GRIFFITH UNIVERSITY

SCHOOL OF SCIENCE

MAIN STUDIES: THIRD YEAR, 1978

SC/826/77

MS(Y3) 348

(SC/606/76

MS(Y3) 272 Revi��()

October, 1977

..

1.

- 2 -

INTRODUCTION

This paper is circulated with the aim of assisting students in their

selection of Third Year Courses. It includes the presently available

data on Lecture Courses and Laboratories for 1978, and cow.plements

earlier papers on Second Year Main Studies.

If yo1.. find, after reading this document, that you require further

information, it is suggested that you see either of the Third Year

Coordinators, Dr. H.P.W. Gottlieb or Professor C.J. Masters (the

latter will be replaced in 1978 by Dr. W.K. Busfielct), who may be

able to assist you with any planning difficulties.

2. MAIN STUDIES PROGF?ANNE

As you will already know, the Main Studies Programme involves 16

Semester Units of work, and a student normally does 8 of these units

in each of the 2nd and 3rd years. with as even a spread as possible

throughout the year (i.e. 2 units per half-semester if possible).

1 successfully completed full Semester Unit of work gains 1 Credit

Point. 16 Credit Points are required for completion of Main Studies.

Since the compulsory Third Year Project plus Litera.ture of Science

course ranks as ·i~ Szi;r:2ster Uni ts~ this normally 1 eaves a total of 6!2

Semester Units to be chcsen by individua1 studentst equivalent to 6\;

full Theory courses plus appropriate Laboratories (see later).

- 3 -

Recal 1 that the 2nd Year course 11 Natural Resources" (0. 5 Credit

Points} was also compulsory. In addition, your Degree programme must

include at least 0.4 Credit Points of 11Mathematics 11, which may be

Mathematics II A or B, Mathematics III A or B, Numerical Analysis

(when available) or Statistics and Experimental Design.

It is also necessary to keep in mind that a necessary requirement

for obtaining a Griffith Science Degree is the completion of a

Concentration Area. This consists of 6 full Theory Courses (or their

equivalent including half courses) chosen from that Concentration Area,

plus, consequently, 3 Laboratory Units (see Section on Laboratories)

which must include the "Compulsory Laboratories" defining the

Concentration Area.

Students must select the equivalent of at least 2 full Theory Courses

within their chosen Concentration Area from the Third Year list.

The attached large Table lists the Lecture courses which t he School

will present in 1978, and t he Concentration Areas 1n which the courses

lie) as we11 as Pri or and Concur rent Assumed CoursRs. (!:or an explanat'ion

of t hese Ass~med Courses. see t he Appendix concernir.g Second Year.)

Conveners ; initia1s ;,. :--r: .;'1 $c i'is ted) in case you reqli.ire more details

of Cours£s; but ~;-~ e f 'itiff:i'ft<3.~~es 0-f ee ch Course are also attached, nnd

should be studied firs t .

Note: The course 11 Numerical Analysis" given in 1977 will not be available

in 1978.

- 4 -

Some Second Year courses will be offered for the first time ir.

1978: Microbiology in First Semester and the Genetics/Microbiology

Laboratory in Second Semester. These will be timetabied for avail-

ability to Third Year students, in 1978 only.

3. THEORY COURSES AND LABORATORIES

Also included in the attached information is a table which l ists

the Laboratories to be mounted in 1978.

One Laboratory-Unit(= 0. 4 Credit Point~ is usua i ly the equivalent

to 2 afternoons a week for a half-semester, i.e. 7 weeks. A half-unit

of Laboratory (i.e. 0.2 Credit Points) is the equivalent of 4 weeks'

work.

Where a Laboratory is longer than~ Lab-Unit, it may be possible

to do prescribed half-Lab-Unit segments, as indicated in the Table.

Most Lecture courses have Laboratory requirements associated

with them, to the extent of \ Laboratory Unit for each full Theory

Course. These Lecture courses are either full Theory Courses (0.8

Credit Points ) or half-Theory Courses (0. 4 Credit Points). (Thus

the ratio is 4:1, Theory:Lab Credit Points.)

