerging ecolexicography.

Progress and Potential Drawbacks of Modern Agricultural Technologies: A Literature Review

The production of agriculture has undergone new modifications as a result of agricultural technologies. These not only boost agricultural output but may also significantly raise the caliber of produced food, cut labor expenses, boost farmers' incomes, and achieve agricultural modernization. The use of precision agriculture (PA) is expanding due to the rapid socioeconomic changes that are occurring in certain developing nations. There are enormous ramifications for urbanization, energy consumption, and economic growth in certain developing nations when fundamental changes occur. The research status and current agricultural technology achievements are carefully summarized in this study. In-depth discussions of thirteen significant agricultural technologies are provided in this article. All significant technologies from developed countries are discussed so that under-developed and lower-developed countries will benefit from this paper. Finally, some fresh concepts for each technology are offered, and potential issues in establishing such sophisticated technologies are identified. The main objective of this review is to increase knowledge of modern agriculture and the development process in the agricultural field.

Assessing Irrigation Efficiency Improvements in Paddy Fields Using Granular SWMM Simulations

As water scarcity intensifies due to climate change, improving the efficiency of agricultural water use has become increasingly critical. Current irrigation systems often experience significant water losses, especially in paddy fields in South Korea that largely rely on open-channel water supply networks. However, previous studies have simulated irrigation improvement strategies by aggregating multiple paddy fields into larger unites rather than modeling them individually, which limits the accurate representation of field conditions. To address this limitation, we applied a granular simulation approach, collecting detailed input data through field surveys. Using this granular model, the study evaluated strategies to enhance irrigation efficiency in paddy fields serviced by the Baekma Agricultural Reservoir in South Korea. We assessed four scenarios: the current open-channel system, conversion of open channels to closed conduits, installation of farm ponds, and a combination of closed conduits and farm ponds. These scenarios were simulated using the Strom Water Management Model (SWMM), meticulously configured to represent individual paddy fields and channel networks. The results show that converting open channels to closed conduits increased irrigation efficiency by 5.4% compared to the current open-channel system. Combining closed conduits with farm ponds achieved the highest efficiency, although the independent effect of farm ponds was minimal. These findings suggested that converting open-channels to closed conduits was a highly effective solution for reducing water losses, while farm ponds played a limited role. This study provides valuable insights into the development of precise irrigation strategies, offering a detailed assessment of real-world conditions in paddy fields.

Eco-friendly copper nanoparticles for acetamiprid pesticide mitigation in water effluents

Water pollution by pesticides is a significant environmental concern, given their extensive use in agriculture to meet food production demands. This study focuses on evaluating the effectiveness of biosynthesized copper nanoparticles in removing the pesticide acetamiprid (AMP). The degradation process is tracked by measuring the absorbance at 245 nm (AMP λmax) while considering variables such as adsorbent dosage, pH, and time. It provides valuable insights into the design and preparation of CuO nano adsorbents and their efficiency in purifying and remediating aquatic environments. The research investigated the ability of CuO nanoparticles, with an average size of 60 nm, to eliminate acetamiprid at very low concentrations (0.0005–0.01 mg/ml). The results showed that the nanoparticles could remove up to 97.5 % of AMP (0.01 mg/ml GT-CuO) after 90 min of contact time. Additionally, the study used the Langmuir isotherm model (R2 = 0.99125) and the pseudo-second order kinetic model (R2 = 0.98303) to model the adsorption of AMP on CuO NPs. Overall, CuO NPs derived from Glochidium tomentosum (GT) could offer a promising approach for adsorbing AMP pesticides.

Single and combined applications of dopamine and 24-epibrassinolide in soybean seedlings under water deficiency: tolerance mechanisms essential to inhibit deleterious effects

Water limitations often cause plants’ physiological, biochemical and morphological disorders, restricting their growth and performance and negatively impacting agricultural yield and global food security. Dopamine (DOP) is an essential water-soluble antioxidant, representing an exciting alternative for use in agriculture, as it maximises plant tolerance under adverse stress conditions. The 24-epibrassionolide (EBR) has the most bioactive function on plant metabolomics, being biodegradable and environmentally friendly. EBR can promote plant tolerance under stress conditions, including water deficiency. Therefore, this study aimed to verify the possible contributions of pre-treatment with DOP and EBR in soybean seedlings subjected to water deficiency, evaluating the responses linked to root anatomy, germination, antioxidant system and biomass accumulation. The single and combined use of growth regulators (DOP and EBR) mitigated the harmful effects caused by water deficiency in seedlings. However, the single use of DOP under the conditions of this research had better results. DOP and EBR positively affected root anatomy, modulating plastic changes in the epidermis tissues, metaxylem and vascular cylinder tissues. Increments in biomass and growth of seedlings exposed to drought and treated with growth regulators can be explained by the intense activities of antioxidant enzymes, maximising redox metabolism and protecting root tissues from oxidative damage.

