Computational Fluid Dynamics

Similar documents
Direct assessment details: Name of assessment Marks Topics Tentative date Duration Cycle test - I 10 Up to heat engines

UPY PHYSICS PRACTICAL-I

MEC 205 D. Name of assessment Marks Topics Tentative date Duration Basic concepts, first law of thermodynamics, steady flow energy equation.

5. FVM discretization and Solution Procedure

Computational Fluid Dynamics-1(CFDI)

Module 1: Introduction to Finite Difference Method and Fundamentals of CFD Lecture 1: Finite Difference Method

Discretization of Convection Diffusion type equation

Introduction to Computational Fluid Dynamics

SOLVING ELLIPTIC PDES

Project 4: Navier-Stokes Solution to Driven Cavity and Channel Flow Conditions

Finite Difference Methods for

Simulation and improvement of the ventilation of a welding workshop using a Finite volume scheme code

: ME0232 : Thermodynamics and Fluid Mechanics :4 : Even (November May 2014)

Numerical Methods for Engineers and Scientists

DEPARTMENT OF MATHEMATICS FACULTY OF ENGINERING AND TECHNOLOGY SRM UNIVERSITY MA0211- MATHEMATICS III SEMESTER III ACADEMIC YEAR:

Chapter 5. Formulation of FEM for Unsteady Problems

LESSON PLAN EE0205 ELECTROMAGNETIC THEORY

Turbulent Boundary Layers & Turbulence Models. Lecture 09

Solution Methods. Steady State Diffusion Equation. Lecture 04

Finite volume method for CFD

Partial Differential Equations II

Stagnation-Point Pressure Distribution and Wall Shear Stress: Numerical Simulation and Similarity Solution

MTF071 Computational Fluid Dynamics of Turbulent

SRM UNIVERSITY DEPARTMENT OF BIOMEDICAL ENGINEERING ODD Semester DAY floor

Pre-requisites: Concepts of Engineering mechanics, basic physics, Newton s Laws

Numerical Analysis of a Helical Coiled Heat Exchanger using CFD

Basic Aspects of Discretization

DEPARTMENT OF CHEMICAL ENGINEERING FACULTY OF ENGINEERING AND TECHNOLOGY SRM UNIVERSITY COURSE PLAN

Direct assessment details: 'c H302B Mr.V.Rajasekar MEC 107 Name of assessment

PARTIAL DIFFERENTIAL EQUATIONS. MTH 5230, Fall 2007, MW 6:30 pm - 7:45 pm. George M. Skurla Hall 116

Partial Differential Equations

Numerical Methods for Partial Differential Equations: an Overview.

PDE Solvers for Fluid Flow

University School of Chemical Technology

Fall Exam II. Wed. Nov. 9, 2005

The Use of CFD Simulations in Learning Fluid Mechanics at the Undergraduate Level

CFD in Heat Transfer Equipment Professor Bengt Sunden Division of Heat Transfer Department of Energy Sciences Lund University

G6943y: Myths and Methods in Modeling (M&M s in M)

Study of Forced and Free convection in Lid driven cavity problem

Introduction to Heat and Mass Transfer. Week 9

Parabolic Flow in Parallel Plate Channel ME 412 Project 4

Numerical Methods for Partial Differential Equations CAAM 452. Spring 2005

OpenFOAM selected solver

Structure of the Comprehensive Examination in the ME Department. For circulation to students

CHAPTER 7 NUMERICAL MODELLING OF A SPIRAL HEAT EXCHANGER USING CFD TECHNIQUE

Problem Set 4 Issued: Wednesday, March 18, 2015 Due: Wednesday, April 8, 2015

UNIVERSITY OF NAIROBI

FUNDAMENTALS OF FINITE DIFFERENCE METHODS

SRI RAMAKRISHNA INSTITUTE OF TECHNOLOGY COIMBATORE-10

Additive Manufacturing Module 8

Effect of Periodic Variation of Sol-air Temperature on the Performance of Integrated Solar Collector Storage System

