Coursework

1 - Report - 50

Final Exam

2 - Written exam - 50

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<ul><li>Basics of conduction, convection and radiation heat transfer </li></ul>
<ul><li>One dimensional steady-state conduction </li></ul>
<ul><li>Network analysis of heat transfer </li></ul>
<ul><li>Transient heat transfer </li></ul>
<ul><li>Introduction to convection, relations for external and internal flows </li></ul>
<ul><li>Radiation heat transfer </li></ul>
<ul><li>Derivation of the differential equations governing the transport of mass, momentum and energy </li></ul>
<ul><li>The boundary layer theory for incompressible flows over a flat plate </li></ul>
<ul><li>The integral formulation of boundary layers </li></ul>
<ul><li>Potential flows: incompressible and compressible cases </li></ul>
<ul><li>One dimensional compressible flows  </li></ul>
<ul><li>Brief introduction to turbulence and computational fluid dynamics </li></ul>

Feedback is provided in a number of ways throughout your module. This includes feedback you receive during teaching from both peers and lecturers and that provided for formative assessment. Following an assessment, you will be given your marks and feedback in line with the assessment regulations and policy. More information on the timing and type of feedback that will be provided for each assessment will be available from the module leader. <a href='https://www.citystgeorges.ac.uk/about/governance/policies/student-policies-and-regulations'>https://www.citystgeorges.ac.uk/about/governance/policies/student-policies-and-regulations</a>

This module will support the development of all the graduate attributes. Your module leader will provide you with information about how your learning, teaching and assessment activities support your development of these attributes. The graduate attributes are: - Always learning - Engaged in the world - Technical and digital - Connected Professional - Creating Impact

In-Person - 

Self-directed - 

Computational Fluid Dynamics: The Basics with Applications

Numerical Computation of Internal and External Flows

Introductory Transport Phenomena

Heat Transfer

Fundamentals of Heat and Mass Transfer

EG3202 - Heat and Mass Transfer

EG3202-PRD1-PER-ALV1

A combination of lectures, tutorials, coursework and self-study. Lectures are used as a means of covering the essential principles and analysis techniques in sufficient detail to allow you to achieve the Knowledge and Understanding learning outcomes for this module at a basic level. Transferable Skills and Values and Attitudes are acquired through timely participation in the learning activities, e.g., lab exercises, in class problem solving and in class test. 
In addition to the taught elements of the module there will be the need for private study. This time will be spent working on background reading, revision of notes, work on tutorial problems and coursework. Key learning and teaching resources will be put on the module website on the online learning environment “Moodle”. The module website also contains a “Grades” application where you can view your coursework marks.

Heat and Mass Transfer

Analyse the ilrotationality concept and explain how to derive and solve the potential equations (AHEP4 C1, C3/M3, C4). 

Knowledge

Illustrate the fundamental processes associated with mass transfer and the modifications required in the governing equations to describe multiphase flows (AHEP4 C1, C3/M3, C4). 

Employ the boundary layer equations to evaluate integral coefficients in both velocity and thermal boundary layers (AHEP4 C1, C3/M3). 

Discover the physical phenomena that all the terms in the governing equation of fluid mechanics represent (AHEP4 C1, C3/M3, C4).  

Formulate problem solving strategies and choose analysis techniques for a variety of mass, momentum and heat transfer conditions (AHEP4 C2, C3/M3, C4). 

Skills

Analyse the problem of turbulence modelling, the concept of eddy viscosity and the most common turbulence models used in CFD (AHEP4 C1, C2, C3/M3, C4, C5). 

Develop suitable algorithms for the solution of heat and mass transfer problems (AHEP4 C1, C4). 

Calculate local temperature and rate of heat transfer from rods, plates and fins (AHEP4 C1, C3/M3).  

Develop the ability to carry out a comparative analysis on the relative importance of the terms appearing in the set of the governing equations (AHEP4 C2, C3/M3). 

Relate the importance of different physical phenomena to select the most appropriate model and/or methodology for a given level of accuracy in solving a fluid- dynamic related engineering problem.  (AHEP4 C1, C2, C3/M3). 

Analyse and solve a radiation network for simple cases of radiation heat transfer (AHEP4 C1, C3/M3). 

Use analytical, numerical and experimental techniques for problem solving (AHEP4 C3/M3, C4, C12/M12). 

Determine heat transfer coefficient for basic shapes such as flat plates, cylinders and spheres (AHEP4 C1, C3/M3). 

Apply mathematical methods to solve engineering problems and to apply this skill to heat and mass transfer (AHEP4 C4, C5). 

Using one dimensional problems, classify the different behaviours found in subsonic, sonic and supersonic flows, including the appearance of shock waves (AHEP4 C1, C2, C5). 

Perform analysis and apply knowledge and understanding of mass, momentum and heat transfer in designing with confidence and contributing to the success of an engineering project. (AHEP4 C5, C16, C17). 