In artificial organs such as vascular prostheses and detoxification devices, blood is exposed to mechanical stresses that can damage red blood cells, possibly leading to membrane lysis. In this work a theoretical analysis of mechanical hemolysis in artificial organs is presented, by firstly considering the main features of the current modeling approaches in literature. Two alternative modeling approaches, based on a physical description of the hemolysis process, are then presented, discussed and compared with experimental data
Blood damage of artificial systems within the circulatory system still remains a major problem despi...
Modeling and computational analysis play an increasingly-important role in bioengineering, particula...
Accurate quantitative evaluation of shear stress-related hemolysis (destruction of red blood cells) ...
Blood trauma caused by medical devices is a major concern. Complications following the implantation/...
A new model for mechanically induced red blood cell damage is presented. Incorporating biophysical i...
With the increasing use of artificial organs, blood damage has been raising ever more clinical conce...
The paper reports the prediction of mechanical hemolysis by three different models for the case of b...
Mechanical trauma to the blood can be considered as physical insult presented to the contents of blo...
Nowadays, the use of computational fluid dynamics (CFD) in the design phase of new blood contacting ...
Blood contacting artificial organs, whether used as a bridge to transplantation, or even as a perman...
Until today the employment of artificial systems in human circulation is limited by their reduced bl...
The goal of this project is to develop a CFD model of blood to predict hemolysis due to mechanical ...
[[abstract]]Arti¯cial prostheses create non-physiologic °ow conditions with stress forces that may i...
[[abstract]]Artificial prostheses create non-physiologic flow conditions with stress forces that may...
Artificial heart valves may expose blood to flow conditions that lead to unnaturally high stress and...
Blood damage of artificial systems within the circulatory system still remains a major problem despi...
Modeling and computational analysis play an increasingly-important role in bioengineering, particula...
Accurate quantitative evaluation of shear stress-related hemolysis (destruction of red blood cells) ...
Blood trauma caused by medical devices is a major concern. Complications following the implantation/...
A new model for mechanically induced red blood cell damage is presented. Incorporating biophysical i...
With the increasing use of artificial organs, blood damage has been raising ever more clinical conce...
The paper reports the prediction of mechanical hemolysis by three different models for the case of b...
Mechanical trauma to the blood can be considered as physical insult presented to the contents of blo...
Nowadays, the use of computational fluid dynamics (CFD) in the design phase of new blood contacting ...
Blood contacting artificial organs, whether used as a bridge to transplantation, or even as a perman...
Until today the employment of artificial systems in human circulation is limited by their reduced bl...
The goal of this project is to develop a CFD model of blood to predict hemolysis due to mechanical ...
[[abstract]]Arti¯cial prostheses create non-physiologic °ow conditions with stress forces that may i...
[[abstract]]Artificial prostheses create non-physiologic flow conditions with stress forces that may...
Artificial heart valves may expose blood to flow conditions that lead to unnaturally high stress and...
Blood damage of artificial systems within the circulatory system still remains a major problem despi...
Modeling and computational analysis play an increasingly-important role in bioengineering, particula...
Accurate quantitative evaluation of shear stress-related hemolysis (destruction of red blood cells) ...