**
Press (click for links)
**

**[28] Mitigation of arsenic mass poisoning**

**University of Oxford YouTube, July 2018.**

**[27] Gaining a mathematical edge in the Tour de France**

**Medium, July 2018.**

**[26] The Mathematics of Smoothies - the Dynamics of Particle Chopping in Blenders and Food Processors**

**Oxford Mathematics, July 2018.**

**[25] IIT Kharagpur and Oxford collaboration addressing global water challenge**

**India Today, 30 May 2018.**

**[24] IITKGP-Oxford collaboration addressing global water challenge**

**DevDiscourse, 30 May 2018.**

**[23] IITKGP-Oxford collaboration addressing global water challenge**

**Outlook India, 30 May 2018.**

**[22] IITKGP-Oxford collaboration addressing global water challenge**

**The Hindu BusinessLine, 30 May 2018.**

**[21] IITKGP-Oxford collaboration addressing global water challenge**

**Business Standard, 30 May 2018.**

**[20] IIT Kharagpur and Oxford develop technology for water treatment**

**Economic Times, 22 May 2018.**

**[19] Tricks of the Tour – optimizing the breakaway position in cycle races using mathematical modelling**

**Oxford Mathematics, May 2018.**

**[18] Tackling arsenic contamination in India through mathematical modelling and engineering**

**Oxford Water, April 2018.**

**[17] Mathematics for glass manufacture**

**Mathematics Today, June 2017.**

**[16] Unifying scientific disciplines to solve emerging membrane-filtration challenges**

**Oxford Water, 10 April 2017.**

**[15] Using mathematics to realise the potential of a novel soil-based filter**

**ECMI Node, 19 October 2016.**

**[14] Oxford mathematicians in Indian arsenic collaboration**

**Oxford Water, 1 August 2016.**

**[13] How mathematics can help to solve the current water crisis**

**ECMI Node, 26 October 2015.**

**[12] Mathematics in the glass industry**

**ECMI Node, 23 October 2015.**

**[11] Scientists make nanofibers with a hairbrush**

**Nanowerk, 23 September 2015.**

**[10] Touch and brush spinning of nanofibers**

**Materials Views, 23 September 2015.**

**[9] Brushing your way to nanofibres**

**Frogheart, 23 September 2015.**

**[8] A new way to manufacture nanofibers**

**Nanotechnology Now, 21 May 2015.**

**[7]**

**Innovations Report, 21 May 2015.**

**[6]**

**Eureka Alert, 20 May 2015.**

**[5]**

**Phys.org, 13 May 2015.**

**[4]**

**UGA Today, 12 May 2015.**

**[3] Magnetospinning with an inexpensive magnet**

**Frogheart, 11 May 2015.**

**[2] How to make nanofibers using a fridge magnet**

**Nanowerk, 11 May 2015.**

**[1] Surfactant patterns: L'étrange ballet des molécules dans l'eau**

**Le Monde, 14 July 2014.**

**
Publications (click for links)
**

**[62] Reproducing the pressure-time signature of membrane filtration: The interplay between fouling, caking, and elasticity**

J. Herterich, I.M. Griffiths & D. Vella

Under review (2018)

**[61] Mathematical Modelling of a Viscida Network**

C. Mavroyiakoumou, I.M. Griffiths & P.D. Howell

Under review (2018)

**[60] Curvature- and fluid-stress-driven tissue growth in a tissue-engineering scaffold pore**

P. Sanaei, L.J. Cummings S.L. Waters & I. M. Griffiths

Under review (2018)

**[59] Inferring filtration laws from the spreading speed of solutions of the porous medium equation**

A.U. Krupp, I.M. Griffiths & C.P. Please

Under review (2018)

**[58] The influence of porous media microstructure on filtration**

G. Printsypar, M. Bruna & I.M. Griffiths

Under review (2018)

**[57] Surface-tension- and injection-driven thin-film flow**

K.B. Kiradjiev, C.J.W. Breward & I.M. Griffiths

Under review (2018)

**[56] Modelling the transport and adsorption dynamics of arsenic in a soil bed filter**

R. Mondal, S. Mondal, K.V. Kurada, S. Bhattacharjee, S. Sengupta, M. Mondal, S. Karmakar, S. De & I.M. Griffiths

Under review (2018)

