Healthcare engineer Becky Shipley presented research at The Royal Institution in London regarding the mathematical modeling of jellyfish movement [1].
This connection between marine biology and human anatomy matters because it demonstrates how simplified biological models can uncover fundamental mechanical principles. By identifying shared patterns across different species, researchers can develop new ways to understand and treat human cardiovascular conditions.
Shipley said that the way jellyfish move through water creates specific vortex patterns [1]. These vortices are not unique to jellyfish; similar fluid dynamics occur within the human heart [1]. The research focuses on the physics of how these animals propel themselves and the resulting flow of liquid around their bodies.
Shipley said that using mathematical models allows scientists to strip away biological complexity to see the core physics at play [1]. This approach helps bridge the gap between disparate fields of study, linking the movement of a simple invertebrate to the complex beating of a human heart.
Shipley said that these simple models can lead to life-changing insights in medicine [1]. By studying the vortex patterns in jellyfish, engineers can better simulate the blood flow and pressure changes that occur during a heartbeat. This suggests that the laws of physics governing fluid movement are universal across diverse biological systems.
The presentation at The Royal Institution highlights the utility of interdisciplinary research [1]. It shows that observing nature's efficiency in the ocean can provide a blueprint for improving healthcare engineering and cardiac diagnostics.
“jellyfish movement creates vortex patterns similar to those in the human heart”
This research underscores the importance of biomimicry in medical engineering. By identifying that the human heart shares fluid-dynamic properties with jellyfish, scientists can apply existing marine biological data to refine cardiovascular models, potentially leading to more accurate simulations of blood flow and heart failure.
