Real-Time Prediction of Brain Shift Using Nonlinear Finite Element Algorithms. - Grand Roman Joldes; Adam Wittek; Mathieu Couton; Simon K. Warfield; Karol Miller (MICCAI (1), 2009)

Suite of finite element algorithms for accurate computation of soft tissue deformation for surgical simulation. - Grand Roman Joldes; Adam Wittek; Karol Miller (Medical Image Anal., 2009)

Neurosurgery simulation using non-linear finite element modeling and haptic interaction. - Huai-Ping Lee; Michel A. Audette; Grand Roman Joldes; Andinet Enquobahrie (Image-Guided Procedures, 2012)

Patient-Specific Meshless Model for Whole-Body Image Registration. - Mao Li; Karol Miller; Grand Roman Joldes; Ron Kikinis; Adam Wittek (ISBMS, 2014)

Modified moving least squares with polynomial bases for scattered data approximation. - Grand Roman Joldes; Habibullah Amin Chowdhury; Adam Wittek; Barry J. Doyle; Karol Miller (Appl. Math. Comput., 2015)

Towards measuring neuroimage misalignment. - Revanth Reddy Garlapati; Ahmed Mostayed; Grand Roman Joldes; Adam Wittek; Barry J. Doyle; Karol Miller (Comput. Biol. Medicine, 2015)

Patient-specific biomechanical model as whole-body CT image registration tool. - Mao Li; Karol Miller; Grand Roman Joldes; Barry J. Doyle; Revanth Reddy Garlapati; Ron Kikinis; Adam Wittek (Medical Image Anal., 2015)

Discrete Element Framework for Modelling Extracellular Matrix, Deformable Cells and Subcellular Components. - Bruce S. Gardiner; Kelvin Kian Loong Wong; Grand R. Joldes; Addison J. Rich; Chin Wee Tan; Antony W. Burgess; David W. Smith (PLoS Comput. Biol., 2015)

An Element Free Galerkin Method Based on the Modified Moving Least Squares Approximation. - Habibullah Amin Chowdhury; Adam Wittek; Karol Miller; Grand Roman Joldes (J. Sci. Comput., 2017)

An explicit meshless point collocation method for electrically driven magnetohydrodynamics (MHD) flow. - George C. Bourantas; Vassilios C. Loukopoulos; Grand Roman Joldes; Adam Wittek; Karol Miller (Appl. Math. Comput., 2019)

Biomechanical modeling and computer simulation of the brain during neurosurgery. - Karol Miller; Grand Roman Joldes; George C. Bourantas; Simon K. Warfield; Damon E. Hyde; Ron Kikinis; Adam Wittek (CoRR, 2019)

Cell-based Maximum Entropy Approximants for Three Dimensional Domains: Application in Large Strain Elastodynamics using the Meshless Total Lagrangian Explicit Dynamics Method. - Konstantinos A. Mountris; George C. Bourantas; Daniel Millan; Grand R. Joldes; Karol Miller; Esther Pueyo; Adam Wittek (CoRR, 2019)

Suite of meshless algorithms for accurate computation of soft tissue deformation for surgical simulation. - Grand Roman Joldes; George C. Bourantas; Benjamin Zwick; Habibullah Amin Chowdhury; Adam Wittek; Sudip Agrawal; Konstantinos A. Mountris; Damon Hyde; Simon K. Warfield; Karol Miller (Medical Image Anal., 2019)

Simple and robust element-free Galerkin method with interpolating shape functions for finite deformation elasticity. - George C. Bourantas; Benjamin F. Zwick; Grand R. Joldes; Adam Wittek; Karol Miller (CoRR, 2020)

Automatic framework for patient-specific modelling of tumour resection-induced brain shift. - Yue Yu; Saima Safdar; George C. Bourantas; Benjamin Zwick; Grand R. Joldes; Tina Kapur; Sarah F. Frisken; Ron Kikinis; Arya Nabavi; Alexandra J. Golby; Adam Wittek; Karol Miller (Comput. Biol. Medicine, 2022)

Automated modeling of brain bioelectric activity within the 3D Slicer environment. - Saima Safdar; Benjamin Zwick; George C. Bourantas; Grand R. Joldes; Damon Hyde; Simon K. Warfield; Adam Wittek; Karol Miller (CoRR, 2022)

Patient-specific solution of the electrocorticography forward problem in deforming brain. - Benjamin F. Zwick; George C. Bourantas; Saima Safdar; Grand R. Joldes; Damon E. Hyde; Simon K. Warfield; Adam Wittek; Karol Miller (NeuroImage, 2022)

Data for patient-specific solution of the electrocorticography forward problem in deforming brain. - Benjamin F. Zwick; Saima Safdar; George C. Bourantas; Grand R. Joldes; Damon E. Hyde; Simon K. Warfield; Adam Wittek; Karol Miller (Zenodo, 2022)

SlicerCBM: automatic framework for biomechanical analysis of the brain. - Saima Safdar; Benjamin F. Zwick; Yue Yu; George C. Bourantas; Grand R. Joldes; Simon K. Warfield; Damon E. Hyde; Sarah F. Frisken; Tina Kapur; Ron Kikinis; Alexandra J. Golby; Arya Nabavi; et al. (Int. J. Comput. Assist. Radiol. Surg., 2023)