International education is a relatively new field and until recently, there was no formal education to prepare practitioners. This means that people working in international education are a colourful and diverse group, coming from a wide range of disciplines, which definitely adds to the attraction of the field. I call international education a field rather than a discipline since it is composed of a variety of established disciplines, such as languages, educational sciences, psychology, business, anthropology, history and even, in my case, classical archaeology. For this lecture, I have chosen to return to my original discipline and discuss global learning as the stages of an archaeological excavation. Cutting though the subsequent layers represents a history of international education but also my own professional history. By digging deeper down, layer after layer, I hope to uncover the essence of global learning in order to make its benefits available for all our students. This lecture consists of four sections. In the first section, I want to go back to the time when archaeology was a new discipline and see what we can learn from the research conducted at that time. In the second section I will reveal the layers of internationalisation and global learning until we come to the layer that we are currently exploring. In the third section, I will look at some of the factors and trends that will have an impact on global learning in the years to come. This shows that circumstances are quite different from when the excavation started and that global education is therefore dynamic. Finally, I will discuss what research the Research Group Global Learning will conduct, how and with whom, in the coming years.
Twirre is a new architecture for mini-UAV platforms designed for autonomous flight in both GPS-enabled and GPS-deprived applications. The architecture consists of low-cost hardware and software components. High-level control software enables autonomous operation. Exchanging or upgrading hardware components is straightforward and the architecture is an excellent starting point for building low-cost autonomous mini-UAVs for a variety of applications. Experiments with an implementation of the architecture are in development, and preliminary results demonstrate accurate indoor navigation
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The decomposition of a body is influenced by burial conditions, making it crucial to understand the impact of different conditions for accurate grave detection. Geophysical techniques using drones have gained popularity in locating clandestine graves, offering non-invasive methods for detecting surface and subsurface irregularities. Ground-penetrating radar (GPR) is an effective technology for identifying potential grave locations without disturbance. This research aimed to prototype a drone system integrating GPR to assist in grave localization and to develop software for data management. Initial experiments compared GPR with other technologies, demonstrating its valuable applicability. It is suitable for various decomposition stages and soil types, although certain soil compositions have limitations. The research used the DJI M600 Pro drone and a drone-based GPR system enhanced by the real-time kinematic (RTK) global positioning system (GPS) for precision and autonomy. Tests with simulated graves and cadavers validated the system’s performance, evaluating optimal altitude, speed, and obstacle avoidance techniques. Furthermore, global and local planning algorithms ensured efficient and obstacle-free flight paths. The results highlighted the potential of the drone-based GPR system in locating clandestine graves while minimizing disturbance, contributing to the development of effective tools for forensic investigations and crime scene analysis.
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