EXPERIMENTAL AND NUMERICAL ANALYSIS OF CENTRIFUGAL PUMP IMPELLER |
Author(s): |
Mr. Mayur V. Dongare |
Keywords: |
Centrifugal pump; Discharge and Suction Pressure; Ansys Computational Fluid Dynamics |
Abstract |
A pump is a machine that exhausts mechanical vitality to build the weight of a liquid and to move it from an area of low weight to one of high weight by making weight distinction between the suction side and conveyance side. Be that as it may, its execution can be enhanced by upgrading different plan parameters to create a streamlined flow. Conventionally, numerous parts of the outline of an impeller depend on exact formulae gotten for a fact and thumb rules. Accordingly, concentrate these parameters scientifically will effectively increase the proficiency and furthermore building up a standard technique for planning the impeller. The fundamental target of the present work is to enhance the execution of a diffusive pump with enhanced outline of its impeller by breaking down and advancing the plan parameters like vane profile, gulf and outlet vane edges, number of vanes and general measurements. The stream design inside the impeller vane entry essentially impacts the general execution of the pump. Advancement techniques help to locate the best arrangement, which expands the plan parameters of enthusiasm for the application under thought. A PC program was created in this work to get the impeller measurements and its vane profile. The plan technique is approved utilizing standard ANSYS (CFX) programming. The familiar programming utilized as a part of this work reenacts the execution of the pump for all intents and purposes and demonstrates the stream design. The experiments generated data for flow rate, suction & delivery pressure, speed and power. The design was verified using both simulated and experimental data. The present work establishes theoretical and experimental methods for design and testing of a pump. |
Other Details |
Paper ID: IJSARTV Published in: Volume : 3, Issue : 8 Publication Date: 8/4/2017 |
Article Preview |
Download Article |