This paper presents a potential-based formulation conceived to estimate the electric field induced in a human body moving through the stray stationary magnetic field produced by magnetic resonance scanners. Two different descriptions are adopted, giving rise to two different driving terms, and the corresponding electromagnetic problems are solved numerically, according to a Finite Element approach. The application of the procedure recommended by the ICNIRP Guidelines to perform the exposure assessment is discussed and some examples, which refer to a realistic situation, are finally presented
In modern MRI, occupational workers are exposed to strong, non-uniform static magnetic fields genera...
Staff operating in the environment of magnetic resonance imaging (MRI) scanners are exposed daily to...
Electrical properties, the conductivity and permittivity of tissue, are quantities that describe the...
This paper presents a potential-based formulation conceived to estimate the electric field induced i...
This paper deals with the electric field generated inside the bodies of people moving in proximity t...
In modern magnetic resonance imaging (MRI), patients are exposed to strong, nonuniform static magnet...
In modern magnetic resonance imaging, both patients and health care workers are exposed to strong. n...
In modern magnetic resonance imaging (MRI), both patients and radiologists are exposed to strong, no...
A computational procedure, based on the boundary element method, has been developed in order to eva...
The purpose of this work is to estimate the induced electric field E due to movements of magnetic re...
Purpose: To numerically evaluate the electric field/current density magnitudes and spatial distribut...
Purpose: The goal of this study was to conduct an exposure assessment for workers moving through th...
Determining the induced electric fields in the human body is a fundamental problem in bioelectromagn...
The paper proposes and discusses a boundary element procedure able to predict the distribution of th...
Moving across the stray magnetic field generated by a medical magnetic resonance imaging system may ...
In modern MRI, occupational workers are exposed to strong, non-uniform static magnetic fields genera...
Staff operating in the environment of magnetic resonance imaging (MRI) scanners are exposed daily to...
Electrical properties, the conductivity and permittivity of tissue, are quantities that describe the...
This paper presents a potential-based formulation conceived to estimate the electric field induced i...
This paper deals with the electric field generated inside the bodies of people moving in proximity t...
In modern magnetic resonance imaging (MRI), patients are exposed to strong, nonuniform static magnet...
In modern magnetic resonance imaging, both patients and health care workers are exposed to strong. n...
In modern magnetic resonance imaging (MRI), both patients and radiologists are exposed to strong, no...
A computational procedure, based on the boundary element method, has been developed in order to eva...
The purpose of this work is to estimate the induced electric field E due to movements of magnetic re...
Purpose: To numerically evaluate the electric field/current density magnitudes and spatial distribut...
Purpose: The goal of this study was to conduct an exposure assessment for workers moving through th...
Determining the induced electric fields in the human body is a fundamental problem in bioelectromagn...
The paper proposes and discusses a boundary element procedure able to predict the distribution of th...
Moving across the stray magnetic field generated by a medical magnetic resonance imaging system may ...
In modern MRI, occupational workers are exposed to strong, non-uniform static magnetic fields genera...
Staff operating in the environment of magnetic resonance imaging (MRI) scanners are exposed daily to...
Electrical properties, the conductivity and permittivity of tissue, are quantities that describe the...