Prediction of tissue damage under thermal loads plays important role for thermal ablation planning. A new methodology is presented in this paper by combing non-Fourier bio-heat transfer, constitutive elastic mechanics as well as non-rigid motion of dynamics to predict and analyze thermal distribution, thermal-induced mechanical deformation and thermal-mechanical damage of soft tissues under thermal loads. Simulations and comparison analysis demonstrate that the proposed methodology based on the non-Fourier bio-heat transfer can account for the thermal-induced mechanical behaviors of soft tissues and predict tissue thermal damage more accurately than classical Fourier bio-heat transfer based model
AbstractIn this paper, a mathematical model describing the process of non-Fourier heat transfer in b...
AbstractThe non-Fourier and Fourier thermal responses in one-dimensional single layer skin tissue un...
Hyperthermia treatments require precise control of thermal energy to form the coagulation zones whic...
This paper presents a method to characterize tissue thermal damage by taking into account the therma...
Heating analysis of soft tissue at finite deformation is of importance during treatment planning pro...
Modeling of thermal-induced mechanical behaviors of soft tissues is of great importance for thermal ...
Modeling of thermal-induced mechanical behaviors of soft tissues is of great importance for thermal ...
Purpose Thermal ablation is an energy-based ablation technique widely used during minimally invasive...
A thermal model to predict the effects of laser parameters on the zone of thermal injury produced by...
To ensure personal safety and improve treatment efficiency in laser medical applications, one of the...
Soft tissue deformation is of great importance to virtual reality-based surgery simulation. This pap...
Modelling of interactions of soft tissues with surgical tools is a fundamental issue in interactive ...
Modeling of thermomechanical behavior of soft tissues is vitally important for the development of su...
This paper presents the non-Fourier bioheat transfer prediction methodology of human skin to determi...
The non-Fourier and Fourier thermal responses in one-dimensional single layer skin tissue under sele...
AbstractIn this paper, a mathematical model describing the process of non-Fourier heat transfer in b...
AbstractThe non-Fourier and Fourier thermal responses in one-dimensional single layer skin tissue un...
Hyperthermia treatments require precise control of thermal energy to form the coagulation zones whic...
This paper presents a method to characterize tissue thermal damage by taking into account the therma...
Heating analysis of soft tissue at finite deformation is of importance during treatment planning pro...
Modeling of thermal-induced mechanical behaviors of soft tissues is of great importance for thermal ...
Modeling of thermal-induced mechanical behaviors of soft tissues is of great importance for thermal ...
Purpose Thermal ablation is an energy-based ablation technique widely used during minimally invasive...
A thermal model to predict the effects of laser parameters on the zone of thermal injury produced by...
To ensure personal safety and improve treatment efficiency in laser medical applications, one of the...
Soft tissue deformation is of great importance to virtual reality-based surgery simulation. This pap...
Modelling of interactions of soft tissues with surgical tools is a fundamental issue in interactive ...
Modeling of thermomechanical behavior of soft tissues is vitally important for the development of su...
This paper presents the non-Fourier bioheat transfer prediction methodology of human skin to determi...
The non-Fourier and Fourier thermal responses in one-dimensional single layer skin tissue under sele...
AbstractIn this paper, a mathematical model describing the process of non-Fourier heat transfer in b...
AbstractThe non-Fourier and Fourier thermal responses in one-dimensional single layer skin tissue un...
Hyperthermia treatments require precise control of thermal energy to form the coagulation zones whic...