DEPARTMENT OF MATHEMATICS FACULTY OF ENGINERING AND TECHNOLOGY SRM UNIVERSITY

Draft Notes ME 608 Numerical Methods in Heat, Mass, and Momentum Transfer

Solution Methods. Steady convection-diffusion equation. Lecture 05

Finite Difference Methods (FDMs) 2

1 Finite difference example: 1D implicit heat equation

Syllabus (Session )

ME Computational Fluid Mechanics Lecture 5

Computational Engineering Introduction to Numerical Methods

Boundary-Layer Theory

Some notes about PDEs. -Bill Green Nov. 2015

15EE103L ELECTRIC CIRCUITS LAB RECORD

CONNECTIONS BETWEEN A CONJECTURE OF SCHIFFER S AND INCOMPRESSIBLE FLUID MECHANICS

Course Syllabus: Continuum Mechanics - ME 212A

Partial Differential Equations

Introduction to PDEs and Numerical Methods: Exam 1

FEM-Level Set Techniques for Multiphase Flow --- Some recent results

M.Sc. Maths (Colleges) onwards

Numerical Solution of One-dimensional Advection-diffusion Equation Using Simultaneously Temporal and Spatial Weighted Parameters

Pressure-velocity correction method Finite Volume solution of Navier-Stokes equations Exercise: Finish solving the Navier Stokes equations

: NT2113 CHEMISTRY OF NANOMATERIALS : CHEMISTRY OF NANOMATERIALS

DESIGN AND CFD ANALYSIS OF A CENTRIFUGAL PUMP

CFD Analysis On Thermal Energy Storage In Phase Change Materials Using High Temperature Solution

7 Hyperbolic Differential Equations

Finite Element Analysis for Heat Transfer. Theory and Software

Open boundary conditions in numerical simulations of unsteady incompressible flow

Finite Volume Method

Scientific Computing: An Introductory Survey

Computational Engineering

Estimation of Flutter Derivatives of Various Sections Using Numerical Simulation and Neural Network

2.29 Numerical Fluid Mechanics Spring 2015 Lecture 13

EMA 4125: Transport Phenomena in Materials Processing

Chemical and Biomolecular Engineering 150A Transport Processes Spring Semester 2017

Length Learning Objectives Learning Objectives Assessment

Introduction to the course ``Theory and Development of Reactive Systems'' (Chemical Reaction Engineering - I)

Classification of partial differential equations and their solution characteristics

Chapter 5 Types of Governing Equations. Chapter 5: Governing Equations

MATLAB Solution of Flow and Heat Transfer through a Porous Cooling Channel and the Conjugate Heat Transfer in the Surrounding Wall

Understanding Transport Phenomena Concepts in Chemical Engineering with COMSOL Multiphysics

Code Verification of Multiphase Flow with MFIX

Numerical Investigation of Secondary Flow In An Axial Flow Compressor Cascade

Chapter 2 Finite-Difference Discretization of the Advection-Diffusion Equation

1. Introduction, tensors, kinematics

SIMPLE Algorithm for Two-Dimensional Channel Flow. Fluid Flow and Heat Transfer

ME 608 Numerical Methods in Heat, Mass, and Momentum Transfer. q 0 = εσ ( T 4 T 4) Figure 1: Computational Domain for Problem 1.

