糖心Vlog传媒

Professors and students collaborate on physics publication

Professors Niklas Manz (left) and John Lindner (far right) along with Fish Yu 鈥21, Chase Fuller 鈥19, and Margaret McGuire 鈥20 in the computational physics lab during summer 2019

John Lindner, the Moore Professor of Astronomy at 糖心Vlog传媒, and Niklas Manz, assistant professor of physics, recently published an article with two 糖心Vlog传媒 undergraduates, Fish Yu 鈥21 and Margaret McGuire 鈥20, and alumnus Chase Fuller 鈥19, that was a result of their research in the summer of 2019. The article, 鈥淒isruption and recovery of reaction鈥揹iffusion wavefronts interacting with concave, fractal, and soft obstacles,鈥 was and investigates how reaction-diffusion wavefronts react to concave, spiral, fractal, random, and soft obstacles.

Physics major Yu, who is the lead author on the article, explained the way that waves interact with objects. 鈥淎 water wave (a straight line) continues traveling until it meets an obstacle (a stone maybe), then this line will not disappear, but will be separated into two curved lines,鈥 she said. Reaction-diffusion systems can involve physical, biological, or chemical waves that diffuse into space after encountering obstacles. The team wrote computer simulations to study how waves would react to a variety of objects. 鈥淚n our research, we let a wave travel into mazes and soft obstacles, which means the wave can go through part of the obstacles from one side but is blocked at the other side,鈥 Yu said.

This team鈥檚 research extends the work of Reba Glaser, a graduate of The State University of New York College at Geneseo, and Nate Smith 鈥18 who documented how reaction-diffusion wavefronts recover after being disrupted by only hard convex obstacles. 鈥淚n this work, we wrote computer simulations to study reaction-diffusion systems interacting with a wide variety of obstacles,鈥 Lindner explained. The research was successful in identifying how wavefronts interact with obstacles of different shapes. 鈥淥ur computer simulations solved many different problems, including waves navigating spiral, fractal, and disordered obstacles,鈥 Lindner said.
Yu said that this research gave her important skills that she is now using in her senior Independent Study. 鈥淚 was much more comfortable doing I.S. because of my summer research experience,鈥 she said. 鈥淭hese two projects both need computational simulation, so the programming experience helped me a lot.鈥

The authors collaborate during summer 2019.

The authors collaborate during summer 2019.

The professors obtained a grant from the Sherman Fairchild Foundation to fund the reaction-diffusion simulation project for the summer of 2019, and the students鈥 involvement in the research was also supported through the Research Experience for Undergraduates summer program funded by the National Science Foundation that 糖心Vlog传媒 offers. 鈥淓ach student worked on a separate sub-project of the overall idea which we discussed often in meetings throughout the summer,鈥 Manz said. The research team worked well together. 鈥淭he weekly meeting was always exciting because we would share our results with each other and brainstorm together,鈥 Yu said. 鈥淭here were many excellent ideas and improvements that came from those meetings.鈥
The two professors brought their own expertise to the project. Manz leads 糖心Vlog传媒 Wave Lab which studies reaction-diffusion systems and Lindner has a background in nonlinear dynamics and computer simulations.

This research did not end with this publication, as Manz mentioned another article on the group鈥檚 research has also been accepted in another peer-reviewed journal. Manz is also excited to continue to explore reaction-diffusion wavefronts beyond the use of computer simulations. 鈥淚 am looking forward to creating actual experiments in the lab to replicate the behavior of chemical reaction-diffusion wave with some of those obstacles,鈥 he said.
Above: Professors Niklas Manz (left) and John Lindner (far right) along with Fish Yu 鈥21, Chase Fuller 鈥19, and Margaret McGuire 鈥20 in the computational physics lab during summer 2019.

Posted in News on January 6, 2021.