What is it about?
Pharmacophores are the part of a drug molecule that actually matters: the small set of features, in the right 3D arrangement, that lets it lock onto its biological target. The idea is central to pharmacy, and it is hard to learn, because students have to picture flat chemical formulas as three-dimensional shapes in their heads. We built a serious game, Escape from PharmaZ, to help. It pairs a collaborative board game with a phone app called Nanoscope that uses Augmented Reality, so when a player scans a game tile, a 3D pharmacophore model appears on the table and can be turned and inspected from every angle. The story is a sci-fi escape: astronauts crashed on planet PharmaZ have to find alien molecules that match the drugs their injured crew needs, before the sun storms arrive.
Featured Image
Photo by Christopher Paul High on Unsplash
Why is it important?
Mastering pharmacophores is essential for designing new drugs, but it is one of the concepts students struggle with most, mainly because the 3D and combinatorial nature is so hard to picture from textbook diagrams. We tested the game with 24 volunteers and every one of them improved their score on pharmacophore questions afterward. The most telling result: before playing, novices in chemistry scored well below experts, but after playing the gap closed and the two groups could no longer be told apart. A short, collaborative session brought beginners up to the level of specialists on exactly the features the game trains.
Perspectives
As authors, we were struck by how much the talking did the work. Because the radio is "broken" in the story, teams can only compare notes when their astronauts meet at the crashed ship, so players are constantly naming features out loud and arguing about whether an alien molecule matches their target. That verbal exchange, more than any single mechanic, seems to be where the learning happens. The AR view clearly helped players grasp that one feature can be a whole group of atoms, though it did less for understanding how a molecule changes shape as it moves. This was a small first test with volunteers, so the next step is a proper classroom study with real undergraduates.
Dr Marc Baaden
CNRS
Read the Original
This page is a summary of: Escape from PharmaZ: A Game to Boost Pharmacophore Learning Through Immersive Augmented Reality, December 2024, Springer Science + Business Media,
DOI: 10.1007/978-3-031-78269-5_30.
You can read the full text:
Resources
UnityMol (the molecular visualization engine behind Nanoscope)
UnityMol renders the 3D molecules and pharmacophore models that the Nanoscope AR app displays in the game.
ANR project PIRATE (ANR-21-CE45-0014)
The funded research project (PIRATE, ANR-21-CE45-0014) that supported this work, named in the paper acknowledgements.
Labex DYNAMO (11-LABX-0011)
The DYNAMO laboratory of excellence (11-LABX-0011), which supported this work.
Ten simple rules to create a serious game (Baaden et al., PLoS Comput Biol 2018)
A related publication by some of the same authors, giving the design principles behind serious games like Escape from PharmaZ.
Contributors
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