The final phase goes beyond practice to reflection and imagination. Here, augmented reality becomes a tool not only for simulation, but also for critical thinking.

Students explore scenarios involving nanotechnology. Some examples to stimulate learning are:
Is it possible to design nanoparticles that release drugs only when they encounter the acidic environment of a tumour?

  • How could nanomedicine solve the problem of drug delivery across the blood-brain barrier?
  • What ethical issues arise if we are able to design particles that circulate for months or years within the body?

AR tools make these abstract problems visible, turning them into interactive puzzles. Students manipulate nanoparticles, adjust their properties, and immediately see the consequences. 
Gamification deepens engagement: Through these activities, students not only understand how nanomedicine transport works, but also reflect on its impact, limitations and future possibilities.

  • points and badges reward successfully completed missions.
  • Leaderboards encourage collaboration and friendly competition.
  • Missions unlock progressively more complex challenges, from treating one organ to delivering drugs to multiple systems.

Group tasks require students to work together to design nanoparticles for different diseases.