Browsing by Author "Faizan, Mohammad"

Now showing 1 - 5 of 5

Citation - WoS: 2
Citation - Scopus: 2
Calcium-Mediated Mitigation Strategies and Novel Approaches To Alleviate Arsenic Induced Plant Stress
(Elsevier Ireland Ltd, 2025) Faizan, Mohammad; Eren, Abdullah; Alam, Pravej; Iqbal, Sumera; Waheed, Zainab; Eren, Abdullah; Shamsi, Anas; Shahwan, Moyad; 16.01. Department of Organic Agriculture / Organik Tarım Bölümü; 16. School of Vocational Higher School of Kızıltepe/ Kızıltepe Meslek Yüksekokulu; 01. Mardin Artuklu University / Mardin Artuklu Üniversitesi
One worldwide environmental concern is the presence of potentially hazardous elements (PTEs) in air, soil, and water resources. Arsenic is one of the PTEs that is thought to be the most poisonous and carcinogenic. Plants exposed to arsenic may experience several morphological, physiological, and biochemical changes-even at extremely low concentrations. Arsenic toxicity to plants varies with its speciation in plants (e.g., arsenite, As(III); arsenate, As(V)), with the kind of plant species, and with other soil parameters affecting arsenic accumulation in plants, according to new study on arsenic in the soil-plant system. Arsenic stress modifies metabolic cascades in plants at different developmental stages by affecting the pattern of gene expressions mediated by small non-coding RNAs (micro-RNAs), which are essential for plant adaptation to oxidative stress and play a key role in the moderation of numerous cellular processes. In this review, we investigated the impact of calcium (Ca2 +) on the toxicity of arsenic in plant and soil environments. Plant grown with arsenic exhibited enhanced arsenic uptake, increased oxidative stress and growth inhibition. Arsenic toxicity modulates carbohydrate, lipid, and protein metabolism along with DNA structure. Role of Ca2+, Ca channels and Ca sensors to signaling pathways also described briefly. A worldwide issue for humanity is the poisoning of soil ecosystems by arsenic. Its toxicity, tolerance, and phytoremediation of polluted soils utilizing calcium were the main points of the recent review, which also highlighted the significant mechanisms of arsenic in soil-plant systems.
Nano-Enabled Biochar Modulate Arsenic Toxicity in Plants: a Step Towards Crop Safety and Health
(Springer Int Publ Ag, 2025) Eren, Abdullah; Baran, Mehmet Fırat; Eren, Abdullah; Afzal, Shadma; Alam, Pravej; Baran, Mehmet Firat; Hayat, Shamsul; 21.02. Department of Medical Services and Techniques / Tıbbi Hizmetler ve Teknikleri Bölümü; 16.01. Department of Organic Agriculture / Organik Tarım Bölümü; 16. School of Vocational Higher School of Kızıltepe/ Kızıltepe Meslek Yüksekokulu; 21. Vocational School of Health Services / Sağlık Hizmetleri Meslek Yüksekokulu; 01. Mardin Artuklu University / Mardin Artuklu Üniversitesi
As global agricultural demands continue to rise amidst increasing environmental stressors, enhancing plant resilience has become a critical necessity. Heavy metals (HMs), especially arsenic (As), severely impact crop productivity and quality, threatening global food security and human health. Arsenic toxicity disrupts normal physiological, biochemical and molecular processes in food crops due to its eco-toxicological effects. Nano-enabled biochar (Nano-BC) has emerged as a promising soil amendment capable of mitigating As-induced oxidative stress in horticultural crops by modulating stress responses, enhancing detoxification pathways and improving plant resilience. This review comprehensively examines the interactions of Nano-BC with soil matrices and microbial communities, highlighting its dual role in influencing soil health and plant growth. While Nano-BC improves soil structure, increases nutrient retention and supports beneficial microbial populations, its potential long-term ecological impacts and interactions with native microbial communities require further evaluation. Furthermore, we discuss the mechanisms by which Nano-BC modulates As bioavailability, phyto-toxicity and detoxification pathways in horticultural crops. Advances in Nano-BC applications have demonstrated its potential in producing "pollution-safe" crops, yet challenges remain regarding its environmental fate and persistence. Future research should focus on optimizing Nano-BC formulations to enhance its efficiency while minimizing unintended ecological consequences. By integrating Nano-BC into sustainable agricultural practices, we can move closer to achieving food security, mitigating HM stress in crops and aligning with global sustainable development goals (SDGs).
Citation - WoS: 14
Citation - Scopus: 15
Small Molecule, Big Impacts: Nano-Nutrients for Sustainable Agriculture and Food Security
(Elsevier Gmbh, 2024) Eren, Abdullah; Singh, Aishwarya; Eren, Abdullah; Sultan, Haider; Sharma, Meenakshi; Djalovic, Ivica; Trivan, Goran; 16.01. Department of Organic Agriculture / Organik Tarım Bölümü; 16. School of Vocational Higher School of Kızıltepe/ Kızıltepe Meslek Yüksekokulu; 01. Mardin Artuklu University / Mardin Artuklu Üniversitesi
Human existence and the long-term viability of society depend on agriculture. Overuse of synthetic fertilizers results in increased contamination of the land, water, and atmosphere as well as financial constraints. In today's modern agriculture, environmentally friendly technology is becoming more and more significant as a substitute for conventional fertilizers and chemical pesticides. Using nanotechnology, agricultural output can be improved in terms of quality, biological support, financial stability, and environmental safety. There is a lot of promise for the sustainable application of nano-fertilizers in crop productivity and soil fertility, with little or no negative environmental effects. In this context, the present review provided an overview of the benefits of using nanofertilizers, its application and types. Mechanistic approach for increasing soil fertility and yield via nanofertilizers also described in detail. We concluded this article to compare the advantages of nanofertilizers over chemicals and nano-chemicals. Nonetheless, additional investigation is required to comprehend the effects and possible hazards of nanomaterials in the food production chain.