Some Lecture Courses iiave, instead, Ess21ys, and Tutorials or

substantial Problem Classes associated with them, rather than Lab-

oratories; these are known as Schedule T Theory Courses and are

either full Schedule T Theory Courses (1.0 Credit Points) or half-

Schedule T Theory Courses (0.5 Credit Points).

- 5 -

Schedul e T Theory Courses :

Ma thematics II A (1) Mathematics II I A (~)

Mathematics II B ( 1) Mathematics nr B ( 1' \ )

Science , Technclogy Numeri ca 1 Analysis ( !2) & the Modern Industria1 State (1) Science, Technology

& Underdevelopment P2)

Science Policy (~)

The total M~in Studies Labora t ory r equi rement in Laboratory Units is then

[7 - ~ x {total of Schedule T Theory Courses included in Degree)],

to be rounded .!:!.E_ to the nearest ~-integer.

Not more than 5 Laboratory Units i.e. 2 Credit Points may be from the 2nd Year Lab Course iist, and at least 1 Laboi~atoi"y Unit {i.e. 0.4 Credit Points) must be from the 3rd Year Laboratory course list.

From your 2nd Year results and planned 3rd Year, you should now be

ab1e to calculate how many 3rd Year Laboratory Units you need to take

to complete your Degree.

4. TI METABLES

Scherr:atic block-timetables are attached. It may not be possible to

cater for every possi b1e choi ce of courses on this basis, but an effort

has been made to t1met able for most reasonable combinations.

5. SECOND YEAR LECTUF.ES

It may be possible for 3rd Year students to take up some existing 2nd

Year subjectsduring their 3rd Year. (The total number of Credit Points

•

- 6 -

from the 2nd Year list of Main Studies included in the Degree may not

exceed 10. Also, a student is not pennitted to attempt more than 10

Semester Units in any one Year, nor more than 5 S.U. in any one

Semester.)

Apart from the new courses mentioned in Section 2, other Second

Year Courses may unavoidably clash with 3rd Year Courses. Tables

giving the latest details of Second Year Courses have been attached

to this paper. Questions concerning them should be directed to the

2nd Year Coordinators, Ors. P.S. Turner and J.I. Samisoni, who have

prepared a "Blue Paper" for Second Year students. (Or. A.J. O'Connor

will replace Dr. P.S. Turner in 1978. )

6. CONCEDED PASSES

Under University regulations, a student may include up to 2

Credit Points at the Conceded Pass level in his degree requirements.

In the School of Science, this may include not more than 0.8 Credit

Points of Laboratories.

'1. HONOURS

Students intending to proceed tc Honours in their 4th Year should

nonnally take the equiva1er.t of three full Theory Courses within the

chosen Concentration Area from the 3rd Year list.

8. COURSES FROM OTHER SCHOOLS

Some courses given by other Griffith Schools have been classified

as School (of Science) Courses and are "essential interchange courses 11

- 7 -

which will be timetab1ed for availability to 3rd Year students. The

Science Third Year List Courses are as follows, for 1978:

School Seraester 1 School Semester 2

None None

Some other courses have been "Approved" to count tm·1ards the

Sctence degree, but may only be available on a restricted basis and

subject to timetabling difficulties. They are, for the Third Year

List, for 1978 (each 1.0 S.U.):

School Semester 1 School Serrester 2

AES Population AES Aquatic Dynamics (£1323)* Ecosystems(El321)*

AES Chemical Ecology of Pollution(El326 ( )

MAS Science, Culture & Society (Al232}

* Pre-requisite - £1226:) E1220 (see Appendix.2nd Year).

For the 11 Approved11 c1ass of courses, in any one year, you may

take no more than 3 Semester Uni ts, and no more than 4 SU in tota 1

during Main Studies .

Since courses in other Schools are exactly 1 Semester Unit of

work load, and may incorporate practicals, etc.~ such courses will

be added to the 'Schedule T Courses' to reduce the required number

of Science Laboratory units according to the formula of Section 3.

Students should contact other Schools for the most recent Course

descriptions and prerequisites.