**[55] Particle Dynamics in Blenders and Food Processors**

C.M. Rooney, I.M. Griffiths, C. Brunner, J.Potter, M. Wood-Lee & C.P. Please

2018

J. Eng. Math (in press)

**[54] Flow and nematic director profiles in a microfluidic channel: the interplay of nematic material constants and backflow**

S. Mondal, I.M. Griffiths, F. Charlet & A. Majumdar

2018

MDPI Fluids (in press)

**[53] Nematohydrodynamics for Colloidal Self-Assembly and Transport Phenomena**

S. Mondal, A. Majumdar & I.M. Griffiths

2018

J. Coll. Interf. Sci. (in press)

**[52] Glass sheet redraw through a long heater zone**

D. O'Kiely, C.J.W. Breward, I.M. Griffiths, P.D. Howell & U. Lange

2018

IMA J. Appl. Math.

**[51] Optimizing the breakaway position in cycle races using mathematical modelling**

L.H. Gaul, S.J. Thomson & I.M. Griffiths

2018

Sports Engineering (in press)

**[50] Shrinking microbubbles with microfluidics: mathematical modelling to control microbubble sizes**

A. Salari, V. Gnyawali, I.M. Griffiths, R. Karshafian, M.C. Kolios, and S.S.H. Tsai

2017

Soft Matter, 13, 8796-8806.

**[49] Solution landscapes in nematic microfluidics**

M. Crespo, A. Majumdar, A. Manuel Ramos & I.M. Griffiths.

2017

Physica D, 351–352, 1–13.

**[48] Stochastic modelling of membrane filtration**

A.U. Krupp, I.M. Griffiths & C.P. Please.

2017

Proc. Roy. Soc. A 473: 20160948.

**[47] Scaling up of multi-capsule depth-filtration systems by modeling flow and pressure distribution**

A.U. Krupp, C.P. Please, A. Kumar & I.M. Griffiths.

2017

Advances in Engineering.

**[46] The role of fouling in optimizing direct-flow filtration module design**

M. Wang, S. Mondal & I.M. Griffiths.

2017

Chem. Eng. Sci., 163, 215–222.

**[45] Lubricated wrinkles: imposed constraints affect the dynamics of wrinkle coarsening**

O. Kodio, I.M. Griffiths & D. Vella.

2017

Phys. Rev. Fluids, 2, 014202.

**[44] Scaling-up of multi-capsule depth filtration systems by modeling flow and pressure distribution**

A.U. Krupp, A. Kumar, C.P. Please & I.M. Griffiths.

2017

Separation and Purification Technol., 170, 350.

**[43] Optimizing the operation of a direct-flow filtration device**

J.G. Herterich, Q. Xu, R.W. Field, D. Vella & I.M. Griffiths.

2016

J. Eng. Math, 104, 195–211.

**[42] A multiscale method to calculate filter blockage**

M.P. Dalwadi, M. Bruna, & I.M. Griffiths.

2016

J. Fluid Mech., 809, 264.

**[41] Mathematical and computational modeling of a ferrofluid deformable mirror for high-contrast imaging**

**(weblink) (pdf)**

A.J. Lemmer, I.M. Griffiths, T.D. Groff, A.W. Rousing & N.J.Kasdin.

2016

Proc. SPIE 9912, Advances in Optical and Mechanical Technologies for Telescopes and Instrumentation.

**[40] Designing asymmetric multilayered membrane filters with improved performance**

I.M. Griffiths, A. Kumar & P.S. Stewart.

2016

J. Membrane Sci., 511, 108.

**[39] Dissecting the self-assembly kinetics of multimeric pore-forming toxins**

A.A. Lee, M.J. Senior, M.I. Wallace, T.E. Woolley & I.M. Griffiths.

2016

J. Royal Society Interf., 13, 20150762.

**[38] Interfacial deformation and jetting of a magnetic fluid**

S. Afkhami, L.J. Cummings & I.M. Griffiths.

2016

Computers and Fluids, 124, 149.

