Maths in Industry Study Groups

An assortment of industrial problems encountered at Maths in Industry workshops

Industrial Mathematics Mathematical Modelling

Overview

Throughout my time as a researcher in mathematics I have attended a number of Maths in Industry Study groups, where I was able to work on a wide range of technical problems bought in by different industrial partners. These project typically only last a week, and their aim is to provide an oppurtunity for applied mathematicians to weigh in on these real-world problems.

Durham (UK) 2016

Understanding drivers of environmental chemical concentrationsSyngenta

The goal of this project was to understand why commercial modeling software predicts two seperate peaks in chemical concentration for a single application. We demonstrated that this was to be expected with seasonal rainfall and evaporation.

Study group report not yet available.

Bath (UK) 2017

Optimal design of inflatable hydroponic systemsPhytophonics

We investigated the mechanics of Phytophonics’s novel design for a hydroponic system, and subsequently optimized the design to support greater plant-mass.

Optimising the Design of Polythene Hydroponics Beds: A. Champneys, I. Hewitt, William T. Lee, A. Leida, M. Mcphail, E. Murphy, J. Ockendon, L. Parkin, L. Roberts.

Barreira (Portugal) 2017

Organisational strategies for reducing jams in marathonsLap2go

We constructed a model for runner density in marathons that accounts for: different release strategies, running abilities, and possible choke points in a course. We then used this model to optimize marathon starting strategy (for race coordinators) to minimize time lost.

Managing start waves for mass running events: A. Paula, S. Barbeiro, R. Barreira, L. Cavique, J. Correia, M. Cruz, R. Enguiça, N. Lopes, M. McPhail, J. Santos, P. Simões, F. Wechsung.

Dublin (Ireland) 2018

Liquid wicking in hierachical microstructuresAnalog Devices

We modelled the deposition and spread of a droplet over a microstructured surface. Our goal was to structure the surface for optimal spreading/wicking rate.

Liquid Wicking in Hierarchical Microstructures: L. Ò Nàraigh, C. Deverapu, J. Herterich, D. Flynn, M. McPhail, D. Lunz, J.Dewynne.

Cape Town (South Africa) 2019

Sustainability of fish populationsProf Phil Broadbridge

We used models for fish population—consisting of partial differential equations—and determined criteria for stable populations. We also determined how sensitive these criteria are to different habitat geometry and carrying capacity.

Study group report not yet available; although, some of the authors went onto publish subsequent work.

Fig.1 An image of the attendees of the Cape Town study group (2019)