Supplementation of Silicon Oxide Nanoparticles Mitigates the Damaging Effects of Arsenic Stress on Photosynthesis, Antioxidant Mechanism and Nitrogen Metabolism in Brassica Juncea
(Nature Portfolio, 2025) Karadeniz, Erdal; Ozcinar, Aynur Bilmez; Karadeniz, Erdal; Faizan, Mohammad; Sultan, Haider; Alatar, Abdulrahman A.; 16.01. Department of Organic Agriculture / Organik Tarım Bölümü; 16. School of Vocational Higher School of Kızıltepe/ Kızıltepe Meslek Yüksekokulu; 01. Mardin Artuklu University / Mardin Artuklu Üniversitesi
Nanoparticles (NPs) represent one of the most promising platforms for addressing challenges in drug delivery, biosensing, and the development of advanced biotechnological tools. These innovative materials are revolutionizing modern agriculture by enabling precision farming practices that optimize resource utilization and enhance crop productivity. This study investigates the role of silicon oxide nanoparticles (SiO2 NPs, 200 ppm) in mitigating arsenic (As, 50 mu M) toxicity in Brassica juncea. The results demonstrate that As stress significantly impaired morphological and physiological parameters, as well as the accumulation of key metabolites, including flavonoids, phenolics, proteins, soluble sugars, and free amino acids. However, foliar application of SiO2 NPs effectively alleviated As-induced toxicity by enhancing antioxidant enzyme activities and maintaining nutrient homeostasis. The application of SiO2 NPs also positively influenced growth parameters, net photosynthetic rate, stomatal conductance, and soluble sugar content. Notably, SiO2 NPs improved the transpiration rate by 52%, leaf nitrogen content by 33%, and phenolic content by 42%. Furthermore, there was a significant reduction in oxidative stress markers, with hydrogen peroxide and malondialdehyde levels decreasing by 41% and 39%, respectively, indicating reduced oxidative damage and lipid peroxidation. These findings underscore the promising potential of SiO2 NPs in mitigating As stress and offer valuable insights for promoting sustainable crop production under environmental stress conditions.
Citation - WoS: 7
Citation - Scopus: 7
Zinc Oxide Nanoparticles for Sustainable Agriculture: a Tool To Combat Salinity Stress in Rice ( Oryza Sativa) by Modulating the Nutritional Profile and Redox Homeostasis Mechanisms
(Elsevier, 2025) Dogan, Yusuf; Alam, Pravej; Sultan, Haider; Sharma, Renuka; Soysal, Sipan; Baran, Mehmet Firat; Faizan, Mohammad; Doğan, Yusuf; Baran, Mehmet Fırat; 06.02. Department of Plant Protection / Bitki Koruma Bölümü; 21.02. Department of Medical Services and Techniques / Tıbbi Hizmetler ve Teknikleri Bölümü; 06. Faculty of Agricultural Sciences and Technologies in Kızıltepe / Kızıltepe Tarım Bilimleri ve Teknolojileri Fakültesi; 21. Vocational School of Health Services / Sağlık Hizmetleri Meslek Yüksekokulu; 01. Mardin Artuklu University / Mardin Artuklu Üniversitesi
The use of nanoparticles (NPs) as an amendment to reduce salt toxicity has gained much attention. Keeping in mind, this research work was done to evaluate the effect of zinc oxide NPs (ZnO-NPs) to mitigate the salt stress in rice (Oryza sativa) plant. Rice plants were subjected to salt stress (150 mM of NaCl) at 15 days of sowing through the soil. ZnO-NPs were characterized by Scanning electron microscopy (SEM), Transmission electron microscopy (TEM), X-ray diffraction (XRD), and Fourier-transform infrared spectroscopy (FTIR) and were applied foliar at concentration of 100 mg/L for five consecutive days (26-30 DAS). The results confirmed the salt toxicity and reduced shoot length (27 %), root fresh weight (31 %), SPAD chlorophyll (29 %), net photosynthetic rate (24 %), and nitrogen (N), phosphorus (P), potassium (K) and zinc (Zn) uptake by 9 %, 11 %, 13 % and 17 % respectively, while salinity increased the activity of antioxidant enzymes, proline, hydrogen peroxide (H2O2), and malondialdehyde (MDA) content in rice plants. However, in plants grown under salt stress, foliar application of ZnONPs significantly improved growth, photosynthesis, nutrient uptake and antioxidant enzymes activity. Beside, ZnO-NPs reduced salinity-induced oxidative stress by lowering H2O2 and MDA content. Therefore, our research showed that ZnO-NPs is useful and efficient in encouraging growth and lessening salinity stress in rice plants.