Patient specific biomechanical models can be applied in the design and analysis of orthopaedic implants, preoperative planning and accurate interpretation of post operative outcomes. The first step to obtain reliable customized models is by having a precise estimate of the patient specific morphology. In this study a method is presented to create patient specific models from an idealized generic musculoskeletal model. Bony morphology, wrapping structures and muscle attachment sites are derived by non-uniform scaling of a generic musculoskeletal model. This data is used as an input for a wrapping algorithm that predicts muscle fascicule paths
This paper presents a new and efficient method to calculate the line-of-action of a muscle as it wra...
Finite elements analysis (FEA) is now used routinely to interpret skeletal form in terms of function...
To generate subject-specific musculoskeletal models for clinical use, the location of muscle attachm...
Patient specific biomechanical models can be applied in the design and analysis of orthopaedic impla...
The estimation of muscles and ligaments behavior can be useful in orthopaedic surgery or when a func...
International audienceThe current paper aims at proposing an automatic method to design and adjust s...
In many biomechanical problems, the availability of a suitable model for the wrapping of muscles whe...
Computational modelling is an invaluable tool for investigating features of human locomotion and mot...
Musculoskeletal models have represented for decades one of the most important research tools to unde...
It is increasingly apparent the necessity of subject specific biomechanical models that are aimed at...
Anatomically realistic musculoskeletal models tend to be very complicated. The current full-body mod...
AbstractAccurate muscle geometry for musculoskeletal models is important to enable accurate subject-...
A challenging aspect of subject specific musculoskeletal modeling is the estimation of muscle parame...
Background: The accurate estimation of a muscle's line of action is a fundamental requirement in com...
Representation of realistic muscle geometries is needed for systematic biomechanical simulation of m...
This paper presents a new and efficient method to calculate the line-of-action of a muscle as it wra...
Finite elements analysis (FEA) is now used routinely to interpret skeletal form in terms of function...
To generate subject-specific musculoskeletal models for clinical use, the location of muscle attachm...
Patient specific biomechanical models can be applied in the design and analysis of orthopaedic impla...
The estimation of muscles and ligaments behavior can be useful in orthopaedic surgery or when a func...
International audienceThe current paper aims at proposing an automatic method to design and adjust s...
In many biomechanical problems, the availability of a suitable model for the wrapping of muscles whe...
Computational modelling is an invaluable tool for investigating features of human locomotion and mot...
Musculoskeletal models have represented for decades one of the most important research tools to unde...
It is increasingly apparent the necessity of subject specific biomechanical models that are aimed at...
Anatomically realistic musculoskeletal models tend to be very complicated. The current full-body mod...
AbstractAccurate muscle geometry for musculoskeletal models is important to enable accurate subject-...
A challenging aspect of subject specific musculoskeletal modeling is the estimation of muscle parame...
Background: The accurate estimation of a muscle's line of action is a fundamental requirement in com...
Representation of realistic muscle geometries is needed for systematic biomechanical simulation of m...
This paper presents a new and efficient method to calculate the line-of-action of a muscle as it wra...
Finite elements analysis (FEA) is now used routinely to interpret skeletal form in terms of function...
To generate subject-specific musculoskeletal models for clinical use, the location of muscle attachm...