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Mathematics for the modern economy

28 June 2017 09:30 - 20:00

Watch the presentations

Industrial mathematics is of significant importance to the UK economy, cutting across many high-value industry sectors, including engineering, finance, defence, life sciences and even sports and entertainment.

To maintain their position and economic benefit, such industries must strive to be advanced, inventive and creative. The same argument also applies to more conventional sectors, such as agriculture, utilities and manufacturing. In all cases, there is a clear need for problems to be defined in a sensible mathematical way and solved to yield the best economic and social outcomes using appropriate, often innovative, mathematical techniques.  

Industrial mathematics is currently responding to the uncertain data-rich world which industry now confronts. It is doing this by developing and applying tools that can take account of the uncertainty that can arise in many different situations and can lead to many statistical patterns.  All the while, industry-driven problem-solving is expanding remorselessly, leading to ever increasing challenges for the whole mathematics community.

Attending this event

This conference will bridge the gap between the UK’s expertise in industrial mathematics and those who apply it, whether in industry, government or other academic disciplines. It is aimed at mathematicians, scientists, engineers and professionals working in industry, academia or government. The conference concludes with an exhibition and drinks reception sponsored by The Smith Institute for Industrial Mathematics and System Engineering.

Smith institute for industrial mathematics and system engineering

For more information, please contact the Industry Team.

Organisers

  • Professor John Ockendon FRS, Emeritus Fellow of St Catherine's College, University of Oxford

    John Ockendon is a leading applied mathematician who has been one of the pioneers in developing interaction between industry and university departments of mathematics. He has been behind such work in Oxford for over thirty years, and served as Research Director of the Oxford Centre for Industrial and Applied Mathematics. He has not only inspired the work of others, but also contributed personally and significantly to such diverse areas as locomotive traction, solidification, purification, injection moulding, glass fibre manufacture, dislocation theory and gravimetry. Free boundary problems have been a particular interest, and he has been central in the European Science Foundation’s work in this area.

  • Professor I. David Abrahams, Director of the Isaac Newton Institute, University of Cambridge

    David Abrahams is an applied mathematician specialising in the modelling, analysis and application of waves found in a wide range of application areas in physics and engineering. He is concerned with phenomenological questions as well as developing the underpinning mathematical analysis for the subject, and his research has broad application. He has recently become Professor of Applied Mathematics at Cambridge University, having completed his term (2016-2021) as NM Rothschild & Sons Professor of Mathematical Sciences and Director of the Isaac Newton Institute for the Mathematical Sciences (INI), Cambridge. David is a keen proponent for knowledge exchange in the mathematical sciences and recently directed the Newton Gateway to Mathematics, which facilitates this endeavour. 

    David holds Visiting Researcher/Honorary Professorship positions at Manchester, Edinburgh and Aberystwyth Universities, which allow him to interact with staff members there and maintain a broader perspective on research and community activity. He plays an active role within the international mathematics community, having served on over thirty national and international working parties, panels and committees over the last decade. In particular, He was President of the Institute of Mathematics and its Application in 2008-2009, Deputy Chair for sub-panel B10 (Mathematics) in the 2014 REF, and Chair of EPSRC’s Mathematical Sciences Strategic Advisory Team (2014-15). David is also spearheading the creation of a Connected Centres Network to promote and facilitate knowledge exchange activities across all mathematical sciences departments around the United Kingdom.  

    Over his career, David has made contributions to many fields, including acoustics, aeroacoustics, water waves, optics, elasticity, non-destructive evaluation and seismology. He maintains long-standing and close working links with a number industrial partners (e.g. in recent years Dyson, AWE and DSTL), As Royal Society Industry Fellow he will spend 50% of his time working with Thales UK on noise-reducing coatings for underwater vehicles and other projects.

  • Professor Alan Champneys, Professor of Applied Non-linear Mathematics, University of Bristol

    Alan Champneys is Professor of Applied Nonlinear Mathematics at the University of Bristol. He joined the Department of Engineering Mathematics there in 1993 following a DPhil at Oxford and a postdoc at Bath. He also holds an honorary degree from the Budapest University of Technology and Economics. He is known for his work in applied dynamical systems and application to engineering, society and bio-medicine. Current research interests include the dynamics of friction, valve-piping systems, human structure interaction, spatially localised patterns in cell biology and ecology, biosensor modelling, human structure interaction, supply chain modelling and analytics of routinely collected healthcare data.