**[37] Propagation of a viscous film over an elastic membrane**

Z. Zheng, I.M. Griffiths & H.A. Stone.

2015

J. Fluid Mech., 784, 443.

**[36] Edge behaviour in the glass sheet redraw process**

D. O'Kiely, C.J.W. Breward, I.M. Griffiths, U. Lange & P.D. Howell.

2015

J. Fluid Mech., 785, 248.

**[35] Straining flow of a weakly interacting polymer–surfactant solution**

**C.J.W. Breward, I.M. Griffiths, P.D. Howell & C.E. Morgan.**

2015

Eur. J. Appl. Math., 26, 743.

**[34] Reactive magnetospinning of nano and microfibers**

**A. Tokarev, O. Trotsenko, D. Asheghali, I.M. Griffiths, H.A. Stone & S. Minko.**

2015

Angewandte Chemie, 127, 13817.

**[33] Understanding how porosity gradients can make a better filter using homogenization theory**

**M.P. Dalwadi, I.M. Griffiths & M. Bruna.**

2015

Proc. Roy. Soc. A., 471, 20150464.

**[32] Touch- and brush-spinning of nanofibers**

**A. Tokarev, D. Asheghali, I.M. Griffiths, O. Trotsenko, A. Gruzd, X. Lin, H.A. Stone & S. Minko.**

2015

Advanced Materials, 27, 6526.

**[31] Stability of a bi-layer free film: simultaneous or individual rupture events?**

**P.S. Stewart, J. Feng, L.S. Kimpton, I.M. Griffiths & H.A. Stone.**

2015

J. Fluid Mech., 777, 27.

**[30] Mathematical modelling of multilayer surfactant self-assembly at interfaces**

**C.E. Morgan, C.J.W. Breward, I.M. Griffiths & P.D. Howell.**

2015

SIAM J. Appl. Math., 75, 836.

**[29] Magnetospinning of nano and microfibers**

**A. Tokarev, O. Trotsenko, I.M. Griffiths, H.A. Stone & S. Minko.**

2015

Advanced Materials, 27, 3560.

**[28] Tailoring wall permeabilities for enhanced filtration**

**J.G. Herterich, D. Vella, R.W. Field, N.P. Hankins & I.M. Griffiths.**

2015

Phys. Fluids, 27, 053102.

**[27] Particle capture efficiency in a multi-wire model for high gradient magnetic separation**

A. Eisenträger, D. Vella & I.M. Griffiths.

2014

Appl. Phys. Lett. 105, 033508.

**[26] A combined network model for membrane fouling**

I.M. Griffiths, A. Kumar & P.S. Stewart.

2014

J. Coll. Interf. Sci. 432, 10.

**[25] The Marangoni flow of soluble amphiphiles**

**M. Roché, Z. Li, I.M. Griffiths, S. Le Roux, I. Cantat, A. Saint-Jalmes & H.A. Stone.**

2014

Phys. Rev. Lett., 112, 208302.

**[24] The effect of a concentration-dependent viscosity on particle transport in a channel flow with porous walls**

J.G. Herterich, I.M. Griffiths, R.W. Field & D. Vella.

2014

AIChE J., 60, 1891.

**[23] The spreading of hydrosoluble surfactants on water**

M. Roché, Z. Li, I.M. Griffiths, A. Saint-Jalmes & H.A. Stone.

2013

Phys. Fluids, 25, 091108.

**[22] Interfacial deflection and jetting of a paramagnetic particle-laden fluid: theory and experiment**

S.S.H. Tsai & I.M. Griffiths (joint first authors), Z. Li, P. Kim & H.A. Stone.

2013

Soft Matter, 9, 8600.

**[21] An experimental and theoretical investigation of particle–wall impacts in a T-junction**

D. Vigolo & I.M. Griffiths (joint first authors), S. Radl & H.A. Stone.

2013

J. Fluid Mech., 727, 236.

**[20] Control and optimization of solute transport in a thin porous tube**

I.M. Griffiths, P.D. Howell & R.J. Shipley.

2013

Phys. Fluids, 25, 033101.

**[19] Asymptotic solutions of glass temperature profiles during steady optical fibre drawing**

M. Taroni, C.J.W. Breward, L.J. Cummings & I.M. Griffiths.

2013

J. Eng. Math., 80, 1.

**[18] A new pathway for the re-equilibration of a micellar surfactant solution**

I.M. Griffiths, C.J.W. Breward, D.M. Colegate, P.D Howell & C.D. Bain.