- 8 -

9. JOINT MT GRAVATT - GRIFFITH COURSE

Students in the joint Griffith Degree/Mt Gravatt Diploma Course will

do 14 Main Studies Griffith Semester Units, normally proceeding as follows

1f they have completed 8 Second Year Griffith Units;

3rd Year, First Semester 3 Griffith Units+ 1 Mt Gravatt Unit ( to be given at Griffith).

3rd Year, Second Semester Mt Gravatt.

4th Year, First Semester Mt Gravatt.

4th Year, Second Semester 3 Griffith Units+ 1 Mt Gravatt Unit (to be given at Griffith).

It may be possible for some joint course students to do the

Literature of Science plus Project, which is not compulsory for these

students.

The Laboratory requirement for joint course students has the same

formula as for ordinary Griffith Students, but will be rounded down to

the nearest \-integer.

Furthermore, to the list of •schedule T Theory Courses' for joint

course students are added:

Project plus Literature of Science (1~)

Mathematical Topics(~) (Maths Teachers) (2nd Year List).

Further details of requirements for teaching certain subjects,

etc.) may be obtained from Dr. D.E. Clegg, of the Mt Gravatt/Griffith

Coordinating Corrmittee. You should first refer to Appendix C.

- 9 -

10. GRADES

From 1978, the following grades may be awarded for assessments:

HD= High Distinction, D = Distinction, C = Credit, P = Pass,

PC= Conceded Pass, F = Fail.

"TABLE J;

THIRD YEAR COURSES 1978

-0 ("'I r,

~ ~ 0

PRIOR ::, ::, Q. < ... ~ ro

THEORY COURSE VI C"T ::, AS5UM£D 0 ...

COURSE

Advanced Organic Chemistry 0.8 ROG Org. Chem.

Biochemistry of Growth 0.8 CJM Ce 11. Met .~Gen. Bi ochem and differentiation

81ological Molecules 0.8 PJR Org.Chem. ;Gen.Biochem.

Electrochem1stry 0.4 RStCS Fl. & Solu.

El ectromagnetic Waves 0.8 JFO EM & 0 A & B and Plasmas ~ MII A & B;

Electronic Structure 0.4 JFO QM II ~ M II A; of Solids Stat.Mech; Sol .State

Inorganic & Organometallic 0.8 DEC lnorg. Cher.,. Chemistry

Mathematics I II A 0.5 AJO'C M II A

Mathematics III 8 1.0 AJO' C M II A & B

Molecular Genetics 0.8 PJR Genetics; Genera 1 Biochem.

Molecular Quantum 0.4 DMD At . & }Juel. P. Mechanics "=;>QM I: 9 M I I A

Photo• and Radiation 0.4 AHIK KMR (\) Chemistry

Polymer & Colloid Science 0.8 WKB

Properties of Solids 0.4 PST Stat.Mech.; Sol .State

Quantum Mechanics & 0.4 MCS At. & Nucl. ·~QM II Quantum Optics ~ M II A;

EM & 0 A

Relativity & Elementary 0. 4 DTP At. & Nucl -~ QM II Particles ::;> M I I A;

EM & 0 A

Science Policy 0.5 AM

Science, Technology & 0.5 OFB Underdevelopment

Theory of Spectroscopy 0.4 AEWK At. & Nucl ... QM II

EM & 0 A .::¢, M II A;

Thennodynam1 cs 0.4 wra Stat. Mech.

PROJECT and Literature 1. 5 of Sclence

CONCURRENT

ASSUl~ED

COURSE

M 1II B

Prop. of Sol

M Ill A

QM & QO MIII A1

-0 ..., ::r )< '< -0 "' ro -.... '"'-· "' 1,1 ::, .... ~

./

J

J

J

/

j

SC/840/77

MS(Y3) 353 (SC/520176 Revised}

CONCENTRATION AREA DEFHHNG COURSE -0 ('") n r, co a, ::r :::r ::r ::r-- -· '< ro ro 11> 0 0

~-~1 3. 3- '"' ~-o ::r () () VI VI IO "' "',,, ... <+- §!. -...

