Skill-Lync Launch Pad – Your Gateway to a Core Engineering Job by 2025! Only 1̶0̶0̶ +50 Seats Available.

03D 19H 49M 19S

Menu

Executive Programs

Workshops

Projects

Blogs

Careers

Placements

Student Reviews

For Business

More

Academic Training

Informative Articles

Find Jobs

We are Hiring!

All Courses

Choose a category

Mechanical

Electrical

Civil

Computer Science

Electronics

Offline Program

All Courses

All Courses

logo

CHOOSE A CATEGORY

Mechanical

Electrical

Civil

Computer Science

Electronics

Offline Program

Top Job Leading Courses

Automotive

CFD

FEA

Design

MBD

Med Tech

Courses by Software

Design

Solver

Automation

Vehicle Dynamics

CFD Solver

Preprocessor

Courses by Semester

First Year

Second Year

Third Year

Fourth Year

Courses by Domain

Automotive

CFD

Design

FEA

Tool-focused Courses

Design

Solver

Automation

Preprocessor

CFD Solver

Vehicle Dynamics

Machine learning

Machine Learning and AI

POPULAR COURSES

coursePost Graduate Program in Hybrid Electric Vehicle Design and Analysis
coursePost Graduate Program in Computational Fluid Dynamics
coursePost Graduate Program in CAD
coursePost Graduate Program in CAE
coursePost Graduate Program in Manufacturing Design
coursePost Graduate Program in Computational Design and Pre-processing
coursePost Graduate Program in Complete Passenger Car Design & Product Development
Executive Programs
Workshops
For Business

Success Stories

Placements

Student Reviews

More

Projects

Blogs

Academic Training

Find Jobs

Informative Articles

We're Hiring!

phone+91 9342691281Log in
  1. Home/
  2. Jishnu Handique/
  3. Simulation of Flow past a Cylinder for various Reynold's Number in SolidWorks

Simulation of Flow past a Cylinder for various Reynold's Number in SolidWorks

TAKEN INPUTS: Diameter = 0.04 m Length = 0.1 m Density of Air = 1.225 kg/m3 Dynamic Viscosity = 18.6e-6 Pa.sec at 20 Degree Celsius Reynold No. = 20, 40, 100 We know that, Reynold No. = (Density x Velocity x Diameter)/Dynamic Viscosity By applying above inputs in the Formula, we obtained: Velocity for (Re = 20) is 0.007592…

    • Jishnu Handique

      updated on 26 Jun 2019

    TAKEN INPUTS:

Diameter = 0.04 m
Length = 0.1 m
Density of Air = 1.225 kg/m3
Dynamic Viscosity = 18.6e-6 Pa.sec at 20 Degree Celsius
Reynold No. = 20, 40, 100

We know that, Reynold No. = (Density x Velocity x Diameter)/Dynamic Viscosity

By applying above inputs in the Formula, we obtained:

Velocity for (Re = 20)  is  0.007592 m/sec
Velocity for (Re = 40)  is  0.015184 m/sec
Velocity for (Re = 100) is  0.037959 m/sec

Since, Flow through Time = Length/Velocity

Flow through Time for (Re = 20)  is  13.172 sec
Flow through Time for (Re = 40)  is  06.586 sec
Flow through Time for (Re = 100) is  02.634 sec

And, Simulation Time = 2 x Flow through Time

Simulation Time for (Re = 20)  is approx  27 sec
Simulation Time for (Re = 40)  is approx  14 sec
Simulation Time for (Re = 100) is approx  06 sec

     

     

    VELOCITY  Contours  Obtained  (Front  View):

     

    (A)  Re = 20

    20

     

    Link  to  the  ANIMATION:                              click here

      

     

    (B)  Re = 40

    40

     

    Link  to  the  ANIMATION:                              click here

     

     

    (C)  Re = 100

    100

     

    Link  to  the  ANIMATION:                              click here

     

     

    RELATIVE  PRESSURE  Contours  Obtained  (Top  View):

     

    (A)  Re = 20

    2

     

    Link  to  the  ANIMATION:                              click here

     

     

    (B)  Re = 40

    4

     

    Link  to  the  ANIMATION:                              click here

     

     

    (C)  Re = 100

    10

     

    Link  to  the  ANIMATION:                              click here

     

     

    RESULT  DISCUSSION:

     

     

     

     

    Leave a comment

    Thanks for choosing to leave a comment. Please keep in mind that all the comments are moderated as per our comment policy, and your email will not be published for privacy reasons. Please leave a personal & meaningful conversation.

    Please  login to add a comment

    Other comments...

