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This chapter presents the perspective of an Information and Communications Technology (ICT) integration specialist on how mobile devices and apps are being used in several Western Australian primary schools to improve students’ literacy across a range of contexts and curriculum areas. In her role, the author is responsible for assisting teachers in Independent sector schools with Technologies, ICT Literacy and Science, Technology, Engineering and Mathematics (STEM) education and has worked extensively in helping teachers design rich cross-curricular tasks and programmes that harness a range of digital technologies, including mobile devices. The chapter presents several examples of how teachers in Western Australian Independent schools have used mobile tools across the curriculum in rich tasks, and how this has supported students’ literacy learning. Although this chapter makes specific references to Australian curricular requirements and contexts, it is envisaged that the practical examples and insights presented will be more broadly applicable in helping practitioners use mobile technologies to enhance literacy learning across the curriculum.

Mobile devices, through their capacity to enable anytime-anywhere learning as well as capture, annotate and share multimedia, offer entirely new ways for students to learn. This chapter provides review of mobile learning with a particular focus on learning design. First various definitions and characteristics of mobile learning are examined in order to establish a common understanding of its boundaries and meaning. Example uses of mobile learning in schools and higher education are described as a way to provide a more concrete understanding of design possibilities. Benefits of mobile learning are unpacked, as distilled from the literature, including the ability to provide flexible, accessible, authentic, personalized, ubiquitous and seamless learning. Mobile learning issues are also examined, including technical problems, cognitive load issues, distraction, equity and safety. A primary school science and a university pre-service teacher education vignette are described so as to offer a more in-depth illustration of what mobile learning can look like and achieve in practice. Finally, mobile learning research findings and observations are synthesized into recommendations, to inform and guide evidence-based mobile learning design practices. Opportunities for future research and investigation are also discussed.

Purpose: This chapter describes the design and implementation, at the computer hardware and software level, of the Greggg robot. Greggg is a scalable high performance, low cost hospitality robot constructed from off-the-shelf parts. Greggg has a robust architecture and acts as a tour guide on-campus, both indoors or outdoors. This research allows one to build a customized robot at a low cost, under U.S. $2,000, for accomplishing the desired hospitality tasks, and scale, and expand the capability of the robot as required.

Practical Implications: The practical implication of the research is the capability to build and program a robot for hospitality tasks. Greggg is a customizable robot capable of giving on-campus tours both indoors and outdoors. In its current architecture, Greggg can be trained to be a museum docent and give directions to visitors on-campus or at an airport and scaled up for other hospitality tasks using off-the-shelf components. Enhancing the robot by scaling it up and expanding it, in addition to testing it with a range of increasingly more difficult tasks using machine learning algorithms, is highly beneficial to advancing research on the use of robots in the hospitality sector. Greggg can also be used for Robot-as-a-service (Rass) applications.

Societal Implications: The economic implication of Greggg is the ease and low cost with which one, with minimal technology know-how, can construct an autonomous hospitality industry robot. This chapter details the hardware and software needed to build a low cost scalable and customizable autonomous robot for the hospitality industry without having to pay an exorbitant price.

Research/Limitations/Implications: This research allows one to build their own customized hospitality robot under U.S. $2,000. Given the cost of building the robot, it has limitations on the hospitality tasks it can perform. It can navigate on flat surfaces, has limited vision and speech processing capabilities and has a battery life not exceeding an hour. Furthermore, it does not have any robotic manipulators or tactile processing capabilities.

This chapter presents a typology, a comprehensive overview and a deconstruction of food counterfeits. In this chapter, common targets, defined by type of commodity, supply chain (node) and location, are identified based on incident reports and vulnerability assessments in global food supply chains. As a second step, the effects of counterfeiting on brand owners, consumers and governments are detailed, which is followed by the characterisation of the groups of buyers and suppliers. To comprehend the counterfeiting process and its most important factors in greater detail, counterfeiting is disassembled into and analysed for existing motivational drivers, opportunities and control measures. Lastly, various strategies are proposed to deter counterfeiting and disrupt these practices.

Education and new technologies travel parallel pathways, with each often informing development of the other. In recent decades, educators have utilized technologies, such as television and the Internet, to develop and deliver course content. More recently, another technology has emerged that might possibly change education as it is currently practiced. Augmented reality merges manipulable digital imagery into real-world spaces and in real time. The technologies used to create augmented environments already exist in the mass market and have already begun to show up in a wide variety of fields, including education. This chapter will provide an overview of augmented reality and explore current and potential uses in higher education.

Purpose – This chapter contributes to the development of informed learning pedagogy by examining its innately political character. Through examining issues of power that arise in a particular educational setting, the aim is to illuminate how power (and resistance to it) needs to be carefully considered by practitioners who engage with informed learning pedagogy.

Theoretical Approach – Foucault’s view of power, defining it as something that can be both generative and repressive, and which works only in combination with resistance to this power, is specifically drawn on to illuminate how dialogues between students give rise to changed information practices.

Design – Twenty groups of learners, each of five to seven students, engaged in a series of three complex informed learning activities, and generated extensive datasets as they recorded their dialogues to online discussion boards within the Blackboard course management system used on a postgraduate course in educational technology. These data were supplemented by interviews with a number of students and the course tutor.

Findings – The information practices of the groups developed in different ways depending on a number of factors consistent with informed learning. Students were motivated by achieving high grades, and data reveal that students respond to surveillance from teaching staff and each other by communicating outside of the official discussion board space. This is illuminating because by resisting power in this way students develop new practices that are specifically relevant to their group, and shows how dominant power and resistance to it help develop facets of informed learning.