Prolonged pro-inflammatory effects of ultrafine particles in the lung of allergic asthmatics (2009)
Schaumann, F., Dijkstra, D., Froemke, C., Windt, H., Karg, E., Mueller, M., ...
Wesseling, P., Segal, A., Kassels, C.G.M., Bijl, H., Dijkstra, D., Kuerten, J.G.M., ...
The classical staggered scheme for the incompressible Navier-Stokes equations is generalized from Cartesian grids to general boundary-fitted structured grids. The resulting discretization is...
The authors develop a numerical method for calculating the transverse resistivity of superconducting cables. A superconducting cable consists of a twisted bundle of strands with a nonconducting inner...
Hartmann, Ir. R.A., Dijkstra, Dr. D.
The authors develop a numerical method for calculating the transverse resistivity of superconducting cables. A superconducting cable consists of a twisted bundle of strands with a nonconducting inner...
The authors develop a numerical method for calculating the transverse resistivity of superconducting cables. A superconducting cable consists of a twisted bundle of strands with a nonconducting inner...
A CONTRIBUTION TO THE UNDERSTANDING OF A.C. LOSSES IN MULTIFILAMENTARY WIRES (1984)
Rem, P., Van Beckum, F., Dijkstra, D.
We present a numerical model, based on Maxwell's equations, for calculating transverse field losses in multifilamentary wires.
A CONTRIBUTION TO THE UNDERSTANDING OF A.C. LOSSES IN MULTIFILAMENTARY WIRES (1984)
Rem, P., Van Beckum, F., Dijkstra, D.
We present a numerical model, based on Maxwell's equations, for calculating transverse field losses in multifilamentary wires.
A CONTRIBUTION TO THE UNDERSTANDING OF A.C. LOSSES IN MULTIFILAMENTARY WIRES (1984)
Rem, P., Van Beckum, F., Dijkstra, D.
We present a numerical model, based on Maxwell's equations, for calculating transverse field losses in multifilamentary wires.