Water flow through nanopore

JULIO MARAÑÓN DI LEO; JULIO MARAÑÓN

INTERNATIONAL JOURNAL OF QUANTUM CHEMISTRY

John Wiley

Año: 2007

0020-7608

  A Molecular Dynamics Simulation of water flow through a prismatic surface of van der Waals particles at (300 K) is reported. The application of different pressure gradients to a waterproduces a large spectrum of average velocities from Poiseuille to turbulent flow. A Molecular Dynamics Simulation of water flow through a prismatic surface of van der Waals particles at (300 K) is reported. The application of different pressure gradients to a waterproduces a large spectrum of average velocities from Poiseuille to turbulent flow. A Molecular Dynamics Simulation of water flow through a prismatic surface of van der Waals particles at (300 K) is reported. The application of different pressure gradients to a waterproduces a large spectrum of average velocities from Poiseuille to turbulent flow. A Molecular Dynamics Simulation of water flow through a prismatic surface of van der Waals particles at (300 K) is reported. The application of different pressure gradients to a waterproduces a large spectrum of average velocities from Poiseuille to turbulent flow. A Molecular Dynamics Simulation of water flow through a prismatic surface of van der Waals particles at (300 K) is reported. The application of different pressure gradients to a waterproduces a large spectrum of average velocities from Poiseuille to turbulent flow. A Molecular Dynamics Simulation of water flow through a prismatic surface of van der Waals particles at (300 K) is reported. The application of different pressure gradients to a waterproduces a large spectrum of average velocities from Poiseuille to turbulent flow. A Molecular Dynamics Simulation of water flow through a prismatic surface of van der Waals particles at (300 K) is reported. The application of different pressure gradients to a waterproduces a large spectrum of average velocities from Poiseuille to turbulent flow. A Molecular Dynamics Simulation of water flow through a prismatic surface of van der Waals particles at (300 K) is reported. The application of different pressure gradients to a waterproduces a large spectrum of average velocities from Poiseuille to turbulent flow. A Molecular Dynamics Simulation of water flow through a prismatic surface of van der Waals particles at (300 K) is reported. The application of different pressure gradients to a waterproduces a large spectrum of average velocities from Poiseuille to turbulent flow. A Molecular Dynamics Simulation of water flow through a prismatic surface of van der Waals particles at (300 K) is reported. The application of different pressure gradients to a waterproduces a large spectrum of average velocities from Poiseuille to turbulent flow. A Molecular Dynamics Simulation of water flow through a prismatic surface of van der Waals particles at (300 K) is reported. The application of different pressure gradients to a waterproduces a large spectrum of average velocities from Poiseuille to turbulent flow. A Molecular Dynamics Simulation of water flow through a prismatic surface of van der Waals particles at (300 K) is reported. The application of different pressure gradients to a waterproduces a large spectrum of average velocities from Poiseuille to turbulent flow. A Molecular Dynamics Simulation of water flow through a prismatic surface of van der Waals particles at (300 K) is reported. The application of different pressure gradients to a waterproduces a large spectrum of average velocities from Poiseuille to turbulent flow.