Associate Professor Dunkin, Mr Nevi11, Mr Bamford and others
A course of about 100 lectures, with practical work and discussion sessions.
SYLLABUS
1. TunneIling and mine development.
2. Stoping: deep level mining.
3. Underground mining of bedded deposits.
4. Open pit and alluvial mining methods.
5. Rock mechanics and applications to open cut and underground mining.
6. Petroleum exploration and production.
7. Gases and dust in тiпе atmospheres.
8. Mine ventilation and drainage.
9. Mining and the environment.
10. Mine examination and valuation.
11. Other topics may be arranged.
PRACTICAL WORK About 3 hours per week.
Candidates may be required to visit mines and other places associated with mining at times to be arranged during the year.
DISCUSSION SESSIONS
About 24 hours will be devoted to group study of selected mining topics. In addition students will be expected to participate In about 12 sessions, at which special topics, Including research topics, will be discussed. At some of these students will be expected to Introduce the topic for discussion.
BOОKS
Recommended for preliminary reading:
Price N J Fault and Joint Development in Brittle and Semi-brittle Rock, Pergamon
Eighth Commonwealth Mining and Metallurgical Congress 1965 Publica- tions Vol 3 The Australian Mining, Metallurgical and Miпегаl Industry Coghill 1 Australia's Mineral Wealth, Sorrett 1971
Prescribed textbooks:
Roberts A ed Mine Ventilation, Cleaver-Hume Press Recommended for reference:
Peele R Mining Engineer's Handbook, 3rd ed Wiley Quality of Mine Air, Transvaal Chamber of Mines
Coates D F Rock Mechanics Principles, Canadian Mines Branch Mono- graph 874
Woodruff S D Methods of Working Coal afd Metal Mines, Vils I I1 Ill Pergamon
Mining Engineers' Handbook, AIME 1972 A list of other references will be supplied.
Reference should also be made to the Journals of Mining and Metal- lurgical Societies In Australia, England, U.S.A., Canada and South Africa, and also to Mining Periodicals published in these countries.
152
EXAMINATION
Three 3-hour written papers. Additional tests may be set throughout the year.
Discussion sessions and practical work will be assessed as part of the annual examination.
446-404. MINING DESIGN Mr Nevill
A course of about four hours per week throughout the year, Involving computations, study of mine plans, design and layout of workings and plant, discussions of practice.
SYLLABUS
The layout of mine workings In relation to the strength of rock, the shape, slze and grade of orebody. The basis of selection and design of electrical, mechanical and structural equipment for mines. Materials handling.
PRACTICAL WORK
Calculations, designs and drawings with specifications and estimates, are to be completed by the student and submitted for examination at such times during the year as may be notified.
BOOKS
Recommended for reference:
Broughton H H Electric Winders, Benn Tillson B F Mine Plant, AIME
A list of other references will be supplied.
EXAMINATION
There is no formal examination. Candidates are judged on the work presented during the course.
619-001. OPERATIONAL RESEARCH SYLLABUS
Four units details of which are given below.
Units may be taken individually by students not wishing to complete the whole course.
619-221 Statistics Forecasting and Inventory Control.
12 lectures, 12 hours practical work.
SYLLABUS. Mathematical and statistical models of operational pheno- mena. Optimization. Mathematical aids to forecasting—simple trend curves and methods of fitting them, model selection, seasonal vari- ation, forecasting of matrices. Stock control.
619-222 Statistics Queueing Theory.
12 lectures, 12 hours practical work.
SYLLABUS. Arrival patterns, service mechanism. Simple queues with random arrivals, many server queues, series of queues. Waiting-time and busy period distributions. Random walks. Equilibrium behaviour.
619-223 Statistics Linear Programming.
12 lectures, 12 hours practical work.
SYLLABUS. The simplex method, duality theory and special topics such as the transportation problem and network flow.
619-224 Statistics Mathematical Programming 12 lectures, 12 hours tutorial and practical work.
153
SYLLABUS. A selection from the following topics: critical path analysis, parametric linear programming, Integer programming, dynamic program- ming, quadratic progammlng, non-linear programming, game theory, stochastic linear programming.
BOOKS
Prescribed textbooks:
Ackoff R L & Sasieni M W Fundamentals of Operations Research, Wiley or Wagner H M Principles of Operations Research, Prentice-Hall and Brown R C Smoothing Forecasting and Prediction of Discrete Time
Series, Prentice-Hall Recommended for reference:
A list of books recommended for reference and/or purchase will be provided at the first lecture. Students may also consult the lecturers about textbooks.
EXAMINATION
Unit examinations will be held at times provided during the year.
451-302. PROTOGRAMHE7RY PART 1
A course of about 48 lectures, with practical work throughout the year.