~~ '< "' ... ~

/ /

J /

I / j /

I

J

J

J /

J /

J /

/

J

I

/ v C O M P U L S O R Y

I

- 2 -

TABLE 2 THIRD YEAR LABORATORIES 1978

Laboratory Convenor Labora tory Poss ible 2nd Year Lab. Pre -requi s i tes Unit Subunits

Adv. Electronics (with Lectures) SM l ~ Electronics Adv. Biochemist ry I & I I FMC, CAM 1 + 1 la, 1. v, Bi ochemi stry Adv. Chem1cal Physics AEWK 1 \ Chem. Phys . Adv. Chemi s try GAH 2 J1, l,ll, Org. Chem. or Inorg. Chem. Adv. Pltys i cs MCS 1 ~ Physics Quanti tative Anal1sis DEC 1 ~

with Lectures)

Note: 1 Laboratory Uni t constitutes 7 weeks at 2 afternoons per week, or equi val ent , and equals 0.4 S.U.

TABLE 3 THIRD YEAR LABORATORIES DEFINING CONCE~;TRATION /l.REAS 1978

Experimental Phys 1cs Chemical Physics Chemistry Biological Chemistry Biochemistry

Adv. Physics (1) Adv . Chem. Phys . (~) Adv. Chem. (1) Adv . Biochem. (1 ) Adv. Biochem. ( 1) or or

Quant. An. (l} Adv. Cheri. (1)

TABLE 4 THIRD YEAR TIM ETABLE 1978

Semester 1 Semester 2

Ful l Theory Cours es Adv. Organic Chemistry (0.8) Molecular Genetics (0.8) Biol ogical Molecules (0 .8) Inorgan ic and Organometa llic (0.8) Maths III B ( 1.0) Biochemistry of G. and 0. {0.8) Polymers and Colloids (0 .8) E.M. ~/a ves and Plasmas (O.B)

Phil . & Ed. Iss. (1.0) Soci ol . Found. of Ed. (1. 0) (B.Sc./D1p. Ed.) (B.Sc./Dip . Ed.)

(0.4} Science Policy (0 .5) ~ Half Theory Courses Mal. Q.M. ~ 4

QMQO (0 .4} Thermodynamics*(0.4) ' I

Maths I II A (0 .5) Elect. St. Sol . (0 .4) I

' Electrochemistry (0.4) Photo/Rad Chem.(0.4) ' I Prop. Solids (0.4) Rel. Elem. Pa rt. (0.4) ' ' Science Undev. (0.5) Th. Spect. (0 .4) ' Project (1.5 )

I I

Math Topics (0.5) (2nd Yr. List) I I

{B. Sc . /Dfp. Ed. ) I I I

Labs Adv . Chemistry (0.8) Adv. Physi cs (0 .4) I

I Adv. Electronics (0.4) Quan an ( 0. 4) * I

: Adv. Chem. Phys. (0.4) I I , Adv . Biochem. I (0. 4} Adv. Biochem. I I {O .4) l

I I I

* Ava i lable to Year II students.

- 3 -

3RD YEAR COURSES

APPENDIX A - COURSE OUTLINES, 1978.

FULL THEORY COURSES

Advanced Organic Chemistry

The course includes advanced stereochemi stry, organic reaction mechani srr,s, naturally occurring organic compounds and modern synthetic methods.

Biochemistry of Growth and Differentiation

The course will include molecular descriptions of the cellular and subcellular processes in animal and plant tissues. Central emphasis 1~ill be placed on the mechanisrnsof growth, differentiation and speciation, and on the relationships between normal and disease processes.

Biological Molecules

The determination of size and shape characteristics of biological macromolecules and the advanced biochemistry of a representative selection of these compounds - specific proteins, nucleic acids, nucleo proteins, membranes and polysaccharides 1n biological systems. The chemi5try, biogenesis and experimental determination of honnones is also included.

Electromagnetic Waves and Plasmas

The course will further develop the classical theory of electrol!lagnetism which was introduced in the second year Electromagnetism and Optics course. An introduction to the basic co1·cepts of plasma physics will be given.

Inorganic and Organometallic Chemistry

The course will cover selected top1cs in physical ~ethods, chemistry of the second and tnird row transition elements, bioinorganic chemistry and organometallic c.~er.iistry of main group and transition elements.

