In recent decades, metal‐based drugs have gained considerable attention all over the world because of their enhanced therapeutic potential. The piroxicam analogue, that is, 2‐Benzyl‐4‐hydroxy‐1,1‐dioxo‐1,2‐dihydro‐1λ6‐benzo [e][1,2] thiazine‐3‐carboxylic acid pyridin‐2‐yl amide 1 was synthesized and coupled with Mn (II), Co (II), Ni (II), Cu (II) and Zn (II) metal ions to isolate complexes 2–6. The N,O‐bidentate chelator coordinated with the metal center via pyridyl nitrogen and amide oxygen atoms by forming six‐membered ring system. Several analytical techniques like UV–Vis, FT‐IR, 1H NMR, magnetic susceptibility, and elemental analysis were performed to confirm the syntheses of the octahedral complexes. The conductance measurement was employed to determine the non‐electrolytic nature of the complexes. The molecular structures of manganese (II) 2, cobalt (II) 3, and zinc (II) 6, complexes were confirmed by single beam X‐ray crystallography revealing the monoclinic crystal system with P21/c space group. The crystallographic data was utilized to carry out the DFT studies, which were found in line with the experimental data. The antioxidant (DPPH, FRAP) and antibacterial activities were performed to determine the therapeutic potential of these synthesized compounds. These studies indicated that understudied compounds have potential as therapeutic agents and they may be used as drug candidates in the future. The in‐silico studies also aligned with the in‐vitro potential of the targeted compounds.

Abstract Antibiotics are resistant compounds that become emerging contaminants that cause hazards to human health and the ecological environment due to their wide production and consumption. The present research reveals the remediation of amoxicillin (AMX) antibiotic by catalytic degradation using fabricated zinc oxide (ZnO) and zinc oxide-reduced graphene oxide (ZnO-rGO) catalysts. The characterization of the catalyst was carried out via UV–Vis spectroscopy, Fourier transform infrared spectroscopy, X-ray diffraction, energy dispersive X-ray spectroscopy, and scanning electron microscopy to evaluate the morphology and composition of synthesised catalyst. The catalytic ability of ZnO-rGO and ZnO was investigated by analysing the degradation of AMX. The ZnO-rGO nanocomposites (NCs) showed improved catalytic performance towards AMX degradation (96%) than pure ZnO nanoparticles (85%), which may be attributed to the incorporation of rGO, which enhanced the adsorption rate and changed the electron–hole recombination rate. The antioxidant potential of synthesised nanomaterials was also analysed by three different methods. The adsorption behaviour was explained through the Langmuir and Freundlich models, and the results revealed that AMX adsorption followed the Freundlich model more closely for both catalysts. The adsorption of AMX was also studied thermodynamically at different temperatures. The negative Gibbs energy change, positive enthalpy change, and entropy change showed the reaction’s spontaneity and endothermic nature. Finally, it can be assumed that the ZnO-rGO NCs could be an effective semiconductor for the degradation of AMX from wastewater.

The global agricultural landscape faces unprecedented challenges, including climate change, soil degradation, and water scarcity, necessitating innovative approaches to enhance crop resilience. Nanotechnology has emerged as a promising avenue for addressing these challenges by offering precise tools to manipulate and engineer materials at the nanoscale. This chapter explores the application of nanotechnology to enhance crop resilience in challenging environments. Nanomaterials, such as nanoparticles and nanocomposites, exhibit unique physicochemical properties that can positively impact plant growth, stress response, and overall crop performance. Engineered nanomaterials have demonstrated the ability to enhance nutrient uptake, mitigate abiotic stressors, and bolster plant defense mechanisms. Additionally, nanoscale delivery systems enable targeted and controlled release of agrochemicals, optimizing their efficacy while minimizing environmental impact. This chapter highlights recent advancements in nanotechnology-driven strategies to improve crop resilience, encompassing nanoscale nutrient delivery, stress-responsive nanomaterials, and precision agriculture technologies. Furthermore, the potential risks and ethical considerations associated with nanotechnology in agriculture are discussed. Overall, the integration of nanotechnology holds great promise for sustainable agriculture, offering novel solutions to ensure food security and mitigate the impact of challenging environmental conditions on global crop production.