The subject deals with the basic theory and applications of photogram- retry, with emphasis on mapping from aerial photographs.
SYLLABUS
Mathematical properties of the photograph. Perspective and analytical relationship between object and Image; fundamental concepts of stereo photogrammetry.
Optical and photographic principles. Aerial cameras and lenses; distor- tion and other aberrations. Photography and processing; sensitom- et ry and metric stability of photographic materials. Colour and Infra- red photography.
Mapping from aerial photographs. Numerical, graphical and optical recti- fication; radial plotting and triangulation.
Stereo photogrammetry. Stereo vision, parallax bar measurements. Basic operations in connection with plotting equipment Including relative and absolute orientation.
BOOKS
Prescribed textbook:
'Moffitt F H Photogrammetry, 2nd ed Intern Textbook Co PRACTICAL WORK
The equivalent of three hours per week throughout the year Including laboratory and office work, tutorial classes and excursions. Laboratory sessions are related to elementary stereoscopic measurement and the operation of stereoscopic plotting equipment.
EXAMINATION
One 3-hour paper for pass and honours. Assignments submitted during the year and the practical work will be assessed as part of the exam- ination. Candidates may be asked to resubmit their work performed
during the year. .
Other tests may be held at the discretion of the examiners during the year.
451-402. PHOTOGRAMMETRY PART 11
A course of 72 lectures, with practical work throughout the year. The subject provides an advanced study of photogrammetric theory and current practice.
SYLLАВUS
Mathematics of photogrammetry. Description of single and double projec- tion by vectors and matrices; differential projection and parallax formulae. Application of these to the fundamentals of analytical photo- grammetry arrd model deformation.
Photogrammetric instruments. Design, construction and calibration of cameras, plotters and comparators. Ortho-photograph equipment.
Aerotriangulation and adjustment. Various methods of triangulation with analogue instruments and comparators. Error propagation and princi- ples of adjustment. Two-and-three-dimensional strip and block adjust- ment procedures.
Accuracy and precision of photogrammetry. An analysis of systematic and random errors affecting plotting and triangulation. Map accuracy and completeness. Problems in photo Interpretation for mapping.
Photogrammearic practice. Application to surveying and mapping, engi- neering works and cadastral surveying. Limitations affecting choice of equipment and methods. Ortho photogrammetry. Non-Topographical applications.
Cartography. Graphical design, content and presentation of maps, plans and other cartographic Information. Modern instruments and materials;
automated cartography. Outline of map reproduction techniques.
BOOKS
Recommended for reference:
Manual of Photogrammetry, 3rd ed American Society of Photogrammetry PRACTICAL WORK
The equivalent of six hours per week throughout the year, devoted to laboratory and office work, tutorial classes and excursions.
EXAMINATION
Two three-hour papers for pass and honours. Other tests may be held at the discretion of the examiners during the year. Assignments sub- mitted during the year and the practical work will be assessed as part of the examination. Candidates may be asked to resubmit their prac- tical work performed during the year to assist In the determination of the final result of the examination.
640-006. PHYSICS PART 1 (ENGINEERING COURSE)
A course of approximately 68 lectures, with approximately sixteen sessions of laboratory work, throughout the year. A knowledge of Physics to the standard of the Higher School Certificate examination will be assumed.
SYLLABUS
A selection from the following topics:
Introduction. The method and scope of physics; units and dimensions.
Wave motion. kinematics; longitudinal and transverse waves, the wave equation. General wave properties; reflection, refraction, Interference, diffraction, the Doppler effect, , dispersion, polarization, attenuation.
Dynamics; wave speed; energy and momentum carried by wave; intensity;
boundary conditions at normal Incidence. ,
Applications; selected topics from the fields of acoustics, optics and thermal radiation.
Electricity and Magnetism. Electrostatics; Coulomb's law, electric field, Gauss's law, potential, capacitance. Classical theory of resistivity, Ohm's law, direct current circuits. Motion of charged particles in a magnetic field, the force on a current carrying conductor, the law of Blot and Savart. Magnetic Induction; Lenz's law. Electromagnetic 155
induction; Inductance, mutual inductance. Maxwell's equations; electro- magnetic waves.
The Physics of Fluids. The fluid state, fluid statics, fluid dynamics.
Molecular physics. Kinetic theory: interpretation of pressure, molecular speeds and Maxwell-Boltzmann distribution, mean free path, specific heat, equipartitlon of energy; transport phenomena, thermal conductiv- ity and viscosity. Intermolecular forces: elasticity; surface phenomena;
the solid state, crystallography.
Special Theory of Relativity. Michelson-Morley experiment and Interpreta- tion. Einstein's postulates. Lorentz transformations — length contraction, time dilation, velocity addition. Mass variation with speed. Mass energy equivalence.
