Eu Thermalhydraulics 3. MANUEN BNE MEP - 4PUNTHE3

Informations générales

  • Number of hours

    • Lectures 28.0
    • Projects 0
    • Tutorials 16.0
    • Internship 0
    • Laboratory works 0

    ECTS

    ECTS 4.0

Goal(s)

  • Radiative heat transfers : 8h CM + 8h TD
    This course introduces the fundamentals of thermal radiation heat transfer. The following topics are covered: basic concepts and quantities related to radiation transfer, principles governing the radiation exchange between surfaces and a brief introduction to the resolution methods for radiation transport. This course in taught in English.
  • Single phase thermal hydraulics : 12h CM + 6h TD
    This course introduces the fundamentals of convective heat transfer.
    The following topics are covered: equations for heat transfer by a fluid in laminar flow, associated quantities and the main dimensionless numbers.
  • Heat exchangers : 6h CM + 4h TD
    Introduction to the different heat exchanger technologies.
    Heat transfer in a heat exchanger.
    Heat exchanger design: global heat transfer coefficient and its determination.
Contact Giovanni GHIGLIOTTI, Pierre Antoine BONNEFONT

Content(s)

  • Radiative heat transfers : 8h CM + 8h TD
    Chapter 1 - Radiation Transfer: Processes and Properties
    Fundamental Concepts: Spectral Intensity, Emissive Power, Irradiation Power and Radiosity. Blackbody Radiation, Planck distribution and Stefan-Boltzmann law. Surface Absorption, Reflection and Transmission. Opaque versus transparent media. Kirchhoff’s Law. The Gray Surface.

Chapter 2 – Radiation Exchange Between Surfaces
View Factor integral. View Factor Relations. View factors properties. Blackbody Radiation Exchange. Radiation exchange between diffuse, gray and opaque surfaces in an enclosure (N-Surfaces)

Chapter 3 - Resolution Methods for Radiation Transport
Transfer in Participating Media. Absorbing, Emitting, Non-scattering Medium. Absorbing, Emitting and Scattering Medium. Radiative Transfer Equation. Solution of the Transfer Equation. Two-Flux Model.

  • Single phase thermal hydraulics : 12h CM + 6h TD
    Global thermal energy balance and local temperature and velocity field equations.
    Heat transfer close to a wall.
    Heat transfer in laminar flow.
    Thermal boundary layers.
    Notions of natural convection.
  • Heat exchangers : 6h CM + 4h TD
    Plate heat exchangers, tubular heat exchangers, other technologies.
    Heat exchanger parameters (temperature, flow rate, heat transfer) and heat transfer between the two fluids, overall heat transfer coefficient.
    Exchanger design: methods for determining the overall coefficient.


Prerequisites
  • Radiative heat transfers
    • Fundamental of heat transfer: conduction and convection
    • Linear algebra
    • Vector analysis
    • Advanced calculus, including: Gauss’s and Stokes’s theorems, Partial differential equations (PDEs), Multivariable integration and differentiation and Complex variables.
  • Single phase thermal hydraulics
  • Heat exchangers

Test

Semester 8 - The exam is given in english only 

Written exam (3 hours). Three handwritten A4 double-sided sheets allowed. Calculator required. The same conditions apply for the second session.



Additional Information

This course brings 2.5 ECTS to students in Engineer APPRENTISSAGE MEP 2Y

Semester 8 - This course is given in english only EN
Course list
Curriculum->Internationals Cursus->Semester 8
Curriculum->MEP Learning->Semester 8

Bibliography

  • Radiative heat transfers
    [1] “Fundamentals of Heat and Mass Transfer”, F. P. Incropera (Auteur), D. P. DeWitt, T. L. Bergman and A.S. Lavine, John Wiley & Sons, 2006.
    [2] “Thermal Radiative Transfer and Properties”, M.Q. Brewster, John Wiley & Sons, 1992.?
  • Single phase thermal hydraulics
    [1] “Fundamentals of Heat and Mass Transfer”, F. P. Incropera (Auteur), D. P. DeWitt, T. L. Bergman and A.S. Lavine, John Wiley & Sons, 2006.
    [3] "Fundamentals of Thermal-fluid sciences", Y. A. Cengel, J. M. Cimbala, R. H. Turner, Mc Graw Hill, 2016.
  • Heat exchangers
    [3] "Fundamentals of Thermal-fluid sciences", Y. A. Cengel, J. M. Cimbala, R. H. Turner, Mc Graw Hill, 2016.