This study explores the effect of charge on a special astronomical object known as a gravastar, which is viewed as an alternative to a black hole. Based on the conjecture put out by Mazur and Mottola in general relativity, the study primarily focuses on the consequences of f(Q) gravity. The internal domain, the intermediate shell, and the external domain are the three separate sections that make up a gravastar. Using a particular f(Q) gravity model that includes conformal Killing vectors to analyze these areas, we discover that the inner domain shows a repulsive force on the spherical shell since it is assumed that pressure is equivalent to negative energy density. The intermediate shell is made up of ultrarelativistic plasma and pressure, which is proportional to energy density and balances the repulsive force from the interior domain. For the exterior region, we use two approaches first we calculate the vacuum exact solution, and second, consider the Reissner–Nordström metric. Then, we match these spacetimes through junction conditions and explore the stability constraints for both cases. Our results show that charged gravastar solutions with non-singular physical parameters including length, energy, entropy, and equation of state parameter are physically realistic.

Biochar is a promising solution to alleviate the negative impacts of salinity stress on agricultural production. Biochar derived from food waste effect was investigated on three plant species, Medicago sativa, Amaranthus caudatus, and Zea mays, under saline environments. The results showed that biochar improved significantly the height by 30%, fresh weight of shoot by 35% and root by 45% of all three species compared to control (saline soil without biochar adding), as well as enhanced their photosynthetic pigments and enzyme activities in soil. This positive effect varied significantly between the 3 plants highlighting the importance of the plant-biochar interactions. Thus, the application of biochar is a promising solution to enhance the growth, root morphology, and physiological characteristics of plants under salt-induced stress.

The simultaneous monitoring of both the process mean and dispersion has gained considerable attention in statistical process control, especially when the process follows the normal distribution. This paper introduces a novel Bayesian adaptive maximum exponentially weighted moving average (Max-EWMA) control chart, designed to jointly monitor the mean and dispersion of a non-normal process. This is achieved through the utilization of the inverse response function, particularly suitable for processes conforming to a Weibull distribution. To assess the effectiveness of the proposed control chart, we employed the average run length (ARL) and the standard deviation of run length (SDRL). Subsequently, we compared the performance of our proposed control chart with that of an existing Max-EWMA control chart. Our findings suggest that the proposed control chart demonstrates a higher level of sensitivity in detecting out-of-control signals. Finally, to illustrate the effectiveness of our Bayesian Max-EWMA control chart under various Loss Functions (LFs) for a Weibull process, we present a practical case study focusing on the hard-bake process in the semiconductor manufacturing industry. This case study highlights the adaptability of the chart to different scenarios. Our results provide compelling evidence of the exceptional performance of the suggested control chart in rapidly detecting out-of-control signals during the hard-bake process, thereby significantly contributing to the improvement of process monitoring and quality control.

The current study aimed to employ integrated risk assessment models to estimate carcinogenic and non-carcinogenic human health risks of organochlorine pesticides (OCPs) from Pakistan. GIS-based geostatistical technique was used to classify OCPs' polluted risk zones using risk indexes. The residual level of ∑OCPs detected in wheat and rice ranged from 1.78 to 12.46 ng g−1 and 4.92–18.19 ng g−1, respectively with the prevalence of DDD, DDE and HCH. The distribution pattern revealed a significantly higher concentration towards downstream region, suggesting industrial and agricultural activities as a pollution source in the area. Single pollution index (SPI) was employed for the identification of pollution zones. The findings of SPI for detected OCPs were found (0.7 < Pi < 1), respectively, depicting minimal pollution at the studied sites. Furthermore, risk assessment results reflected non-cancer risk (>1) for studied ∑OCPs. However, the suggested USEPA value for tolerable carcinogenic risk is < 10−6 (one in a million) which was found higher for DDD, DDE, HCH, CT, and HC in the current study. Consequently, the carcinogenic risk in the study area indicated the need for an assessment, monitoring, and reporting program grounded on laws that can reduce pollution and exposure levels to pesticides in Pakistan for good health and well-being.