Atomic Physics. Quantum concepts: The Planck quantum hypothesis.
Photoelectric effect. Duality of radiation and matter. Compton effect and pair production. Structure of the Atom. Bohr theory of the hydro- gen atom. Electronic quantum numbers and the Pauli Exclusion Prin- ciple. Complex atoms. Optical and X-ray spectra.
Nuclear Physics. Nuclear structure. Binding energy and stability. Nuclear forces. Nuclear reactions. Radioactivity. Fission and thermonuclear reactions.
LABORATORY WORK
Three hours per week. Attendance at practical classes Is compulsory.
The practical work of each student Is examined continually during each term. Records of his success in experiment and impressions of his work are kept. This information is taken Into account in assessing the results (including the class list) at the annual examination. An addi- tional test In practical work may be given.
Although it is not essential, students are advised to obtain
a
slide rule for use in laboratory work.BOOKS
Prescribed textbooks:
*Weidner R T & Sells R L Elementary Classical Physics, vols I & II 2nd ed Allyn & Bacon
'Weidner R T & Sells R L. Elementary Modern Physics, 2nd ed Allyn
& bacon
Recommended for additional reading:
Caro D E McDonnell J A & Spicer B M Modern Physics, Cheshire Resnick R & Halliday D Physics, Combined ed Tut Stud Ed Wiley EXAMINATION
One 3-hour paper for pass and honours combined.
640-002. PHYSICS PART IA (APPLIED SCIENCE)
A course of three lectures per week with tutorials and laboratory work, throughout the year. It will be assumed that a high standard has been reached at the Higher School Certificate examination In Physics and Mathematics.
Unless special permission is given by faculty, this course is limited to students who wish to proceed to second year Physics and who have a strong background in Mathematics and Physics. Repetition of school work will be avoided as much as possible.
It is recommended that students Intending to continue with Physics do Mathematics IB in their first year.
SYLLABUS
The syllabus Is divided Into three units.
1. Mechanics. The kinematics and dynamics of a single particle and of systems of particles. Dynamics of rigid bodies. Oscillatory motion.
2. Electromagnetism. Electromagnetic theory leading to Maxwell's equa- tions in Integral form. Applications to Electrostatistics, Magnetostat-
Electromagnetic Waves. Circuit theory.
3. Modern Physics. Wave motion. Generation, transmission and general properties of waves. Wave particle duality In radiation, leading to elementary quantum concepts and wave mechanics. Applications to simple atomic system, spectra, X-rays, and solids. The nature of the nuclear force and nuclear stability. Nuclear reactions as a probe of nuclear structure. Introduction to elementary particles.
LABORATORY WORK
Three hours per week. Due to present staff shortages, laboratory classes may not proceed throughout the entire academic year. Attendance at practical classes is compulsory. The practical work of each student Is examined coгrtinually during each term and Is taken into account in assessing the results (including the class list) for the year. An addi- tional test in practical work may be given.
Although it is not essential, students are advised to obtain a slide rule for use in laboratory work.
BOOKS
Prescribed textbooks:
Weidner R T & Sells R L Elementary Modern Physics, 2nd ed Allyn &
Bacon
Weidner R T & Sells R L Elementary Classical Physics, vols 1 & II 2nd ed Allyn & Bacon
Recommended for reference:
Alonso M & Finn E J Physics, Addison-Wesley French A P Newtonian Mechanics, Nelson French A P Vibrations and Waves Nelson
Berkeley Physics Course, vols I & II McGraw-Hill
Feynman R P Leighton R B & Sands M The Feynman Lectures in Physics, vols I & II Addison-Wesley
Wehr M R & Richards J A Physics of the Atom, Addison-Wesley Halliday D & Resnick R Physics, vol II Wiley
Rachinger W A Electricity and Magnetism — Diagnostic Tests, Wiley EXAMINATION
One 2-hour written examination Is held after the end of each unit during the year.
640-003. PHYSICS PART IB (APPLIED SCIENCE)
A course of three lectures per week, with tutorials and laboratory work, throughout the year
It is recommended that students intending to continue with Physics do Mathematics IB In their first year.
SYLLABUS
The syllabus is divided into three units.
1. Mechanics. Motion of a particle. Motion of a rigid body. Fluids Oscillations. Mechanical properties of matter.
157
2. Electromagnetism. Electromagnetic theory leading to Maxwell's equa- tions in integral form. Applications to electrostatics, magnetostatics, electromagnetic waves. Circuit theory.
3. Modern Physics. Wave motion. Generation, transmission and general properties of waves. Atoms, molecules, nuclei, elementary particles and their interactions. Generation and properties of radiation. Miсrо- scopic analysis of the macroscopic matter in the gaseous, plasma, liquid, and solid states.