Two-Dimensional Unsteady Flow in a Lid Driven Cavity with Constant Density and Viscosity ME 412 Project 5

Department of Mathematics Mahatma Gandhi University Scheme of Ph. D Course Work

First, Second, and Third Order Finite-Volume Schemes for Diffusion

RESEARCH OF COMPOSITE CONSTRUCTIONS IMPACT ON THE ENERGY EFFICIENCY OF BUILDINGS

COURSE STRUCTURE FOR M.TECH. MECHANICAL FIRST YEAR (Thermal Engineering)

Transcription:

Faculty of Engineering & Technology, SRM University, Kattankulathur - 603203 School of Mechanical Engineering Department ofmechanical Engineering Course plan Course code :ME2422 Date : 15/12/2014 Course title Semester Academic year 1 semester Computational Fluid Dynamics : II : 2014-' 15 leven (Jan-April 2015) Section details: Section Room No. Details offaculty member Name Room No. ~ntercom e-mail id Student No. contact time MTech ME2422 P.Sudhakar!MEHI02A 1824 Sudhakar.p@ktr.srmuniv.ac.in 12.30-1.30PM Solar Energy Syllabus of the course: ME2422 COMPUTATIONAL FLUID DYNAMICS L T P C 300 3 PURPOSE To study the principles and applications of computational fluid dynamics.

INSTRUCTIONAL OBJECTIVES Upon successful completion of the course the students are able to understand the 1. Governing equations of CFO and formulations using FEM. 2. Finite volume formulations applicable to flow problems. 3. Solution methods present in finite difference method. 4. Techniques in turbulence modeling. 5. Grid generation techniques for fluid flow problems. COURSE DESCRIPTION UNIT 1 GOVERNING EQUATIONS 9 Governing equations - Laws of conservation- Mass - Momentum - Energy balance and classification, Initial and boundary conditions - Boundary value problems, FEM Variational formulation - Shape function - Handling B.C in FEM. UNIT 2 FINITE VOLUME METHOD 9 Finite volume formulation- 10,20 and 3D problems - Convection and diffusion problems -Laplace equation - Poisons equation - Parabolic equation. Properties of discretisation schemes - Central differencing schemes, upwind schemes, hybrid schemes and quick schemes. UNIT 3 SOLUTION METHODS 9 Solution methods of discretised equations - Tridiagonal matrix algorithm (TOMA) Application oftoma for 20 and 3D problems potential flow - Stream and vorticity function. Unsteady flows - Explicit scheme, Crank Nicholson scheme, fully implicit scheme SIMPLE algorithm, PISO algorithm.

UNIT 4 TURBULENCE MODELING 9 Importance,significance and types - Prantl-mixing length modej- One equation model, K-E model, RSM equation model- Applications. UNIT 5 GRID GENERATION TECHNIQUE 9 Structural grid generation - Algebraic methods, PDE mapping methods. Unstructured grid generation using Delauany - Voronoi methods - Adaptive method - Mesh refinement method - Mesh mover and methods. TOTAL PERIODS 45 REFERENCE BOOKS 1. Zikanov.O., Essential computational Fluid Dynamics, Wiley 2010. 2. Chung T. J., Computational Fluid Dynamics, Cambridge UniversityPress, 2003. 3. Hirch.c., Numerical Computation ofinternal and externaljlows, Elesvier 2007 4. Date A.W., ComputaNonal Fluid Dynamics, Cambridge university, 2005. 5. Bates.P.D., Computational Fluid dynamics, Wiley 2005. 6. Minkowycz., Hand book ofnumerical heat transfer, 2 nd Edition Wiley, 2006. 7. Ghoshdastidar. P. S., Computer simulation ofjlow and heat transfer, Tata Mc Graw Hill Publishing company Ltd, 1998.

Session Pian: S.No Date No. of Title / Details of the References ( code of Hours chapter the Text / Reference books) 1. 1 UNIT -I -GOVERNING R4, chapter 1 EQUATIONS Governing equationscontinuty,momentum and energy equation and its significance 2 1 Conservation and Non R4, chapter 1 conservation form of governing equations 3 1 Classification of pdes - R7, chapter 2 elliptic,parabolic, hyper bolic 4 1 Initial and Boundary R7, chapter 2 conditions- Dirichlet and Neumann 5 1 boundary value problems,and R7 chapter 2 intial value problems- first order,second order 6 1 Problem in one dimensional R7, chapter 2 heat conduction equation 7 1 FEM-Variational formulation- R7, chapter 8 Rayleigh ritz method 8 1 Least square,galerkin method R7, chapter 8 9 1 handling B.C in FEM-one R7, chapter 8 dimensional heat conduction problem