Efficacy of Pleurotus ostreatus mycelia as bioinoculant to improve growth of pepper plant and protect against wilt causing Fusarium oxysporum

Among the different value added uses of mushroom, vegetative mycelia of Pleurotus ostreatus can be explored as a bio-inoculant for sustainable agriculture use. From three fruit-bodies of Pleurotus ostreatus, tissue cultures were established, were used for DNA preparation and biochemical tests. Phylogenetic analysis using three SSU-ITS-LSU markers indicated that the species Pleurotus ostreatus occupies a separate clade. Ability of the isolates to synthesis indole acetic acid (39.66–48.33 μg/ml), siderophore (hydroxamate and phenolate types) and enzymes like chitinase, protease and lipase had promoted us to apply them as bio-inoculant for plant growth promotion and against fungal pathogens. In dual culture assay, P. ostreatus isolates inhibited growth of Fusarium oxysporum SF1404 (44.4–66.5 % inhibition) and Alternaria solani TD3 (44.4–55.5 % inhibition). The mycelia culture of the fast-growing isolate (KUFC113) was applied on rhizosphere of pepper plant to protect against wilt causing F. oxysporum, and it was observed that the pathogen did not exhibit any wilting symptom. Assay of the stress enzymes (ascorbic acid peroxidase, catalase, peroxidase, and polyphenol oxidase), flavonoid, phenol content also supported that treatment of the mushroom culture could ameliorate the biotic stress in the plants. The mycelia of P. ostreatus colonized on the rhizosphere of pepper plant and influenced the growth by improving plant biomass, chlorophyll and metabolite contents. The principal component analysis and Pearson's correlation matrix showed correlation among the growth parameters of pepper plants.

Mitigating Salinity Stress in Cotton (Gossypium hirsutum L.) with K-humate and Iron Oxide Nanoparticles

Salinity stress poses a major challenge to plant growth and development, causing problems like osmotic stress, ion toxicity, and nutrient imbalances. These issues lead to reduced photosynthesis and early aging of plants. In this study, we explored the potential of potassium humate (Kh) and iron oxide nanoparticles (Fe (II,III) oxide-NPs) to help cotton plants (Gossypium hirsitum L.) cope with saline conditions. We examined various growth parameters such as plant height, leaf number, fresh and dry weights of leaves and roots, leaf area, chlorophyll content (SPAD values), and relative water content (RWC). Our findings showed that salinity stress significantly decreased plant height, leaf number, fresh leaf weight, dry leaf weight, leaf area, and RWC. However, the application of Fe (II,III) oxide-NPs and Kh helped mitigate these negative effects. Notably, the combination of Fe (II,III) oxide-NPs and Kh resulted in the highest plant height under saline conditions. Kh alone was particularly effective in increasing leaf number and fresh leaf weight, even under stress. In conclusion, both Fe (II,III) oxide NPs and Kh proved to be effective in enhancing cotton plant resilience to salinity stress, highlighting their potential use in sustainable agriculture in saline and arid regions. These insights can help develop strategies to improve plant growth and yield under challenging environmental conditions.

Bibliometric Analysis of Root Research under Drip Irrigation Based on Web of Science

The study delves into the prevailing focal points and developmental trends within the international sphere of crop root research under drip irrigation. It leverages the Web of Science core database and employs VOSviewer for a systematic review of the literature spanning 2001 to 2022. The analysis encompasses publication counts, publishing journals, contributing authors, research institutions, and keywords. Findings indicate that research on root systems under drip irrigation has become a notable area of interest in the field of irrigation, attracting global scholarly attention. There is a marked upward trend in publication output, with institutions in China and the United States taking on central roles. Journals like Agricultural Water Management and Acta Horticulturae are key publication venues, with Vadose Zone Journal being notable for high-impact articles. The research primarily involves agronomy, water resources, and horticulture, focusing on yield enhancement through drip irrigation, root distribution under various techniques, crop quality in response to partial root-zone drying, and irrigation scheduling model development. Scholars like Jiri Simunek and Yaohu Kang have made substantial contributions. The field’s established framework calls for continued international collaboration to drive further innovation. The identified trends and parameters can be a valuable reference for researchers, policymakers, and practitioners, guiding efforts to optimize agricultural productivity and resource use.