2. Execute - Modelling and Analysing the Impact of GMOs Through Bio-Inspired Design
| Site: | Bios4You |
| Course: | (7) Modelling the impact of GMOs |
| Book: | 2. Execute - Modelling and Analysing the Impact of GMOs Through Bio-Inspired Design |
| Printed by: | Guest user |
| Date: | Tuesday, 25 August 2026, 5:55 AM |
Description
In the Execute phase, students apply their understanding of genetically modified organisms by exploring how natural biological processes inspire practical solutions for real-world challenges. Genetic modification itself is based on observing and using mechanisms that already exist in nature, such as gene expression, adaptation, and inheritance. In this phase, learners examine how these natural abilities are used in biotechnology to design organisms with specific traits and how such designs may influence ecosystems and human environments.
2.1 Bio-Inspiration: Learning from Natural Genetic Processes
Nature continuously adapts through genetic variation and selection. Genetic engineering builds on these natural principles by introducing targeted changes to an organism’s genome. Students analyse how modifying a single gene can result in visible traits, such as pest resistance or improved tolerance to environmental stress.
This bio-inspired approach helps learners understand that GMOs are not created randomly, but are designed based on biological knowledge. Students focus on the relationship between genetic change → organism trait → environmental impact, which is essential for evaluating both benefits and risks of biotechnology.
2.2 Using AR to Achieve the Learning Objectives
Augmented Reality (AR) plays a key role in supporting the main objective of this learning unit: understanding the impact of GMOs through modelling and analysis rather than memorisation. AR applications allow students to visualise genetic modification processes and their consequences in a clear and interactive way.
In this unit, AR supports learning by enabling students to:
- explore cause–effect relationships between genetic changes and organism traits,
- visualise invisible processes, such as gene insertion and expression,
- interact with scenario-based environments showing potential impacts on agriculture and ecosystems.
Useful AR features for this phase include:
- interactive AR scenarios with embedded questions,
- visual layers that show changes before and after genetic modification,
- immediate feedback and scoring in AR-based tests,
- simple AR creation tools (e.g. Delightex) for student-designed scenarios.
These features transform AR into a thinking and modelling tool rather than a passive visual aid.
2.3 Practical Exercises and Global Learning Examples
In this phase, students engage in practical, hands-on activities inspired by bio-inspired learning approaches used worldwide in STEM and biotechnology education. Similar AR-based modelling activities are commonly applied to help learners understand complex systems and evaluate technological impacts.
Examples of practical activities include:
- analysing an AR-based test that models GMO scenarios and their outcomes,
- comparing different genetic modification strategies and their potential effects,
- creating simple AR scenes that represent GMO-related situations,
designing and testing questions that assess understanding of environmental and societal impact.
Such activities reflect real scientific and educational practices, where modelling, simulation, and digital visualisation are used to explore complex biological systems. By actively engaging with AR scenarios and creating their own content, students move from understanding concepts to applying and evaluating them in meaningful contexts.