10 1 UNIT -II FINITE VOLUME R4, chapter 2 METHOD Problems in One dimensional steady state and transient conduction 11 1 Finite Volume Formulation for R4, chapter 2 convection diffusion problem 12 1 One dimensional convection - R4, chapter 2 diffusion with steady flow 13 1 Two dimensional convection - R4, chapter 5 diffusion with steady flow 14 1 Three dimensional convection R4, chapter 5 -diffusion with steady flow 15 1 Properties of Discretization R4, chapter 5 schemes- coservativeness, boundedness, Transportiveness 16 1 Differencing schemes -upwind R4, chapter 5 scheme,quick scheme,powerlaw scheme 17 1 Problem -one dimension R4, chapter 3 conduction diffusion steady flow problem 18 1 Problem --Dne dimension R4, chapter 3 conduction diffusion steady flow problem 19 1 UNIT -III-SOLUTION R7, chapter 5 METHODS Solution methods for laws for conservation- naviers stoke equation

20 1 Pressure correction and R7, chapter 5 velocity correction methods 21 1 Formation of momentum R7, chapter 5 equation using Potential flow function and stream function 22 1 Simple algoritihm R7, chapter 5 23 1 Piso algoritim R7, chapter 5 24 1 Formulation of flow problem R7, chapter 5 using simple algorithm 25 1 Solution cotinuity equation R7, chapter 5 using simple algorithm 26 1 Solution momentum and R7, chapter 5 energy equation using simple algorithm 27 1 R4, chapter 3 Dicretisation of one dimensional convection diffusion equation 28 1 UNIT -IV - TURBULENCE R4, chapter 4 MODELING Turbulence models and significance

29 1 R4 chapter 3 Application ofdifferent types ofmodejs 30 1 Prantl mixing length model R4, chapter 4 explanation 31 1 One equation model R4, chapter 4 explanation 32 1 Two equation model R4, chapter 4 explanation 33 1 K-e model explanation R4, chapter 4 34 1 RSM model explanation R4, chapter 4 35 1 Comparision of Turbulence R2, chapter 4 models 36 1 Advantages and disadvantages R4, chapter 4 ofeach models 37 1 UNIT -V-GRID R7, chapter 8 GENERATION TECHNIQUE Classification of grid generation-structural grid,unstructured grids 38 1 Mapping layout -O,C,H-types R7, chapter 8 of grids

39 1 Methods of generation R7, chapter 8 structural grids 40 1 Partial difference equation R7, chapter 8 mapping methods 41 1 Unstructural grids generation R7, chapter 8 42 1 Mesh generation alogorithm- R7, chapter 8 Delauany -Voronoi methods 43 1 Adaptive mesh generation R7 chapter 8 method 44 1 mesh refinement method R7 chapter 8 45 mesh mover and mehods. R7 chapter 8 Reference Books: 1. Zikanov.O Essential computational Fluid Dynamics Wiley 2010 2. Chung T. J., "Computational Fluid Dynamics", Cambridge UniversityPress-2003. 3. Birch.C.NunericaJ Coputation of internal and external flows EJesvier 2007 4. Date A. W. computational Fluid Dynamics Cambridge university 2005. S. Bates.P.D Computational Fluid dynamics.wiley 2005. 6. Minkowycz Hand book ofnumerical heat transfer 2 nd Edition Wiley 2006 7. Ghoshdastidar. P. S., " Computer simulation of flow and heat transfer" Tata Mc Graw-Bill Publishing company Ltd. 1998.

Name of the Faculty : P.SUDHAKAR Signature. -' J(VV\ ~\ " ~ Dean / Mechanical