Purpose: NiftySim, an open-source finite element toolkit, has been designed to allow incorporation of high-performance soft tissue simulation capabilities into biomedical applications. The toolkit provides the option of execution on fast graphics processing unit (GPU) hardware, numerous constitutive models and solid-element options, membrane and shell elements, and contact modelling facilities, in a simple to use library. Methods: The toolkit is founded on the total Lagrangian explicit dynamics (TLEDs) algorithm, which has been shown to be efficient and accurate for simulation of soft tissues. The base code is written in C$$++$$++, and GPU execution is achieved using the nVidia CUDA framework. In most cases, interaction with the underlying ...
Finite element analysis (FEA) enjoys a variety of applications in the field of biomechanics, from si...
Special Issue on Biomechanical Modelling of Soft Tissue MotionInternational audienceThis article des...
Abstract. Realistic deformation of computer-simulated anatomical structures is computationally inten...
Purpose: NiftySim, an open-source finite element toolkit, has been designed to allow incorporation o...
The use of biomechanical modelling, especially in conjunction with finite element analysis, has beco...
Finite element analysis (FEA) enjoys a variety of applications in the field of biomechanics, from si...
Abstract. Accurate biomechanical modelling of soft tissue is a key as-pect for achieving realistic s...
There are two types of structures in human body, solid organs and hollow membrane like organs. Brain...
International audienceAccurate biomechanical modelling of soft tissue is a key aspect for achieving ...
Finite element (FE) simulations are increasingly valuable in assessing and improving the performance...
We present an implementation of a nonlinear explicit, displacement-based finite element code and its...
We propose an efficient numerical algorithm for computing deformations of “very ” soft tissues (such...
As the presence of finite element implementations on General Purpose Graphics Processing Units (GPGP...
Efficient and accurate techniques for simulation of soft tissue deformation are an increasingly valu...
Modelling the deformation of anatomical structures in real-time is a crucial problem in medical simu...
Finite element analysis (FEA) enjoys a variety of applications in the field of biomechanics, from si...
Special Issue on Biomechanical Modelling of Soft Tissue MotionInternational audienceThis article des...
Abstract. Realistic deformation of computer-simulated anatomical structures is computationally inten...
Purpose: NiftySim, an open-source finite element toolkit, has been designed to allow incorporation o...
The use of biomechanical modelling, especially in conjunction with finite element analysis, has beco...
Finite element analysis (FEA) enjoys a variety of applications in the field of biomechanics, from si...
Abstract. Accurate biomechanical modelling of soft tissue is a key as-pect for achieving realistic s...
There are two types of structures in human body, solid organs and hollow membrane like organs. Brain...
International audienceAccurate biomechanical modelling of soft tissue is a key aspect for achieving ...
Finite element (FE) simulations are increasingly valuable in assessing and improving the performance...
We present an implementation of a nonlinear explicit, displacement-based finite element code and its...
We propose an efficient numerical algorithm for computing deformations of “very ” soft tissues (such...
As the presence of finite element implementations on General Purpose Graphics Processing Units (GPGP...
Efficient and accurate techniques for simulation of soft tissue deformation are an increasingly valu...
Modelling the deformation of anatomical structures in real-time is a crucial problem in medical simu...
Finite element analysis (FEA) enjoys a variety of applications in the field of biomechanics, from si...
Special Issue on Biomechanical Modelling of Soft Tissue MotionInternational audienceThis article des...
Abstract. Realistic deformation of computer-simulated anatomical structures is computationally inten...