The University of Sheffield
Department of Mechanical Engineering

Dr Zeike Taylor

Dr Zeike Taylor

Lecturer

Department of Mechanical Engineering
Sir Frederick Mappin Building
Mappin Street
Sheffield
S1 3JD
UK

Telephone: +44 (0) 114 222 7719
Fax: +44 (0) 114 222 7890

Email: z.a.taylor@sheffield.ac.uk 


Profile

Dr Zeike Taylor graduated in Mechanical Engineering from the University of Western Australia in 2002 and obtained his PhD in Biomechanical Engineering from the same institution in 2006. His thesis research concerned development of image-based microstructural constitutive models of articular cartilage. He has held postdoctoral fellowships at the CSIRO in Australia (2006), University College London (2007-2009) and the University of Queensland (2009-2011), and was appointed as an honorary lecturer at UCL in 2009. He joined the Department of Mechanical Engineering at the University of Sheffield as a lecturer in 2011.

Dr Taylor’s major research theme is computational biomechanics for medicine, in particular with application to problems in medical image computing and surgical simulation. His work therefore stands at the interface between biomechanical modelling and medical imaging: development of modelling technologies that can aid tasks such as image registration and image-based surgical guidance, on the one hand, and methods of extracting patient-specific data from images to personalize models on the other.

Particular areas of development include:

Journal articles

Conferences

  • Mertzanidou T, Hipwell JH, Han L, Taylor ZA, Huisman HJ, Bick U, Karssemeijer N & Hawkes DJ (2012) Intensity-Based MRI to X-ray Mammography Registration with an Integrated Fast Biomechanical Transformation.. Digital Mammography / IWDM, 7361, 48-55.
  • Fazlollahi A, Dowson N, Meriaudeau F, Rose SE, Fay M, Thomas P, Taylor ZA, Gal Y, Coulthard A, Winter C, MacFarlane D, Salvado O, Crozier S & Bourgeat P (2011) Automatic Brain Tumour Segmentation in 18F-FDOPA PET Using PET/MRI Fusion.. DICTA, 325-329.
  • Taylor ZA, Cheng M & Ourselin S (2007) Real-Time Nonlinear Finite Element Analysis for Surgical Simulation Using Graphics Processing Units.. MICCAI (1), 4791, 701-708.
  • Modat M, Ridgeway GR, Taylor ZA, Hawkes DJ, Fox NC & Ourselin S () A parallel-friendly normalised mutual information gradient for registration: comparison with the analytic gradient
  • Taylor ZA, Ourselin S & Crozier S () A reduced order finite element algorithm for surgical simulation
  • Atkinson D, Hansen MS, Modat M, Ourselin S, Sorensen TS & Taylor ZA () Commodity graphics cards for image registration, biomechanical modelling and cardiac imaging
  • Taylor ZA, Kirk TB & Miller K () Development of confocal image-based patient-specific models of cartilaginous tissues, 846-851.
  • Comas O, Taylor ZA, Allard J, Ourselin S, Salvado O, Cotin S & Passenger J () Efficient nonlinear FEM for soft tissue modelling and its GPU implementation within the open source framework SOFA, 28-39.
  • Han L, Hipwell J, Taylor ZA, Tanner C, Ourselin S & Hawkes D () Fast deformation simulation of the breast using GPU-based dynamic explicit finite element method, 728-735.
  • Modat M, Taylor ZA, Barnes J, Hawkes DJ, Fox NC & Ourselin S () Fast Free-Form Deformation using the Normalised Mutual Information gradient and Graphics Processing Units
  • Taylor ZA, Kirk TB & Miller K () Microstructural modelling of articular cartilage using 3D confocal endoscopy, 386-386.
  • Taylor ZA, Comas O, Cheng M, Passenger J, Hawkes DJ, Atkinson D & Ourselin S () Modelling anisotropic viscoelasticity for real-time soft tissue simulation, 703-710.
  • Modat M, Taylor ZA, Ridgeway GR, Barnes J, Wilde EJ, Hawkes DJ, Fox NC & Ourselin S () Nonlinear elastic spline registration: Evaluation with longitudinal Huntington’s Disease dat, 128-139.
  • Taylor ZA, Cheng M & Ourselin S () Real-time nonlinear FEA for surgical simulation using graphics processing units, 701-708.
  • Taylor ZA, Crozier S & Ourselin S () Real-time surgical simulation using reduced order finite element analysis, 388-395.
  • Taylor ZA & Miller K () Significance of strain rate-dependence in modelling of organic materials, 408-412.
  • Cheng M, Taylor ZA & Ourselin S () Towards anatomical modelling of multiple organs interaction using real time GPU based nonlinear elasticity, 77-82.
  • Dutta-Roy T, Wittek A, Taylor ZA, Chinzei K, Washio T & Miller K () Towards realistic surgical simulation: biomechanics of needle insertion into brain, 297-304.

Reports

  • Miller K, Taylor ZA & Wittek A () Mathematical models of brain deformation behaviour for computer-integrated neurosurgery