  • Dr Robert Leese, Chief Technology Officer, The Smith Institute

    Dr Robert Leese was appointed Chief Technology Officer for the Smith Institute in May 2017. Robert was previously Director and then Chief Executive of the Smith Institute since 1999, where he was responsible for leading the Institute’s growth and development. Over his period in this position the Institute established itself as one of the leading independent companies enabling business and government to accelerate growth and increase performance through harnessing the use of mathematical thinking. In recent years, Robert has led the Smith Institute's work in system design and assurance for high-value spectrum auctions around the world, including most recently in Canada and the United States. The Institute has more than a decade of experience in this area, dating back to the pioneering deployment of combinatorial auction designs by Ofcom in the UK. Prior to that, Robert worked closely with the Radiocommunications Agency in promoting the use of graph theory to address problems in radio channel assignment, and has published some of the most heavily cited papers in the field. He has an MMath from Cambridge, a PhD in Mathematical Physics from Durham and was a Research Fellow for 3 years at St John's College, Cambridge. Robert has been a Fellow at St Catherine's College, Oxford since 1993, where he maintains an active role in teaching and is a member of the Governing Body. From 2000 to 2014, Robert was Director of the UK's Faraday Partnership and then Knowledge Transfer Network for Industrial Mathematics. He is a Fellow of the Institute of Mathematics and its Applications and a peer reviewer for the Engineering and Physical Sciences Research Council.

  • Dr Geoffrey Evatt, Senior Lecturer in Applied Mathematics, The University of Manchester

    Geoff is an applied mathematician at the University of Manchester, where he specialises in mathematically modelling glaciers and ice sheets so as to understand the causes of their behaviour. He also plays an active role in the transfer of knowledge between industry an academia, where he is the School's Director of External Affairs. In so doing, Geoff has a broad view of how academia and industry can interconnect. Geoff undertook his undergraduate and doctoral degrees at the University of Oxford.

  • Dr Ruth Voisey, Research Project Manager, Dyson

    Ruth Voisey is a Research Project Manager at Dyson, overseeing all research projects in the field of aeroacoustics, thermodynamics, fluid treatment and lighting. At Dyson, Ruth promotes the application of mathematical modelling to resolve a range of complex engineering scenarios, specialising herself in acoustic silencing. Ruth is active in external research programmes at Dyson including the co-supervision of mathematics PhD and Masters students, as well as sitting on the oversight board for the EPSRC Centre for Doctoral Training in Metamaterials at the University of Exeter. She received her PhD in applied mathematics from the University of Manchester in 2014 where she worked with Professor David Abrahams and Professor William Parnell on the multiple scattering of waves by quasiperiodic structures.

Schedule

Chair

Professor John Ockendon FRS, Emeritus Fellow of St Catherine's College, University of Oxford

09:30 - 09:35 Welcome remarks

Professor Alexander Halliday FRS, Vice President (Physical Secretary), the Royal Society

09:35 - 10:15 Network modelling, social applications and consumers

Many problems in industry - and in the social, natural, information and medical sciences - involve discrete data and benefit from approaches from subjects such as network science, information theory, optimization, probability, and statistics. Because the study of networks is concerned explicitly with connectivity between different entities, it has become very prominent in industrial settings, and this importance has been accentuated further amidst the modern data deluge. In this talk, Mason Porter will discuss the role of network analysis in industrial and applied mathematics focusing on a physical-applied-mathematics approach to the study of networks.  He will give some examples of network science in industry including his collaboration with dunnhumby, a customer data science company.  Chris Brooks from dunnhumby will also give a short description of applied mathematics and network science at dunnhumby, and how academic partnerships are an important part of keeping dunnhumby’s research at the cutting edge.

Professor Mason Porter, UCLA

Chris Brooks, Head of Science, dunnhumby

10:15 - 10:50 Industry-driven mathematical problem-solving in Korea

While the mathematical culture in Korea heavily leans towards pure side, new initiatives jointly launched by the math community and the government is rapidly introducing industrial mathematics for addressing problems arising in industry. This talk aims to introduce the initiatives and outline several prominent industrial problems that were successfully solved during the process.

Professor Hyungju Park, President, National Institute for Mathematical Sciences, Korea

11:20 - 12:00 Mathematics delivering the advantage: from manufacturing to finance

Dr Vicki Saward:

Much has been written about the benefits that mathematics can bring to the UK economy and the manufacturing sector in particular, but less on the value of mathematicians and a mathematical training. This talk considers the value of mathematicians to the UK’s industrial base and the importance to the UK economy of encouraging young people in the UK to choose to study mathematics at school as a gateway to a wide range of careers. The points are illustrated using examples from the author’s 20 years’ experience in the security and intelligence and manufacturing sectors.

Dr Helen Haworth:

The global financial crises of the last ten years have resulted in widespread focus on the global financial markets and their relationship with the global economic outlook. In turn, many financial market participants have received considerable scrutiny, with a particular focus on the role that quantitative models may have played in adding to market volatility. 

This talk will look at the evolving role of mathematics in the financial industry against this backdrop. We discuss some of the quantitative approaches used by different types of financial market participants, illustrating both the positive and negative influence mathematics can have via a number of case studies. In doing so, we further draw out the similarities and differences with the application of mathematics in manufacturing. 

