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In 1967 Aslib Research and Development Department published a note describing experimental work on computer‐aided typesetting, and announcing that further research was planned. The proposed programme of work was carried out by the authors of the present paper, during their sojourns as members of the Department. The results are here reported.

This chapter examines the Netherlands’ challenges in safeguarding its low-lying coastline against rising sea levels and the consequences of coastal defense strategies on marine life, particularly in relation to SDG14. Sea-level rise necessitates increased soft coastal defense strategies, affecting seafloor areas and marine biodiversity through sand extraction and sand nourishments. The use of hard structures for coastal defense contributes to the loss of natural coastal habitats, raising biodiversity concerns. The chapter explores the potential benefits of artificial hard surfaces as marine habitats, emphasising the need for careful design to prevent ecological problems caused by invasive species. Strategies for enhancing biodiversity on human-made hard substrate structures, including material variations, hole drilling, and adaptations, are discussed. The ecological impact of marine sand extraction is examined, detailing its effects on benthic fauna, sediment characteristics, primary production, and fish and shrimp populations. Solutions proposed include improved design for mining areas, ecosystem-based rules for extraction sites, and ecologically enriched extraction areas. The ecosystem effects of marine sand nourishments are also analysed, considering the impact on habitat suitability for various species. The chemical effects of anaerobic sediment and recovery challenges are addressed. Mitigation measures, such as strategic nourishment location and timing, adherence to local morphology, and technical solutions, are suggested. The chapter underscores the importance of education in Nature-based Solutions and announces the launch of a new BSc programme in Marine Sciences at Wageningen University & Research, integrating social and ecological knowledge to address challenges in seas, oceans, and coastal regions and support SDG14 goals.

This chapter will explore how assessment might look in next generation learning spaces where we have the potential to merge physical and virtual activities. Students now have ready access to a world of resources within their classroom and this fundamentally changes the nature of learning and assessment. The trend toward gamification of learning and assessment will be examined and the issue of assessment in new educational environments such as MOOCs will be explored. The impact of the semantic web (Web 3.0), where web objects and their context are all linked and objects have memory of how an individual student used them on previous occasions, will be discussed.

Next generation learning spaces encapsulate the affordances of both physical and virtual spaces and yet many assessment tasks are still designed as if students occupied only one of these spaces. Teachers will need to design more authentic, meaningful tasks that will engage students in using the full range of their capabilities and available resources, both physical and virtual. Students come together physically to engage in the social construction of their knowledge and can use the virtual spaces to broaden the social dimension of their learning environment.

Gamification of learning and assessment will require new approaches to defining tasks as teachers will need to decide how to incorporate diagnostic, formative, and summative assessment components within a more holistic educational environment. Game theory will be blended with learning theory in curriculum design and will result in the redesign of learning and assessment activities that are based on engagement (flow), user needs, and an evidence-centered design approach.

The authors present concepts developed at University of Naples Federico II (Italy), where the Challenge Based Learning methodology (CBL) is utilised in a programme aimed at software development for the Apple technology ecosystem. The collaborative and self-guided, inquiry-based learning method focusses on intrinsic motivation of learners, working on real world problems organised in projects (Challenges in CBL) with an experiential and progressive approach. As entrepreneurship is best promoted through practice, the programme is a guided immersion into reality that is entrepreneurial in nature, rather than a simulation of hypothetical projects, and requires learners to take ownership of entrepreneurial skills to complete the course. Academic research has shown that use of storytelling is beneficial to learning and can foster engaging and more formative experiences. Additionally, scholars have developed systems to design unscripted narratives within educational contexts using emergent narrative concepts. This conceptual chapter describes an educational experience design system that encourages unscripted, emergent narratives for experiential education. It categorises the components for designing an educational experience that allows the learning progression to be affectively driven by learners. By focussing on setting parameters and giving learners autonomy as co-authors, the model describes mechanisms that allow powerful, unscripted narratives to emerge based on intrinsic motivation. The Emergent Narrative System developed by the authors is a contribution to innovation in entrepreneurship teaching and intends to empower learners towards building entrepreneurial and twenty-first century skills complementary to software development education in a conducive and experiential learning environment.

The focus of this chapter is the role of technology in diverse students’ active learning and interconnectedness in inclusive classrooms. The discussion is guided by the inclusive pedagogical approach in action (IPAA) framework, which is used as a tool for planning teaching and critical reflection. Inclusive education has previously considered the role of technology through the lens of Universal Design for Learning to inform how teachers plan instruction for students’ maximal accessibility, participation and engagement. We use the IPAA framework to build on and extend this by challenging teachers to also consider and incorporate technologies in innovative ways for students to collaborate with each other and build classroom relationships, as well as engaging with the curriculum on their own terms to make learning more meaningful.

This chapter aims at contributing to the literature on education for business families shedding light on some current knowledge gaps, new research directions, and future contributions. We have focused on highlighting the elements that make family business education a promising field for developing lifelong, multigenerational pedagogical strategies, becoming a field of experimentation that could be beneficial for the innovation in multidisciplinary university education. We have also explored the characteristics of various teaching methods that are new for family business education at universities, and how they relate with the different types of learning categorized by Le Breton-Miller and Miller (2015). Since education to business families is an area that is on its nascent stage, a high research potential is placed ahead.