Integrating Augmented Reality (AR) into bio-inspired vision research transforms how students learn, experiment, and innovate. Through immersive 3D simulations, interactive visual mapping, and AI-powered analytics, AR bridges the gap between biological vision science and engineered optical systems.

By experiencing hands-on AR-enhanced learning, the next generation of scientists and engineers will be better equipped to develop advanced bionic vision technologies, AI-driven robotic sensors, and augmented optical interfaces, shaping the future of bio-inspired innovation.

Phase Description
Explore They visualise the greenhouse effect in 3D, compare greenhouse gas levels over time and overlay historical data and future projections directly onto the real environment to visually understand the impact of climate change at a global and local level. They use AR to map energy sources (fossil and renewable) in their region and observe how these affect the environment. They can follow simulated energy flows (e.g. from the sun to solar panels to the home). They observe traditional and sustainable heating and cooling systems projected in AR within domestic or school environments to analyse their efficiency and energy impact.
Execute They design virtual buildings with different energy classes and analyse their environmental performance through AR simulations (e.g., use of insulation, smart windows, reflective materials). They create digital prototypes of bioclimatic architecture (e.g., green roofs, ventilated facades), inspired by the behaviour of plants and ecosystems. In AR, they can test the effect of light, wind and shading. They explore energy-saving technologies (home automation, sensors, passive energy systems) and create simplified versions in AR to integrate into their designs. They can evaluate costs, avoided emissions and energy savings in real time.
Enhance

They enter interactive virtual environments (e.g. forests, coastal cities, power plants) to understand complex climate and energy systems.

They can modify energy parameters in their AR models (e.g. change energy sources or building materials) and visualise the effects on emissions or thermal comfort in real time.

They accumulate points by solving interactive quizzes on the causes, effects and solutions of climate change and complete group design challenges, advancing to higher levels in the design of sustainable energy systems.

They present their 3D models with enhanced AR, answer dynamic quizzes and reflect on the future role of augmented reality in scientific, environmental and engineering understanding.