Dr Helen Haworth

Dr Vicki Saward

Chair

Dr Robert Leese, Chief Technology Officer, The Smith Institute

High Performance Computing for Nuclear Security Applications

Mathematics has always been at the heart of scientific endeavour but the arrival of the computation era has radically changed the application of mathematics to modern problems. This talk will discuss the advent and development of high performance computing for simulation, and the consequent ability to make empirical methods, which remain essential, more targeted and cost effective. Future changes in computer architectures will provide new opportunities but also challenges to effective exploitation of the potential of the hardware. Reference and examples will be drawn from the nuclear security enterprise.

Andrew Randewich

Professor Andrew Randewich, AWE plc, UK

Dr Mark Taylor, Global Strategy & Research Director, Dyson

Mathematics for the Modern Pharmaceutical Industry

Mathematics underpins all research, development and manufacturing in the modern pharmaceutical industry. The volume and complexity of the data generated within R&D is increasing and we need to get smarter at analysing these data sets in order to decrease attrition and develop more innovative medicines.

The range of mathematical techniques being used routinely by the industry is also on the rise. Traditional statistical techniques are still used in both pre-clinical and clinical studies but they are now being supplemented by sophisticated techniques such as topological data analysis (TDA).

For example, TDA has been used to identify gene signatures that are associated with improved survival outcomes in patients with breast cancer. Similarly, algorithms have been developed to differentiate healthy and diseased tissue, a task previously assigned to a highly trained histologist. This talk will cite several examples where mathematics is used to advance the discovery and development of new medicines.

Dr Malcolm Skingle CBE, GSK

Mayesta Ewer, Head of Analytics, NATS

14:00 - 14:35 The use of modelling in golf

At its core, like many other sports, golf is a game of integers. The minimisation of the strokes played is generally what determines the winner, whether each of these are associated with the shortest of putts or the longest of drives. Understanding the mechanics of golf necessitates the development of models and this is coupled more often than not to the use of statistics. In essence the individual aspects of the sport can be modelled adequately via fairly simplistic models, but the presence of a human at one end of the kinetic chain has a significant impact on the variability of the entire process.

In this presentation we will review the way that mathematics has been used to develop the understanding of the physical processes involved in the sport, including the Rules. We will also discuss some of the challenges going forward.

Dr Steve Otto, Director – Equipment Standards, The R&A

14:35 - 15:10 Mathematics making a difference

Professor Mark Girolami, Imperial College

15:10 - 15:50 Innovative industrial maths in large companies and in Europe

Dr Poul Hjorth:

A brief review of how Industrial Mathematics, inspired by the Oxford Study Group activity, organised itself in Europe, gave rise to the European Consortium For Mathematics in Industry (ECMI), the series of European Study Groups with Industry (ESGI), and to new modes of productive contacts between industry and applied mathematicians in academia.

Dr Chris Farmer:

A mathematical model can be analysed to construct policies for action that are close to optimal for the model. If the model is accurate, such policies will be close to optimal when implemented in the real world. The different aspects of an ideal workflow are reviewed: modelling, forecasting, evaluating forecasts, data assimilation, and constructing control policies for decision-making. The example of the oil industry is used to motivate the discussion, and other examples, such as weather forecasting and precision agriculture, are used to argue that the same mathematical ideas apply in different contexts.

Dr Poul Hjorth, Associate Professor of Applied Mathematics, Technical University of Denmark

Dr Chris Farmer, Research Fellow, Oxford Centre for Industrial and Applied Mathematics

16:20 - 17:00 Computing reality in entertainment and product design

Received wisdom puts the “mean-time to commercial impact” of mathematical insight on the order of decades.  Today, engineering and financial services companies, amongst others, exploit mathematics on timescales measured in years or months.  With the new “computing continuum” - architectures that scale smoothly from highly parallel micro-computing (many-core) to massively parallel macro-computing (many-machine or cloud) - the prospect of solving higher order differential equations in milliseconds, reduces the mean-time to commercial impact of mathematics to real time; taking the people and tools that modify and solve such equations to the heart of everyday design processes.  We illustrate these developments with examples from the entertainment and consumer product industries, show the type of innovations in data structures and architecture required to support such high-performance equation solving, and point to a future in which the continuous real-time solution of families of differential equation sits at the heart of every successful business enterprise.  Needless to say, in such a world mathematical mastery, not just literacy, becomes the key to commercial success.

Dr Lincoln Wallen, CEO, DWA NOVA LLC

Chair

Professor Julian Hunt FRS, University College London

17:00 - 18:00 Panelists (confirmed)

Dr Marianna Braza, Institut de Mécanique des Fluides de Toulouse

Dr Ruth McKernan CBE FMedSci, Chief Executive, Innovate UK

Professor Philip Bond FREng

18:00 - 20:00 Exhibition

The drinks reception will include an exhibition featuring important representatives from the mathematical community, on hand to answer questions in a relaxed and informal setting and provide literature for delegates to take away. 

The exhibition and drinks reception is sponsored by The Smith Institute for Industrial Mathematics and System Engineering. The Smith Institute specialises in solving complex problems for businesses and governments by applying mathematical thinking and techniques. We build trusted relationships with our clients, offering expert insight to support informed decision-making and reduce risk.