2013

Soft Matter, 9, 853.

**[17] Kinetics of surfactant desorption at the air–solution interface**

C.E. Morgan, C.J.W. Breward, I.M. Griffiths, P.D. Howell, J. Penfold, R.K. Thomas, I. Tucker, J.T. Petkov & J.R.P. Webster.

2012

Langmuir, 28, 17339.

**[16] Axial dispersion via shear-enhanced diffusion in colloidal suspensions**

I.M. Griffiths & H.A. Stone.

2012

Europhys. Lett., 97, 58005.

**[15] An asymptotic theory for the re-equilibration of a micellar surfactant solution**

I.M. Griffiths, C.D. Bain, C.J.W. Breward, S.J. Chapman, P.D. Howell & S.L. Waters.

2012

SIAM J. Appl. Math., 72, 201.

**[14] On the predictions and limitations of the Becker-Döring model for reaction kinetics in micellar surfactant solutions**

I.M. Griffiths, C.D. Bain, C.J.W. Breward, D.M. Colegate, P.D. Howell & S.L. Waters.

2011

J. Coll. Interf. Sci. 360, 662.

**[13] Microfluidic immunomagnetic multi-target sorting – A model for controlling deflection of paramagnetic beads**

S.S.H. Tsai, I.M. Griffiths & H.A. Stone.

2011

Lab on a Chip, 11, 2577.

**[12] Design of the ITER In-Vessel Coils**

**(weblink) (pdf)**

C. Neumeyer, I.M. Griffiths et al.

2011

Fusion Sci. and Technol, 60, 95.

**[11] Separation of magnetic beads in a microfluidic device – Modeling and experimentation**

S.S.H. Tsai, J.S. Wexler, I.M. Griffiths, & H.A. Stone.

2011

Proc. ASME Int. Mech. Eng. Cong. Exp., 6, 615.

**[10] The surface-tension-driven retraction of a viscida**

I.M. Griffiths & P.D. Howell.

2009

SIAM J. Appl. Math. 70, 1453-1487.

**[9] Mathematical modelling of non-axisymmetric capillary tube drawing**

I.M. Griffiths & P.D. Howell.

2008

J.Fluid Mech. 605, 181-206.

**[8] The surface-tension-driven evolution of a two dimensional annular viscous tube**

I.M. Griffiths & P.D. Howell.

2007

J.Fluid Mech. 593, 181-208.

**
Proceedings and Reports
**

**[7] Mathematical modelling in the glass industry.**

I.M. Griffiths.

2012

Springer ECMI Book Series on Mathematics in Industry.

**[6] Matched asymptotic expansions of glass temperature profiles during optical fibre drawing.**

C.J.W. Breward, I.M. Griffiths, H. Potter & M. Taroni.

2012

Center for Applied Mathematics and Statistics (CAMS) Research Report Series

& Proc. 27th Mathematical Problems in Industry

**[5] Filtercake forming mechanisms at fracture and cavity openings**

I.M. Griffiths & L.S. Gallimore.

2011

Proc. 1st KAUST Study Group in Industry.

**[4] ITER In-Vessel Coil Design and R&D**

M. Kalish, I.M. Griffiths et al.

2011

Proc. 2011 Proc. Symp Fusion Engineering.

**[3] Surfactant-assisted spreading of an oil-in-water emulsion on the surface of a liquid bath**

M. Roché, Z. Li, I.M. Griffiths, A. Saint-Jalmes, H.A. Stone

2010

**[2] Stability of Fiber Pulling**

J.S. Abbott, R.J. Braun, K. Bhalerao, I.M. Griffiths, M. Gratton, B. Smith, C.P. Please, C.J.W. Breward & D. Boy.

2008

Proc. Mathematical Problems in Industry 2007.

**[1]**

*In vivo*delivery of drug therapy to tumoursL.R. Band, R.J.S. Booth, L.J. Cummings, R.J. Dyson, K.D. Fisher, I.M. Griffiths, J.P. Moles & S.L. Waters.

2006

Proc. 5th Medical Study Group.