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The growing prevalence of digitalisation in economies has brought attention to the significance of digital transformation and its potential to enhance the competitiveness of enterprises within the emerging market. Nevertheless, it is important to note that disruptive changes are not limited to the organisational level, as they also have broader implications for the environment, society and institutions. The incorporation of technology into the field of education, often known as educational technology (EdTech), has undergone a significant evolution in recent times, fundamentally transforming the methods and processes of teaching and learning. This chapter delves into the multifaceted landscape of digital transformation in the field of EdTech from the perspective of sustainable development, elucidating the wide range of opportunities and challenges that consumer, educators, institutions and technology providers and various stakeholders face when they embark on this journey. Further, this chapter also sheds light on how to overcome the challenges faced by the stakeholders in digital transformation of EdTech for quality education.

The research provides new strategies for enhancing resilience in pharmaceutical manufacturing by addressing the dynamic nature of digital technology within the challenging framework of a VUCA (volatility, uncertainty, complexity and ambiguity) world, focusing on the concept of digital twins (DTs). This paper aims to emphasize the pivotal role of resilience in navigating disruptions and propose future research directions to contribute to the industry’s effective adaptation to uncertainties and dynamic challenges.

This research uses a qualitative approach, drawing insights from an extensive literature review on pharmaceutical manufacturing resilience and the integration of digital technologies. Methodologically, it synthesizes information from scholarly articles, empirical studies and industry reports to construct a comprehensive understanding. This design facilitates a thorough examination of the subject, providing valuable insights for practitioners, researchers and policymakers in the pharmaceutical industry.

This paper illustrates the practical application of DTs in vaccine production, emphasizing their critical role in ensuring quality, safety and adaptability. It adopts the “seizing, sensing and transforming” framework, showcasing the strategic integration of Industry 4.0 technologies to address dynamic challenges. Key insights include the significance of human elements alongside technological advancements, the need for real-time monitoring using Internet of Things (IoT) and artificial intelligence (AI) and the transformative potential of sustainability practices, diversified supply chains and collaborative ecosystems.

This paper highlights the integration of human and digital elements, emphasizing IoT, AI and DTs for resilience. It underscores sustainable practices, supply chain diversification and collaboration as key strategies for addressing pharmaceutical industry challenges.

This paper offers practical insights for pharmaceutical manufacturing, emphasizing the need for robust cybersecurity measures, strategic investments in digital technologies and proactive regulatory compliance. Managers are encouraged to allocate budgets for digital integration, prioritize change management for technology adoption and invest in a skilled workforce. The adoption and management of DTs are highlighted to enhance resilience. Overall, the paper guides pharmaceutical organizations in navigating the complexities of the VUCA environment, ensuring the quality and safety of products through a multifaceted approach that combines advanced technologies with sustainability practices, supply chain diversification and collaborative ecosystems.

The research addresses VUCA challenges, including volatility, uncertainty, complexity and ambiguity in pharmaceutical manufacturing. It emphasizes societal benefits such as uninterrupted drug supply, environmental responsibility through sustainable practices and enhanced collaboration among stakeholders. By leveraging digital technologies and resilience strategies, the study highlights the pharmaceutical sector’s pivotal role in managing health crises and ensuring patient safety.

This paper offers substantial originality and value by presenting a comprehensive framework for bolstering resilience in pharmaceutical manufacturing within the VUCA environment. The integration of advanced digital technologies, notably DTs, is explored in-depth, providing novel insights into their practical application. The “seizing, sensing and transforming” concept contributes a nuanced approach, considering both technological and human dimensions. This paper addresses the gaps in current literature by combining diverse elements such as Industry 4.0, risk assessment, sustainability practices and collaborative ecosystems. Its practical implications for managers and detailed exploration of research directions add tangible value, guiding future endeavors in enhancing pharmaceutical industry resilience.

This study aims to propose and evaluate a simpler technology to reduce harmful emissions from diesel engines by preheating the fuel before injection into the combustion chamber.

A spring-type heater coil with suitable insulation was installed on the high-pressure fuel pipeline to preheat the fuel. Experiments were conducted at a standard injection timing of 23° before top dead center, across 25%, 50%, 75% and 100% of full load. The fuel was preheated to 100°C, 160°C and 220°C for each engine load. Engine performance, emissions and thermal balance were analyzed for preheated and unheated diesel.

This study found that preheated fuel improved combustion characteristics, with higher pressure rise and net heat release rates during diffusion combustion. Brake thermal efficiency increased by 8.75% to 10.58%, and brake-specific fuel consumption decreased by up to 9.18%. Emissions significantly dropped: nitrogen oxides by up to 51%, smoke density by up to 63%, carbon monoxide by up to 67% and hydrocarbon by up to 25%. Thermal balance results showed increased useful work and reduced heat losses, particularly at higher preheating temperatures.

This research presents a novel and simpler approach to enhancing diesel engine performance and reducing emissions by preheating the fuel. The findings demonstrate significant improvements in efficiency and substantial reductions in harmful emissions, highlighting the potential of preheated fuel as a viable solution for cleaner diesel engine operation.

Integrating additive manufacturing (AM) tools in traditional mold-making provides complex yet affordable sand molds and cores. AM processes such as selective laser sintering (SLS) and Binder jetting three-dimensional printing (BJ3DP) are widely used for patternless sand mold and core production. This study aims to perform an in-depth literature review to understand the current status, determine research gaps and propose future research directions. In addition, obtain valuable insights into authors, organizations, countries, keywords, documents, sources and cited references, sources and authors.

This study followed the systematic literature review (SLR) to gather relevant rapid sand casting (RSC) documents via Scopus, Web of Science and EBSCO databases. Furthermore, bibliometrics was performed via the Visualization of Similarities (VOSviewer) software.

An evaluation of 116 documents focused primarily on commercial AM setups and process optimization of the SLS. Process optimization studies the effects of AM processes, their input parameters, scanning approaches, sand types and the integration of computer-aided design in AM on the properties of sample. The authors performed detailed bibliometrics of 80 out of 120 documents via VOSviewer software.

This review focuses primarily on the SLS AM process.

A SLR and bibliometrics using VOSviewer software for patternless sand mold and core production via the AM process.

Interdependence on the global economy and rapid technological changes raised the degree of uncertainty and complexity, leading to innovation challenges. Innovation depends on knowledge, and the solution might rest on how sound firms manage it, particularly in emerging markets such as India. The purpose of this paper is to examine how firms implement knowledge management (KM) in highly innovation-oriented firms (biotechnology and pharmaceuticals) and the factors affecting its implementation by examining knowledge interactions between individuals.

This study consists of a systematic literature review, a case study with embedded units and the use of grounded theory to analyse the data. The factors emerging from the results were examined from an individual and organisational lens. Next, complexity theory (CT) was used to understand the impact of these factors in KM by facilitating its incorporation as a system.

The findings of this paper suggest that constant technology adoption increases human-to-technology interaction, higher circulation of existing knowledge and more controlled environments, discouraging individuals from learning or sharing knowledge. From a system perspective, results of this paper suggest that firms self-organise around technology, indicating that innovation decreases as knowledge creation and sharing tend to reduce with lesser social interactions. This study shows the usefulness of using CT in analysing KM for innovation. The performance of the system is analysed based on its constituents and interactions.

This study contributes to advancing CT in KM in the context of innovation in highly knowledge-intensive firms, as few studies were found in the literature.