Mathematics III B

This course in complex analysis develops an understanding of the concept of analyticity and its uses in power series development and contour integration. Green's function for ordinary and partial differential equations and methods for their construction are included.

Polymer and Colloid Science

The course includes the fundamental physical and chemical theory of cJlloidal behaviour and a study of the inter-relations between : polymerisation processes, polymer structure and polymer properties.

HALF THEORY COURSES

Electrochemistry

The theory of reversible and irreversible electrode processes including the kinetics of electrode processes and the various transfer control mechanisms. Examples of application in polarography. fuel cells and corrosion will be discussed.

Electronic Structure of Solids

A detailed investigation of the behaviour of electrons in periodic solids. Drude model of metallic conduct-ivity; description of metals, insulators and semiconductors; Bloch band tlleory in the "tight binding'', "nearly-free-electron" and related models; transport theory and scattering.

... - 4 -

Mathematics III A

The course has two sections. Tensor analysis includes the recogn i t ion of standard tensors occuring i n electro-magnetism, relativity and classi cal mechanics and their relation to rotations in Eucl idean spaces. Group theory develops an understanding of symmetry and representati on theory, and consi ders fini te and con ti nuous groups. The application of group theory to quantum mechani cs is discussed.

Molecular Genetics

Chromosomal organization; replication , repair and recomb ination of bacterial and viral chromosomes; tran-scription, polymerase activity and regulation, indirection and repression; gene expressi on, translation regulation and mechani sm; viral and bacterial genetics; eukaryotic geneti cs, extranuclear genes, regulation of gene expression.

Molecular Quantum Mechanics

The course reviews the methods of approximation, incl uding perturbation theory and the varia tion princ iple, necessary for the treatment of molecular systems. Emphasis will be on studies of molecular energetics and molecular structure especially by valence bond and molecular orbital methods. The crystal field theory of transition metal complexes, intermolecular forces between molecules and the use of group theory in molecular quant1J11 mechanics wil l be discussed.

Photo- and Radiation Chemistry

The course deals with the interaction of matter with electromagnetic radiation. The emphasis is on under-standing the basis for the physical and chemical changes which are induced by li ght and by ionizing radiation. Absorption, emission, energy transfer and radiationless relaxation are discussed. Atmospheric and biological photochemistry, radiation chemistry of gases, l iquids and polymers are reviewed.

Properties of Solids

Thermal proper ties of crystall ine solids, including lattice vibrations and elast ic waves. Introduction to properties of real crystals containing lattice defects (point defects and dislocation). Magnetic properties of solids (para-, dia- and ferromagnetic; antiferromagnetism).

Quantum Mechanics and Quantum Optics

The course develops the fundamentals of quantum mechanics and quantum optics including diagonalizat1on to obtain eigenvalues and ei genfunctions , tiine-independent perturbat ion theory, t ime-dependent perturba tion theory, the theory of stmple opt ical processes and interaction of radiation field with atoms.

Relativity and Elementa ry Partfcles

(1) A space-time approach to four-dimensi onal world is developed. Applications include elementary four-dimensional electrodynamics.

(2) The properties, behaviour and classification of elementary particles , including conservat ion laws, interactions,strangeness, spin, and parity are studied.

Science Pol 1cy

Th1 s course is designed to give students a grounding in the princi p 1 es of science po 1 icy ar.d to prov1 de a comparative framework of study of the ways in ~,hich various governments have attempted to use science and technology in the achievement of national goal s.

Science, Technology and Underdevelopment

The ai~ of this course i s to familiarise students with some of the issues involved in the subject of wor ld proverty and, in parti cular, how this rel ates to scientific advance and technological innovation in the third world countries. The course covers such topics as the soc ial marginality of science in underdeveloped countries, technological dependence, appropriate technology and will consider case-studies in agr iculture, industry, energy and health care.

