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The purpose of this research is to investigate the relationships between ethical leadership, affective commitment, work engagement, and employees' creativity. Data were obtained from 233 Chinese public sector employees in three separate waves. By using structural equation modeling, we found positive and significant association between ethical leadership and employee creativity. Additionally, we found evidence of parallel mediation, where affective commitment and work engagement mediate the relationship between ethical leadership and employee creativity. To be precise, we found that ethical leadership influences affective commitment and work engagement which subsequently induces followers to exhibit creativity in their work. The findings of this study reveal that both affective commitment and work engagement play a pivotal role through which ethical leaders can enhance their followers' creative behaviors., Author(s): Muhammad Asif [sup.1] , Qing Miao [sup.2] , Arif Jameel [sup.1] , Faiza Manzoor [sup.1] , Abid Hussain [sup.1] Author Affiliations: (1) grid.13402.34, 0000 0004 1759 700X, School of [...]

This study explored the role of technology systems in influencing nurses' intentions to adopt medical applications that enhance their performance and how technology contributes to improvements in hospital systems. The study examines the intention to use technology through the mediating effects of perceived usefulness and perceived ease of use, with technology sophistication. A random sampling method was employed to gather 687 responses from nurses. The statistical analysis was conducted using AMOS version 25.0 and SPSS. The findings indicate a significant association between technology sophistication (TS), perceived usefulness (PU), perceived ease of use (PEU), and intention to use (IU). Additionally, PU and PEU positively mediate the relationship between TS and IU. This research will benefit policymakers aiming to enhance nurses' performance by adopting modern technology. Authorities should consider introducing advanced technology systems to meet the goals of hospital administration and support nurses effectively. [ABSTRACT FROM AUTHOR]

ABSTRACT This interdisciplinary research explores the complex interplay between democratic erosion and migration crises, recognising their profound implications for social cohesion. With universities serving as bastions of knowledge and inclusion, their role in addressing these challenges is paramount. By implementing targeted programs and initiatives, universities actively contribute to mitigating the adverse effects of these crises and promoting social cohesion within their campuses and surrounding communities. The research objectives encompass a comprehensive examination of existing strategies and programs implemented by universities worldwide, focusing on identifying successful approaches and practices. Additionally, the study seeks to uncover the underlying challenges and obstacles faced by universities in effectively addressing democratic and migration crises, ranging from institutional constraints to sociopolitical factors. Universities hold significant sway in shaping policy discourse and influencing decision‐making processes at local, national, and international levels. Through rigorous research methodologies, including mixed‐methods approaches involving qualitative case studies and large‐scale surveys, this study aims to provide nuanced insights into the root causes and consequences of democratic erosion and migration crises. Ultimately, this research contributes to advancing scholarly understanding in the fields of democratic governance, human mobility, and social cohesion. By offering actionable insights and innovative solutions, it strives to empower policymakers, practitioners, and affected communities to effectively navigate and address these complex challenges, fostering resilience and harmony in societies worldwide. [ABSTRACT FROM AUTHOR]

The pomfret fish, particularly the black pomfret (Parastromateus niger), serves as a significant economic resource in South Asia, particularly in the coastal regions of Balochistan, Pakistan. This study investigates various biological parameters of Parastromateus niger collected from the Gaddani coastal area of Pakistan, focusing on length-weight relationships, gut fullness, and population demographics. A total of 117 fish specimens were collected, with females dominating the samples. Length and weight data were analyzed separately for males and females, with statistical calculations revealing strong correlations (r2 values ranging from 0.918 to 0.985) between length and weight for both sexes. Gut fullness was categorized into five levels, with the highest percentage observed during July, suggesting potential breeding activity during this period. The zooplanktons were identified as primary dietary components of Parastromateus niger. The study also highlights the importance of regulatory measures to sustainably manage fish populations, especially during breeding seasons, and calls for further research into the intensive culturing and feeding regimes of black pomfret to enhance its production. Overall, these findings contribute to a better understanding of the biological characteristics and potential for aquaculture development of Parastromateus niger in the region. [ABSTRACT FROM AUTHOR]

