A model for fluid and drug transport through the leaky neovasculature and porous interstitium of a solid tumour is developed. The transport problems are posed on a micro-scale characterized by the inter-capillary distance, and the method of multiple scales is used to derive the continuum equations describing fluid and drug transport on the length scale of the tumour (under the assumption of a spatially periodic microstructure). The fluid equations comprise a double porous medium, with coupled Darcy flow through the interstitium and vasculature, whereas the drug equations comprise advection-reaction equations; in each case the dependence of the transport coefficients on the vascular geometry is determined by solving micro-scale cell problems
International audienceUnderstanding the dynamics underlying fluid transport in tumour tissues is of ...
The present study develops a numerical model, which is the most complex one, in comparison to previo...
International audienceUnderstanding the dynamics underlying fluid transport in tumour tissues is of ...
A model for fluid and drug transport through the leaky neovasculature and porous interstitium of a s...
Understanding the perfusion of blood and drugs in tumours is fundamental to foreseeing the efficacy ...
Understanding the perfusion of blood and drugs in tumours is fundamental to foreseeing the efficacy of...
An homogenized mathematical model for the fluid and drug transport coupling in healthy and tumor vas...
A system of differential equations for coupled fluid and drug transport in vascularized (malignant) ...
A system of differential equations for coupled fluid and drug transport in vascularized (malignant) ...
The subtle relationship between vascular network structure and mass transport is vital to predict an...
The subtle relationship between vascular network structure and mass transport is vital to predict an...
The role of the microvascular network geometry in transport phenomena in solid tumors and its interp...
We tackle the fluid transport problem in vascularized tumors by solving a double Darcy model obtaine...
International audienceUnderstanding the dynamics underlying fluid transport in tumour tissues is of ...
International audienceUnderstanding the dynamics underlying fluid transport in tumour tissues is of ...
International audienceUnderstanding the dynamics underlying fluid transport in tumour tissues is of ...
The present study develops a numerical model, which is the most complex one, in comparison to previo...
International audienceUnderstanding the dynamics underlying fluid transport in tumour tissues is of ...
A model for fluid and drug transport through the leaky neovasculature and porous interstitium of a s...
Understanding the perfusion of blood and drugs in tumours is fundamental to foreseeing the efficacy ...
Understanding the perfusion of blood and drugs in tumours is fundamental to foreseeing the efficacy of...
An homogenized mathematical model for the fluid and drug transport coupling in healthy and tumor vas...
A system of differential equations for coupled fluid and drug transport in vascularized (malignant) ...
A system of differential equations for coupled fluid and drug transport in vascularized (malignant) ...
The subtle relationship between vascular network structure and mass transport is vital to predict an...
The subtle relationship between vascular network structure and mass transport is vital to predict an...
The role of the microvascular network geometry in transport phenomena in solid tumors and its interp...
We tackle the fluid transport problem in vascularized tumors by solving a double Darcy model obtaine...
International audienceUnderstanding the dynamics underlying fluid transport in tumour tissues is of ...
International audienceUnderstanding the dynamics underlying fluid transport in tumour tissues is of ...
International audienceUnderstanding the dynamics underlying fluid transport in tumour tissues is of ...
The present study develops a numerical model, which is the most complex one, in comparison to previo...
International audienceUnderstanding the dynamics underlying fluid transport in tumour tissues is of ...