    No comments yet!
    Be the first to add a comment

    Read more Projects by Jishnu Handique (26)

    Flux Limiters and Interpolation Scheme

    Objective:

      Flux  Limiters:  We can study the shocks and discontinuity that arises in the Engineering problems,particularly Fluid Dynamics problems by applying numerical schemes. It can be said that Low Order Schemes are usually stable but quite dissipative around the points of discontinuity. On the other side, High…

    calendar

    26 Jun 2019 11:08 PM IST

      Read more

      Spectral Radius Analysis

      Objective:

      Given, A=⎡⎢⎣512−39412−7⎤⎥⎦,x=⎡⎢⎣x1x2x3⎤⎥⎦A=[512-39412-7],x=[x1x2x3]  and  B=⎡⎢⎣10−1433⎤⎥⎦B=[10-1433]   by Jacobi method:      x=−D−1.(L+U).xold+D−1.Bx=-D−1.(L+U).xold+D−1.B by Gauss Siedal method:      x=−(D+L)−1.U.xold+(D+L)−1.Bx=-(D+L)−1.U.xold+(D+L)−1.B by…

      calendar

      26 Jun 2019 11:08 PM IST

        Read more

        Simulation of Flow past a Cylinder for various Reynold's Number in SolidWorks

        Objective:

        TAKEN INPUTS: Diameter = 0.04 m Length = 0.1 m Density of Air = 1.225 kg/m3 Dynamic Viscosity = 18.6e-6 Pa.sec at 20 Degree Celsius Reynold No. = 20, 40, 100 We know that, Reynold No. = (Density x Velocity x Diameter)/Dynamic Viscosity By applying above inputs in the Formula, we obtained: Velocity for (Re = 20) is 0.007592…

        calendar

        26 Jun 2019 09:58 PM IST

          Read more

          OpenFoam Simulation of Flow through a Pipe using Axi-symmetric Boundary Condition

          Objective:

            Formulae involved: a) Entry Length of a Pipe for Laminar Flow, L = 0.07*Re*D b) Velocity = (Re*mu)/(rho*Diameter) c) Hagen-Poiseuille\'s Pressure Drop, dP = -(32*mu*u_avg*L)/(D*D) Here, u_avg = u_max/2 d) Hagen-Poiseuille\'s Velocity Distribution, u(r) = -[1/(4*mu)]*(dP/dX)*[(R*R)-(r*r)] Here, r = Radius at which…

          calendar

          26 Jun 2019 09:54 PM IST

            Read more

            Schedule a counselling session

            Please enter your name
            Please enter a valid email
            Please enter a valid number

            Related Courses

            coursecard

            Design loads considered on bridges

            Recently launched

            10 Hours of Content

            coursecard

            Design of Steel Superstructure in Bridges

            Recently launched

            16 Hours of Content

            coursecard

            Design for Manufacturability (DFM)

            Recently launched

            11 Hours of Content

            coursecard

            CATIA for Medical Product Design

            Recently launched

            5 Hours of Content

            coursecardcoursetype

            Accelerated Career Program in Embedded Systems (On-Campus) Courseware Partner: IT-ITes SSC nasscom

            Recently launched

            0 Hours of Content

            Schedule a counselling session

            Please enter your name
            Please enter a valid email
            Please enter a valid number

            logo

            Skill-Lync offers industry relevant advanced engineering courses for engineering students by partnering with industry experts.

            https://d27yxarlh48w6q.cloudfront.net/web/v1/images/facebook.svghttps://d27yxarlh48w6q.cloudfront.net/web/v1/images/insta.svghttps://d27yxarlh48w6q.cloudfront.net/web/v1/images/twitter.svghttps://d27yxarlh48w6q.cloudfront.net/web/v1/images/youtube.svghttps://d27yxarlh48w6q.cloudfront.net/web/v1/images/linkedin.svg

            Our Company

            News & EventsBlogCareersGrievance RedressalSkill-Lync ReviewsTermsPrivacy PolicyBecome an Affiliate
            map
            EpowerX Learning Technologies Pvt Ltd.
            4th Floor, BLOCK-B, Velachery - Tambaram Main Rd, Ram Nagar South, Madipakkam, Chennai, Tamil Nadu 600042.
            mail
            info@skill-lync.com
            mail
            ITgrievance@skill-lync.com

            Top Individual Courses

            Computational Combustion Using Python and CanteraIntroduction to Physical Modeling using SimscapeIntroduction to Structural Analysis using ANSYS WorkbenchIntroduction to Structural Analysis using ANSYS Workbench

            Top PG Programs

            Post Graduate Program in Hybrid Electric Vehicle Design and AnalysisPost Graduate Program in Computational Fluid DynamicsPost Graduate Program in CADPost Graduate Program in Electric Vehicle Design & Development

            Skill-Lync Plus

            Executive Program in Electric Vehicle Embedded SoftwareExecutive Program in Electric Vehicle DesignExecutive Program in Cybersecurity

            Trending Blogs

            Heat Transfer Principles in Energy-Efficient Refrigerators and Air Conditioners Advanced Modeling and Result Visualization in Simscape Exploring Simulink and Library Browser in Simscape Advanced Simulink Tools and Libraries in SimscapeExploring Simulink Basics in Simscape

            © 2025 Skill-Lync Inc. All Rights Reserved.

                        Do You Want To Showcase Your Technical Skills?
                        Sign-Up for our projects.