Maths in Medicine: How to Survive a Science Fair
Philip Pearce, Tom Shearer

TL;DR
This paper presents three physical devices demonstrating biological phenomena, designed to engage secondary school students at science fairs by linking simple and advanced mathematical models to observable physical effects.
Contribution
It introduces innovative educational devices that illustrate complex physiological phenomena through accessible and challenging mathematical concepts for secondary students.
Findings
Devices effectively illustrate blood flow regulation and tissue elasticity.
Engages students with both simple and advanced mathematical ideas.
Enhances understanding of physiological processes through physical demonstrations.
Abstract
When talking to secondary school students, first impressions are crucial. Accidentally say something that sounds boring and you'll lose them in seconds. A physical demonstration can be an eye-catching way to begin an activity or spark off a conversation about mathematics. This is especially true in the context of an event like a science fair where there are hundreds of other exhibitors and stands, possibly involving loud music and/or dancing robots! In this article we describe three devices that were built to illustrate specific physical phenomena that occur in the human body. Each device corresponds to a simple mathematical model which contains both elements that are accessible to pupils in the early years of secondary education and more challenging mathematical concepts that might appeal to A-level students. Two of the devices relate to the Windkessel effect, a physical phenomenon…
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Taxonomy
TopicsMechanics and Biomechanics Studies · Sports Dynamics and Biomechanics
