Peristaltic Transport of Micropolar Fluid in a Tubes Under Influence of Magnetic Field and Rotation
In this paper, The peristaltic flow of micropolar fluid in a flexible tube with viscoelastic is studied under effect of magnetic field and rotation. The Runge-Kutta method is used to solve the governing equations of motion resulting from a perturbation technique for small values of amplitude ratio. The time mean axial velocity profiles are presented for the case of free pumping and analyzed to observe the influence of rotation and magnetic field for various values of radial r and wave numbe. The numerical results of the time mean velocity profile are discussed in detail for homogeneous fluid under effect of magnetic field and rotation for different cases by figures. The results indicate that the effect of rotation and magnetic field are very pronounced. Numerical results are given and illustrated graphically. Index Term-Peristaltic motion, micropolar fluid, magnetic field, rotation, Runge-Kutta method, velocity profiles.
The Behavior of Bubble and Particle, Pulsatile and Peristaltic Flow
The thesis studies the peristaltic flow of fluid in a channel with the specified pressure wave at the boundary. The law of wall’s coordinate variation isn’t determined a priori. It is found from the initially definite law of pressure-variation on the wall. This way is based on the fact that some hollow organs change diameter under the signals of baroreceptors (sensors that detects the pressure). We studied the effects of various parameters on flow rate and structure of flow. Besides we studied the influence of vibration on the peristaltic flow under long wave approximation. 
The paper also considers the influence of the wall transverse pulsation on the fluid transport under the pressure drop. This problem arises in defining the liquid viscosity by squeezing flow viscometry. The same problems occur in analyzing different biological systems, including the lubricant movement in joints or in the microvessels of working muscles. 
The influence of sound on the interaction of a solid particle and a gas bubble in fluid is studied as well.
Biomagnetic separation of contaminating host leukocytes from plasmodium-infected erythrocytes.
Carlton, J. M-R., Yowell, C. A., Sturrock, K. A., and Dame, J. B. 2001. Biomagnetic separation of contaminating host leukocytes from Plasmodium-infected erythrocytes. Experimental Parasitology 97, 111-114.