Authors :
Shashank Attal; Omkar Awtade; Vedant Awchar; Chetan Bhagat; Omkar Bajpai
Volume/Issue :
Volume 9 - 2024, Issue 11 - November
Google Scholar :
https://tinyurl.com/865xbc5y
Scribd :
https://tinyurl.com/2mpck3ja
DOI :
https://doi.org/10.38124/ijisrt/IJISRT24NOV1121
Note : A published paper may take 4-5 working days from the publication date to appear in PlumX Metrics, Semantic Scholar, and ResearchGate.
Abstract :
The modeling of fluid flow using an orifice
meter is an engineering endeavor aimed at thoroughly
investigating and optimizing fluid flow measurement in
various industrial applications. Orifice meters are highly
regarded for their accurate measurement of fluid flow
rates as they pass through a specifically designed orifice
plate, utilizing the principles of fluid dynamics. The
primary objective of this project is to develop a
computational fluid dynamics (CFD) model capable of
simulating the intricate fluid flow through an orifice
meter. The simulation encompasses detailed geometric
features of the orifice meter, including the precise
dimensions of the orifice plate, pipe diameter, and any
relevant taper angles. Additionally, the model takes into
account various fluid parameters, boundary conditions,
and factors such as velocity and pressure at different
points within the system. The comprehensive study
visualizes and quantifies key fluid properties, such as
velocity profiles, pressure differentials, and flow
velocities, across the entire length of the orifice meter
using CFD analysis. This in-depth analysis provides
crucial insights into the dynamic performance of the
orifice meter. The obtained information holds significant
potential to revolutionize flow rate measurement
accuracy, efficiency, and cost-effectiveness in diverse
industries, including water management, chemical
processing, and oil and gas. The project's methodology
for simulating fluid flow through orifice meters can bring
about substantial improvements in the understanding
and optimization of fluid flow in industrial processes.
Keywords :
Orifice Meter, CFD, Velocity, Flow, Fluid
References :
- P. Hari Vijay, V. Subrahmanyam, “CFD Simulation on Different Geometries of Venturimeter,”.
- Kristen Ann Thompson, “Venturi Meter: Design, Simulation and Test,”.
- Ahamed Jahith, M. Aadithya, L. Alwin Aadaikalaraj, R. Ashutosh Singh, G. Vaithiyanathan, “Experimental Study on Flow Through Venturimeter,”.
- Nikhil Tamhankar, Amar Pandhare, Ashwinkumar Jogleshkar, Vaibhav Bansode “Experimental and CFD analysis of Flow through Venturimeter to Determine the Coefficient of Discharge,
The modeling of fluid flow using an orifice
meter is an engineering endeavor aimed at thoroughly
investigating and optimizing fluid flow measurement in
various industrial applications. Orifice meters are highly
regarded for their accurate measurement of fluid flow
rates as they pass through a specifically designed orifice
plate, utilizing the principles of fluid dynamics. The
primary objective of this project is to develop a
computational fluid dynamics (CFD) model capable of
simulating the intricate fluid flow through an orifice
meter. The simulation encompasses detailed geometric
features of the orifice meter, including the precise
dimensions of the orifice plate, pipe diameter, and any
relevant taper angles. Additionally, the model takes into
account various fluid parameters, boundary conditions,
and factors such as velocity and pressure at different
points within the system. The comprehensive study
visualizes and quantifies key fluid properties, such as
velocity profiles, pressure differentials, and flow
velocities, across the entire length of the orifice meter
using CFD analysis. This in-depth analysis provides
crucial insights into the dynamic performance of the
orifice meter. The obtained information holds significant
potential to revolutionize flow rate measurement
accuracy, efficiency, and cost-effectiveness in diverse
industries, including water management, chemical
processing, and oil and gas. The project's methodology
for simulating fluid flow through orifice meters can bring
about substantial improvements in the understanding
and optimization of fluid flow in industrial processes.
Keywords :
Orifice Meter, CFD, Velocity, Flow, Fluid