Strontium phosphorus iodide (Sr3PI3) has attracted interest as a possible absorber material because of its unique optical, electronic, and structural properties, which make it appropriate for effective and reasonably priced solar cell applications. With an emphasis on its structural, optical, and electronic characteristics, this paper thoroughly examines the theoretical aspects of Sr3PI3 before investigating its possible uses in heterostructure solar cells. The optoelectronic characteristics of the novel Sr3PI3 absorber are first investigated, and a DFT analysis is conducted to determine appropriate electron transport layer (ETL) materials, including tin sulfide (SnS2), zinc sulfide (ZnS), and indium sulfide (In2S3), as well as different interface layers. The photovoltaic (PV) performance of cell architectures based on the Sr3PI3 absorber with SnS2, ZnS, and In2S3 as ETLs is then thoroughly investigated. Variations in layer thickness, defect density, bulk and doping density, active material interface density, working temperature, and other parameters are investigated in this study. By using the SCAPS-1D simulator, PV parameter optimization is accomplished. In addition, the study examined the generation and recombination rates of photocarriers, quantum efficiency (QE), and current density-voltage (J-V) properties. The structure with the highest power conversion efficiency (PCE) of 27.32% was the Al/FTO/SnS2/Sr3PI3/Ni combination. It achieved a JSC of 36.1146 mAcm−2, FF of 84.06%, and VOC of 0.899 V for the SnS2 ETL. In contrast, the PCEs in heterostructures for ZnS and In2S3 ETLs were 20.13 % and 17.87 %, respectively. The physical, electrical, and optical characteristics of SnS2, ZnS, and In2S3 ETLs, as well as Sr3PI3 perovskite absorbers are better understood as a result of this work. Furthermore, it provides insightful information about the possible use of Sr3PI3 in heterostructure perovskite solar cells (PSCs), laying the groundwork for future experimental plans intended to create stable and effective PSCs.

BackgroundCadmium (Cd) is a hazardous heavy metal that adversely affects the vital body organs particularly liver. Eriocitrin (ERCN) is a plant-based flavonoid that is well-known for its wide range of pharmacological potential. This research trial was aimed to determine the ameliorative potential of ERCN against Cd provoked hepatotoxicity in rats. MethodologyTwenty-four rats (Rattus norvegicus) were apportioned into control, Cd treated (5 mg/kg), Cd (5 mg/kg) + ERCN (25 mg/kg) and only ERCN (25 mg/kg) administrated group. Expressions of Nrf2/Keap1 pathway and apoptotic markers were assessed through qRT-PCR. The levels of inflammatory and liver function markers were evaluated by using standard ELISA kits. Key findingsCd exposure reduced the expression of Nrf2 and anti-oxidant genes as well as the activity of catalase (CAT), glutathione reductase (GSR), superoxide dismutase (SOD), glutathione peroxidase (GPx), glutathione S-transferase (GST) and glutathione (GSH) contents while escalating the expression of Keap1. Furthermore, Cd intoxication augmented malondialdehyde (MDA) and reactive oxygen species (ROS) levels in hepatic tissues. Exposure to Cd resulted in a notable elevation in the levels of alanine transaminase (ALT), alkaline phosphatase (ALP) and aspartate aminotransferase (AST). Cd administration upregulated nuclear factor-kappa B (NF-κB), interleukin-1 beta (IL-1β), tumor necrosis factor-alpha (TNF-α), and interleukin-6 (IL-6) levels as well as cyclooxygenase-2 (COX-2) activity. Furthermore, Cd administration upsurged Bax and Caspase-3 expression while reducing the expression of Bcl-2. Moreover, Cd intoxication disrupted the normal architecture of hepatic tissues. However, supplementation of ERCN significantly (p < 0.05) ameliorated the aforementioned disruptions induced by Cd intoxication. ConclusionERCN treatment remarkably ameliorated the hepatic tissues owing to its antioxidant, anti-inflammatory, and anti-apoptotic potentials. These findings underscore the therapeutic potential of ERCN to counteract the adverse effects of environmental pollutants on hepatic tissues.

Paraquat (PQ) an herbicide that is commonly used to remove undesirable grasses. However, PQ also causes cardiac damage through reactive oxygen species (ROS) production. Didymin (DYD) is a dietary flavone, present in citrus fruits and campanula. DYD displays multiple therapeutic activities i.e., anti-oxidant, hepatoprotective, neuroprotective and free radical salvaging. Therefore, the present study was planned to explore the ameliorative effect of DYD against PQ instigated cardiac damage. 24 rats were separated into 4 groups, control, PQ administered PQ + DYD co-administered orally and DYD only administered group. PQ intoxication significantly reduced anti-oxidants including (SOD, GST, GSH, CAT, GPx and GSR activities, while increasing malondialdehyde (MDA) and ROS levels. PQ intoxication escalated the level of cardiac injury marker i.e., creatine kinase myoglobin binding (CK-MB), troponin, creatinine phosphokinase (CPK) and lactate dehydrogenase (LDH). PQ also augmented inflammatory markers i.e., (TNF-α, IL-1β, NF-κB, IL-6 levels and COX-2 activity). Moreover, PQ intoxication escalated the apoptotic proteins levels (Bax, Caspase-3 and Caspase-9), while decreasing Bcl-2 level. PQ intoxication also prompted histomorphological anomalies in the heart of rats. Conversely, DYD therapy restored all the anomalies and structural abnormalities owing to its cardioprotective potentials.