- 5 -

Theory of Spectroscopy

The course develops the theory of mol ecular spectroscopy and of magnetic resonance spect roscopy. The Born-Oppenheimer approximation fo rms the basis fo r the development of t he t heory of rotational , vi brational and electronic spectra of diatomi c molecules. Perturbations, pred1ssociation, line broadeni ng and mul t iphoton interact ions are studi ed. The spin Ham1l tonian, angul ar A10ment urn and ra ising and lower ing operators are introduced. Specific cases of spin\ and spi n 3/2 magnetic resonance spect ra, the magnetic resonance spectrum of the hydrogen atom and spin relaxation are discussed.

Thermodynarni cs

The course develops t he mathematical rel ationships of thermodynamics inc luding use of therma l and spectro-scopic data , the third law of thennodynamics, equil ibrium in chemical reactions, phase transitions and the application of thermodynami cs in real syst ems .

~:

"Int roducti on to the Literature of Science" component

This course develops a basic understandi ng of the s truc ture , organisation and problems associated wi t h scient i fic l iterature and its di sseminati on to the scienti f i c communi ty. Discussion of t he pri mary, secondary and tertiary literature sources in the physical and life sciences is included .

LABORATORY COURSES

The followi ng labo ratori es will be gi ven in third year in 19 78 .

Advanced Biochemistry (2 Lab . Units) Advanced Chemical Physics Advanced Chemistry (2 Lab. Units) Advanced El ectronics (Fi rst ~ Lab . Unit Digi tal; Second~ Angal ogue) Advanced Phys ics Quanti tative Analys i s

- 6 -

APPENDIX B - SECOND YEAR COURSE DETAILS, 1978.

The fol-lowing pages summarize relevant material from the revised Second Year "Blue Paper" for 1978. They are included here to show you what has been decided for second year in 1978, in case you wan t to include some Second Year Subjects duri ng your 3rd year . The changes against 1977 are itemi zed, and are foll o~ied by Tables of the Second Year (1978) Courses available, Timetables, Assumed Courses and Defini ng Courses for Concentration Areas.

Introduction Some changes have been proposed in the courses to be offered to students entering Main Studies in Science in 1978, both in schedul i ng of courses and in deta i ls of content. This paper out l ines t he major changes proposed.

New Courses In 1978, Semester 1, the Ful l Theory Course Mi crobiology (0.8 S.U.) wil l be offered for t he f i rst t ime , as will be the Laboratory Unit Microbiology/Genetics (0.4 S.U.} in Semester 2.

Major Changes: Timetabl es.

The Full Theory Courses STMI S and KMR have been moved into Second Semester.

Half-Units will be stretched across a Semester, as ind icated. Some courses wi 11 be "wedge-shaped" as shown.

SECOND YEAR COURSE SCHEDULE, 1978.

Semester 1 Semester 2

Full Theory Units Microbiology 8 (0.8) Cellular Metabolism (0.8) Maths II A (1.0) Genetics (0.8) Maths II 8 (1.0) sn,11 S ( 1. 0) Organic Chemistry (0 .8) KMR (0. 8) General Biochemistry (0.8} Ecosystems and Comm. Ecology (AES) (1.0) Animal Physiology (0.8) Environmental Biology (AES) ( l. 0) Computer Techniques {AES) (1.0)

I Half Theory Units Statistical Mechanics (0 .4) ~ (KMR (I,)) ----L-

Quantum Mechanics (0.4) E.M. & 0. (A) (0 .4) ~ Basic Spectroscopy (0.4) E.M. & 0. (B) (0.4}

Inorganic Chemi stry (0.4) Stats. & Exp. Des. (0. 4) At. & Nucl. Phys. (0. 4) Fluids and Solutions (0 .4) Solid State (0.4) Natura T Resources (O .S )(Compul sory)

' I Labs Organic (0 .4} I Inorganic (0.4) Chem. Phys. (0 .4) I Phys ics (0. 4} I I

I Animal Physio. (0.4) Genetics/Micro- I l.liochemi stry (0.4) I bi ol !:l (D.4) I

. Electro~ics (0.4) . I ~ --.. I

!

6 Available to Year III students (1978 only).

- 7 -

COURSES IN OTHER SCHOOLS "SCHOOL COURSES" (Essential Interchanges) (1.0 S.U.)*

* Timetabled for Second Year students.

