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Objective: This research aims to explore the significant impact of Information and Communication Technology (ICT) on literary representations of diasporic experiences, particularly focusing on its role in connecting immigrants worldwide. Methodology: The study employs an analytical approach to examine the influence of ICT on diasporic literature. Key Findings: The findings reveal that ICT has played a crucial role in reshaping the concept and portrayal of diasporic experiences in literature. In Inaam Kachachi's novel The Dispersal (2023), Iskander's technological skills highlight ICT's potential to maintain family connections. He uses technology to preserve his family's history by creating a virtual graveyard, allowing for the sharing of cultural practices and traditions. Conclusions: The research concludes that ICT is a transformative tool that helps preserve cultural identities, enhance resilience, and strengthen the diasporic experience by facilitating communication and fostering a sense of belonging. Recommendations: The study recommends applying the same analytical approach to other novels within diasporic literature to further explore how technology influences diasporic experiences in literature. [ABSTRACT FROM AUTHOR]

Software simulation programs and virtual reality (VR) have become powerful tools for several educational purposes, and recently, they were used in a wide range of applications. In cases of inaccessibility to labs, workshops, or industries, as happened before in the coronavirus disease 2019 pandemic, these tools could be effectively integrated with practical lab experiments. In this study, a computational fluid dynamics (CFD) simulation and a VR module were utilized to simulate heat transfer by conduction through various experimental cases. The CFD simulation results were obtained using ANSYS/FLUENT software. Meantime, the experimental data were obtained by carrying out three experiments of heat conduction with different heat transfer rates through simple, composite, and different cross‐sectional area bars. At last, the experimental procedure and devices used were virtually constructed using SolidWorks software as three‐dimensional models, which were then extruded into VR and augmented reality models. It was found that the simulation results closely align with the experimental ones, and the temperature profile in both cases has the same behavior with small differences, which indicates the validity of the developed module to be used as a simulation of the actual experiments. In addition to improving knowledge of heat transfer principles, this combination of simulation and VR technology advances many Sustainable Development Goals (SDGs), including advancing quality education (SDG 4) and innovation in higher education (SDG 9). Additionally, this method assists in achieving the course learning objectives by mimicking real‐world lab experiments, guaranteeing that students graduate from the course with the required information and abilities. [ABSTRACT FROM AUTHOR]

Global supply networks encompass many inter-connected suppliers. Many of these suppliers are unpredictable and beyond the direct realm of the company, making the management of sustainability a difficult task. This research attempts to put forth a profound exploration of the integration of sustainability across complex multi-tier supply networks through the utilization of blockchain technology. The research includes a selected literature review compromising well-cited research that focuses on multi-tier supply networks and blockchain technology. The findings suggest that blockchain can enhance suppliers' visibility. Managers will have increased transparency and traceability of their global supply networks, which will eventually reduce information asymmetry and limit opportunistic behaviors. Furthermore, the connectivity and rapid/immutable sustainable information sharing features associated with blockchain increase suppliers' predictability and create robust sustainable supply networks. Despite the potential benefits enabled by the technology, the research highlights some vital complexities that may obstruct the adoption of the technology across multi-tier supply networks. [ABSTRACT FROM AUTHOR]

In this work, the effective adsorption and the subsequent photodegradation activity, of TiO2 brookite nanoparticles, for the removal of anionic dyes, namely, Alizarin Red S (ARS) and Bromocresol Green (BCG) were studied. Batch adsorption experiments were conducted to investigate the effect of both dyes' concentration, contact time, and temperature. Photodegradation experiments for the adsorbed dyes were achieved using ultraviolet light illumination (6 W, λ = 365 nm). The single adsorption isotherms were fitted to the Sips model. The binary adsorption isotherms were fitted using the Extended-Sips model. The results of adsorption isotherms showed that the estimated maximum adsorption uptakes in the binary system were around 140 mg g−1 and 45.5 mg g−1 for ARS and BCG, respectively. In terms of adsorption kinetics, the uptake toward ARS was faster than BCG molecules in which the equilibrium was obtained in 7 min for ARS, while it took 180 min for BCG. Moreover, the thermodynamics results showed that the adsorption process was spontaneous for both anionic dyes. All these macroscopic competitive adsorption results indicate high selectivity toward ARS molecules in the presence of BCG molecules. Additionally, the TiO2 nanoparticles were successfully regenerated using UV irradiation. Moreover, molecular dynamics computational modeling was performed to understand the molecules' optimum coordination, TiO2 geometry, adsorption selectivity, and binary solution adsorption energies. The simulation energies distribution exhibits lower adsorption energies for ARS in the range from − 628 to − 1046 kJ mol - 1 for both single and binary systems. In addition to that, the water adsorption energy was found to be between − 42 and − 209 kJ mol - 1 . [ABSTRACT FROM AUTHOR]