Quinoa (Chenopodium quinoa Willd.), a high‐value halophytic crop, is a promising candidate to ensure food security in the scenario of increasing soil salinization due to climate change. In a 2‐year field study (during 2018–2019 and 2019–2020), 18 quinoa genotypes of different origins (Q‐4, Q‐6, Q‐9, Q‐7, Q11, Q‐15, Q‐22, Q‐24, Q‐27, Q‐45, Q‐50, Q‐51, Q‐52, Q‐76, Q‐81, Q82, Q‐124, and Q‐126) were grown at two different locations (salt‐affected and normal soil having electrical conductivity (EC) of 16.24 and 1.76 dS m−1, respectively). Morphological, physiological, and yield parameters were recorded to assess the impact of salinity on different genotypes of quinoa. All the tested genotypes performed better in normal soil (37% more yield) than salt‐affected soils. Under salt‐affected conditions, differential salt tolerance responses of quinoa genotypes were observed. Among tested genotypes, Q‐7 achieved the highest chlorophyll content index, biological mass (7905 kg ha−1), and seed yield (1916 kg ha−1) under salt‐affected conditions, it was followed by Q‐81. Salt stress caused up to 94% reduction of seed yield in the salt‐sensitive genotype (Q‐11), while the salt‐tolerant genotype (Q‐81) showed only 15% reduction in seed yield. Morphological characteristics of quinoa genotypes were differently influenced by salt stress. The salt‐tolerant accessions Q‐7 and Q‐81 exhibited similar morphological characteristics. Based on the findings of this study, salt‐tolerant quinoa genotypes can be successfully grown in salt‐degraded soils (with EC ≤ 16.24 dS m−1) in extreme winter seasons with arid climatic conditions. Core Ideas: Salt‐tolerant quinoa genotypes can be successfully grown in strongly salt‐degraded soils (electrical conductivity [EC] ≤ 16.24 dS m−1).Morphological characters (growth habit and main stem shape) of quinoa are associated with salt tolerance potential.Salt‐sensitive genotypes showed significantly higher yield losses (up to 94%) than salt‐tolerant genotypes (15%–45%).Quinoa genotypes show differential salt tolerance responses based on their origin and morphological characters. Plain Language Summary: Quinoa, a high‐value halophytic crop, emerges as a promising candidate to ensure food security amidst increasing soil salinization caused by climate change. In a 2‐year field study, 18 quinoa genotypes of diverse origins were cultivated in both normal and salt‐affected soils to evaluate the impact of salinity on different quinoa genotypes. Under salt‐affected conditions, distinct salt tolerance responses were observed among the quinoa genotypes. Morphological, physiological, and yield parameters of the quinoa genotypes were variably affected by salt stress. The salt‐tolerant accessions Q‐7 and Q‐81 exhibited robust responses, showing minimal yield reduction. Based on the findings of this study, salt‐tolerant quinoa genotypes can be successfully cultivated in salt‐degraded soils (with electrical conductivity ≤ 16.24 dS m−1) during extreme winter seasons characterized by arid climatic conditions. [ABSTRACT FROM AUTHOR]

We applied time-resolved sulfur-1s absorption spectroscopy to a model aromatic thiol system as a promising method for tracking chemical reactions in solution. Sulfur-1s absorption spectroscopy allows tracking multiple sulfur species with a time resolution of ∼70 ps at synchrotron radiation facilities. Experimental transient spectra combined with high-level electronic structure theory allow identification of a radical and two thione isomers, which are generated upon illumination with 267 nm radiation. Moreover, the regioselectivity of the thione isomerization is explained by the resulting radical frontier orbitals. This work demonstrates the usefulness and potential of time-resolved sulfur-1s absorption spectroscopy for tracking multiple chemical reaction pathways and transient products of sulfur-containing molecules in solution.

Iodine (I) is a beneficial micronutrient for crop plants and essential for human health, yet approximately two billion people worldwide suffer from I deficiency, resulting in significant health issues. Agricultural soils often lack sufficient I, resulting in crops with low I content. However, tomatoes have shown potential to accumulate I when supplemented externally, making them an ideal candidate for I biofortification, particularly as an alternative to iodized salt for individuals on low-sodium diets. This two-year greenhouse pot experiment evaluated the effectiveness of foliar application of potassium iodide (KI) in biofortifying two commercial tomato hybrids. Different concentrations of I (0, 1, 3, 6, and 9 mM/plant) were applied as foliar treatments to assess their effects on physiological parameters, yield attributes, and quality traits, especially I enrichment in tomato fruit. The results demonstrated that foliar application of KI significantly increased fruit I contents at concentrations that also promoted overall plant growth and development. These findings underscored the efficient translocation of I through the phloem in tomatoes. I enrichment in tomato fruits ranged up to 5.27 mg/kg, exceeding the recommended daily allowance (RDA) of 150 μg/day. Even lower doses of 1–3 mM KI were effective in achieving significant I enrichment suitable for biofortification programs. In conclusion, tomato emerged as an excellent candidate for agronomic biofortification with I due to the practicality, and affordability of foliar application. The study highlights the potential of foliar I application as a feasible strategy for addressing global I deficiency, emphasizing its suitability for widespread adoption by farmers. [ABSTRACT FROM AUTHOR]