School Semester 1 School Semester 2

AES Environmental Biology (El220) AES Ecosystem & Community Ecology (EI226) -

AES Computing Techniques (E1245) AES Numerical Methods I*,** (E1240) ( )

* Subject to timetabling. *.,, Only one of Num.Meth. I and Num.An. may count to~1ards the Degree. t Prerequisite: E 1220.

Other "Approved" Courses (LO S.U.)

School Semester l School Semester 2

AES Environmental Chemistry (E1228) AES Environmental Physics (El221) AES Climatology & Hydrology (El223) AES Agriwltural Ecosystems (E1225)'

Second Year "Assumed" Courses

In general, all courses assumeonly knowledge gained in the Foundation Year courses unless otherwise stipulated.

Courses which are stated as Prior Assumed Course or Concurrent Assumed Course of a particular course are not compulsory, but the teaching team will assume that students have taken - or are currently taking - the requfsite course. (Specifically, this means that it is not necessary to pass a particular course in order to maintain enrolment in a related subsequent course.)

The current statement of Assumed Courses for second year courses in 1978 is listed in the Table below.

TABLE l' Second Year Assumed Courses

COURSE CONCURRENT ASSUMED COURSE

Mathematics II 8 Mathematics II A

Quantum Mechanics Mathematics II A

Electroma{netism Mathematics II A & Optics A)

Electromagnetism Mathematics II A, & Optfcs (a) Ma the;na tics I I B,

EM & 0 (A)

Cellular Metabolism General Biochemistry

Atomic & Nuclear Mathematics II A, Physics Quantum Mechanics

- 8 - -C•

Second Year Defining Courses for Concentration Areas

The courses whfch are now taken to define the available Main Studies concentration areas are listed in Table 2'.

TABLE 2' DEFINING SECONO YEAR COURSES FOR CONCENTRATION AREAS

concentration Area Second Year Courses, 1978

Experimental Physics Statist1ca 1 Mechanics (};) Electromagnetism & Optics B ( I,)

Quantum Mechanics(\) Fluids and Solutions (!,) Atomic & Nuclear Physics (\) The Solid State Ua) Electromagnetism & Optics A(\) _Lab: Physics

Chemical Physics Statistical Mechanics (\) The Solid State (\) Quantum Mechanics (\) Atomic & Nuclear Physics (!,)

Inorganic Chemistry(\) Electromagnetism & Optics A (!2)

Kinetics & Mechanisms of Electromagnetism & Optics B ( !,) Reactions (1) Lab: Chemical Physics Fluids & Solutions (\)

Chemistry Statistical Mechanics (~) Kinetics & Mechanisms of Quantum Mechanics(~) Reactions ( 1)

Atomic & Nuclear Physics (\) Fluids and Solutions(\)

Inorganic Chemistry ( \) Lab: Organic Chemistry QC

Basic Spectroscopy(\) Inorganic Chemistry

Organic Chemistry (1)

Biological Chemistry Inorganic Chemistry (I,) General Biochemistry (1) Basic Spectroscopy(\) Cellular Metabolism (1) Organic Chemistry (1) Fluids and Solutions (\) Kinetics and Mechanisms of Lab: Organic Chemistry and Reactions (1) Biochemistry

Biochemistry General Biochemistry (1) Lab: - Biochemistry Cellular Metabolism (1) Genetics (1)

- 9 -

APPENDIX C

The Mt. Gravatt C.A.E. - Griffith University Joint Progranme Leading to B.Sc.-Dip. Ed.

Students from the School of Science undertaking the Joint B.Sc.-Cip. Ed. progranrne are required to nominate ~school subject areas 1n which they intend to teach at Senior level.

The requisites for potiential teachers of biology, chemistry, physics and mathematics to Senior level are listed below.

