ENGINEERING MATERIALS

Year	No.	Offer	Mode	Description			Cred. Pts
96	70245 	S1  	D 	ENGINEERING MATERIALS     	1.00

Contents


STAFFING:

Examiner: M. MORGAN

SYNOPSIS:

Materials science and engineering has come into its own as a field of endeavour during the past 25 years. The central theme in this development is the concept that the properties and behaviour of a material are closely related to the internal structure of that material. The properties (which may be regarded as the responses of the material to its immediate environment) are functions of : (i) the kinds of atoms present and the type of bonding among them, and (ii) the geometrical arrangement of large numbers of atoms, microstructure and macrostructure. As a result, in order to modify properties, appropriate changes must be made in the internal structure. Also, if processing or service conditions alter the structure, the characteristics of the material are altered. Over the same period noticeable changes have taken place in the teaching of engineering materials to the engineering student. Previously, elementary courses emphasised the mechanical properties of materials with long dull lists of chemical specifications and descriptions of processing. More recently, elementary courses seek to provide a thorough grasp of the structures encountered in the principal families of materials - metals, ceramics and polymers - and then to show how the properties of important engineering materials depend on these structures. This unit seeks to provide a background knowledge of the more commonly used engineering materials. This will be achieved by promoting an understanding of the interrelation of structure and properties in the principal families of materials and the mechanisms by which the structural changes may be accomplished. Only when the student has obtained a firm grasp of the basic principles underlying the behaviour and properties of materials will the many factors involved in the proper selection of a material and its processing schedule become clear. Units later in the course will cover some aspects of this unit to a greater depth.


OBJECTIVES:

Upon successful completion of this unit, a student should be able to :

  1. Describe the basic atomic structures of metals, ceramics and polymers.
  2. Describe the influence of both atomic structure and microstructure on the mechanical properties of these materials.
  3. Describe and perform tensile hardness and impact testing, and, where necessary, calculate the mechanical properties of engineering materials.
  4. Outline the principal mechanisms by which structural change may be accomplished in engineering materials in order to enhance their mechanical properties.
  5. Apply a knowledge of the metallurgy of the iron carbon system to the solution of practical problems.
  6. Describe and recognise the major forms of corrosion commonly found in engineering materials.
  7. Describe the effect of stress state, temperature and corrosion on the more commonly used engineering materials.
  8. Outline the effect of welding on the properties of a welded component of the commonly used metals in engineering.

TOPICS:

 Description                                                    Weighting(%)
  1. Introduction to Materials Science and Engineering 1.00

  2. Atomic Bonding and Structures of Materials 5.00

  3. Properties and Testing of Materials 10.00

  4. Deformation and Annealing of Metals 6.00

  5. Phase Equilibria in Metal Alloy Systems 10.00

  6. Non Equilibrium Effects in Metal Alloy Systems 5.00

  7. The Metallurgy of Steels 10.00

  8. Non Ferrous Metals and Their Uses 5.00

  9. Welding of Metals 10.00

  10. Polymeric Materials 10.00

  11. Ceramic Materials 10.00

  12. Corrosion of Materials 10.00

  13. Electrical and Magnetic Properties of Materials 8.00


TEXT and MATERIALS to be PURCHASED:

70245 Engineering Materials, Study Books 1 and 2, (1st edition), USQ, 1990.


RECOMMENDED REFERENCE MATERIALS:

Flinn R A and Trojan P K, "Engineering Materials and their
Applications, 4th Edition, Houghton Mifflin, 1990.

John V B, "Introduction to Engineering Materials", 3rd Edition,
MacMillan, 1992.

Thornton P A and Colangelo V J, "Fundamentals of Engineering
Materials", Prentice Hall, 1985.

Askeland D R, "The Science and Engineering of Materials", 3rd Edition,
PWS Publishing Company, 1994.

Van Vlack L H, "Elements of Materials Science and Engineering", 6th
Edition, Addison Wesley, 1989.

Ashby M F and Jones D R H, "Engineering Materials 1", Pergamon Press,
1980.

Ashby M F and Jones D R H, "Engineering Materials 2", Pergamon Press,
1986.


STUDENT WORKLOAD REQUIREMENTS:

	ACTIVITY				HOURS
Lectures                                      	56
Tutorials/Workshops                           	13
Laboratory or Practical Classes               	10
Directed Study                                	28
Private Study                                 	64
Examinations                                  	4

ASSESSMENT DETAILS:

No	*F/S	Marks		Due		Description					Wtg(%)		LBL
1 	S 	300.00  	MID-SEM 	1 HOUR CLOSED BOOK EXAMINATION          	30.00   	N
2 	S 	700.00  	END S1  	3 HOUR CLOSED BOOK EXAMINATION          	70.00   	N

F=Formative, S=Summative

OTHER REQUIREMENTS:

1    Students  must  normally  achieve at least  50%  of  the  maximum
     possible marks in the final examination and at least 50%  of  the
     total possible marks to successfully complete the unit.
2    It  is the policy of the Faculty of Engineering and Surveying NOT
     to  accept  submission  of assignments  by  facsimile  or  email.
     Students  in remote locations who do not have regular  access  to
     postal services may be given special consideration.

This information is accurate as at 02/12/96