Teaching Subject

Biology

Chemistry

Physics

Requisite GU Science Courses

General Biochemistry (1) Animal Physiology (1) Genetics (1) Environmental Biology (1) (AES) Ecosystems and Co11TT1unity Ecology (1) (AES) Animal Physiology Laboratory

Organic Chemistry (1) Inorganic Chemistry(\) Kinetics and Mechanisms of Reactions (half) (\) Fluids and Solutions(\)

and the equivalent of one full course chosen from Statistical Mechanics (\) Quantum Mechanics (\) Advanced Organic Chemistry (1) Electrochemistry (~) Polymer and Colloid Science (1) Thermodynamics ( \)

and two of the following laboratory courses Organic Chemistry Laboratory [norganic Chemistry laboratory Quantitative Analysis

Quantum Mechanics(\) Statistical Mechanics (\) Atomic and Nuclear Physics (\) Electromagnetism and Optics A(~)

and the equivalent of one full course chosen from Quantum Mechanics & Quantum Optics (\) Relativity and Elementary Particles (\) Electromagnetic Waves and Plasmas (1) Electronic Str~cture of Solids (~) Properties of Solids (~) Theory of Spectroscopy(\) The Solid State(~)

plus Electronics Laboratory and one of

Physics laboratory Advanced Physics laboratory Advanced Electronics laboratory

Mathematics

- 10 -

*Mathematics II A (1) *Ma the mat 1ca 1 Topi cs (!2)

Statistics and Experimental Design (\) and one of the following courses:

Mathematics III A(\) Mathematics III B (1) Numerical Analysis(\)

* These must be completed before the end of the fifth semester of the degree course.

For further information, see Dr. O.E. Clegg.

**********

- 11 -

COURSE CODES - SCHOOL OF SCIENCE

COURSE

First Year S1101 Foundations of Science

Sll02

Sl103

Science, Technology and Society

Mathematics

Second Year List

S1211 Mathematics II A

S1212 Mathematics II 8

S1213 Statistics and Experimental Oesign

S1214 Mathematical Topics (B.Sc./Dip.Ed.,Y3)

S1221 Electromagnetism and Optics A

S1222 Electromagnetism and Optics B

S1223 Statistical Mechanics

S1224 Quantum Mechanics

S1225 The Solid State

S1226 Atomic and Nuclear Physics

S1231 Organic Chemistry

S 1232 K1neti cs and Mechanisms of Reactions

S1233 Kinetics and Mechanisms of Reactions (half)

S 1234 Bask Spectroscopy

S1235 Inorganic Chemistry

S1236 Fluids and Solutions

S1241 Cellular Metabolism

S1243 General Biochemistry

S1251 Animal Physiology

S1252 Genetics

S1253 Microbiology

S1261 Science, Technology and the Modern Industrial State

S1262 Natural Resources

SI271

S1272

Sl273

S1274

S1275

S1276

S1277

S1278

Organic Chemistry Laboratory

Electronics Laboratory

Inorganic Chemistry Laboratory

Physics Laboratory

Biochemistry Laboratory

Chemical Physics Laboratory

Animal Physiology Laboratory

Microb1ology/Genet1cs Laboratory

CODE

Third Year list S1311 Mathematics III A

Sl312

S1313

Mathematics II I B

Numerical Analysis (Not 1978)

S1321 Electromagnetic Waves and Plasmas

S1322

Sl323

S1324

S1325

S1326

S1331

S1332

S1333

Sl334

Sl335

51336

51337

S1338

S1341

S1342

S1351

S1361

S1362

51371

S1372

S1373

S1374

$1375

S1376

Electronic Structure of Solids

Properties of Solids

Qua11turn Mechanics and Quantum Optics

Relativity and Elementary Particles

Theory of Spectroscopy

Polymer and Colloid Science

Electrochemistry

Inorganic and -Organometallic Chemistry

Molecular Quantum Mechanics

Advanced Organic Chemistry

Photo- and Radiation Chemistry

Tutorial Teaching of Basic Thermodynamics (1977 only)

Thermodynamics

Biochemistry of Growth and Differentiation

Biological Molecules

Molecular Genetics

Science, Technology and Underdevelopment

Science Policy

Advanced Electronics Laboratory

Advanced Biochemistry Laboratory

Advanced Chemical Physics Laboratory

Advanced Chemistry Laboratory

Advanced Physics Laboratory

Quantitative Analys1s Laboratory

S1381 School Project & literature of Science