LABORATORY WORK
Three hours per week. Due to present staff shortages, laboratory classes may not proceed throughout the entire academic year. Attendance at practical classes Is compulsory. The practical work of each student is examined continually during each term and is taken Into account in assessing the results (including the class list) for the year. An additional test In practical work may be given.
Although it is not essential, students are advised to obtain a slide rule for use In laboratory work.
BOOKS
Prescribed textbooks:
Weidner R T & Sells R L Elementary Classical Physics, vols I & II 2nd ed Allyn & Bacon
Weidner R T & Sells R L Elementary Modern Physics, 2nd ed Allyn &
Bacon
Recommended for reference:
Alonso M & Finn E J Physics, Addison-Wesley
Feynman R P Leighton R B & Sands M The Feynman Lectures In Physics, vols 1 & II Addison-Wesley
EXAMINATION
One 2-hour written examination is held after the end of each unit during the year.
640-022. PHYSICS PART 11 (APPLIED SCIENCE)
A course of approximately ninety-six lectures Intended primarily for those students who wish to proceed to third year physics.
SYLLABUS
A selection from the following units. Electronics; Optics; Relativity;
Quantum Mechanics; Classical Mechanics; Electromagnetism; Thermal Physics. Most units are presented at both advanced and standard level.
LABORATORY WORK
Six hours per week in first term, plus approximately eight 3-hour ses- sions in second or third term. Attendance at practical classes is com- pulsory. The practical work of each student is examined continually during each term; records of his success In experiment and impressions of his work are kept. This Information Is taken Into account In assess- ing the results (including the class list) at the annual examination. An additional test in practical work may be given.
BOOKS
Prescribed textbooks:
Brophy J J Basic Electronics for Scientists, 1st or 2nd ed McGraw-Hill Ziock 1C Basic Quantum Mechanics, Wiley
or Scharff M Elementary Quantum Mechanics, Wiley
Lorrain P & Corson D R Electromagnetic Fields and Waves, 2nd ed Freeman
Recommended for reference:
French A P Special Relativity, Nelson
Jenkins F A & White H E Fundamentals of Optics, McGraw-Hill Andrews C L Optics of the Electromagnetic Spectrum, Prentice-Hall Taylor E F & Wheeler J A Space Time Physics, Freeman
Eisberg R M Fundamentals of Modern Physics, McGraw-Hill
Pauling L & Wilson E B Introduction to Quantum Mechanics, McGraw-Hill Livesey D L Atomic end Nuclear Physics, Ginn-Blaisdell
Wesley
Konospinski E J Classical Descriptions of Motion, Freeman Goldstein H Classical Mechanics, Addison-Wesley
Reitz J R & Milford F J Foundations of Electromagnetic Theory, Addison- Wesley
Marion J B Classical Electromagnetic Radiation, Academic Press Trail N Classical Electromagnetic Theory, McGraw-Iii
Fowles G R Introduction to Modern Optics, Holt Rinehart & Winston Ghatak A J An Introduction to Modern Optics, McGraw-Hill
Sears F W Thermodynamics, Kinetic Theory of Gasses and Statistical Mechanics, Addison-Wesley
Sears F W & Brehme R W Introduction to the Theory of Relativity, Addison-Wesley
Wichmann E E Quantum Physics, Berkeley Physics Course vol 4 McGraw- Hill
Corben H C & Stehle P Classical Mechanics, 2nd ed Wiley
Feynman R P, Leighton R B & Sands M The Feynman Lectures in Physics,
vol 11 .
Abuso M & Finn E J Fundamental University Physics, vol III Addison- Wesley
EXAMINATION
One 2-hour written examination is held after the end of each unit during the year.
640-026. PHYSICS PART I1 (ENGINEERING COURSE) A course of 36 lectures.
SYLLABUS
A selection from the following topics:
Unit I Discrete nature of matter. Further kinetic theory. Maxwell Boltz- mann distribution. Mean free path. Particles crossing potential barrier.
Law of atmosphere. Brownian motion.
Discrete nature of energy. Thermal radiation. Failure of classical phy- sics. Quantum theory of Planck. Confirmation by photoelectric effect and Compton scattering of X-rays..
Quantum Mechanics. History. Wave-particle dualism, de Brogue's hypo- thesis. Phase and group velocities. Experimental confirmation of matter waves. Schroedinger wave equation, probability distribution. Uncertainty principles. Simple applications of Schroedinger equations—particle In potential trough, potential barrier and tunnel effect, hydrogen atom.
Exclusion principle.
Unit 11 Electrons In Solids. Sommerfeld theory; Kronig-Penney model, Zone theory; Fermi Level; Fermi Dirac statistics; electronic specific heat. Electrical conductivity of metals and alloys; superconductivity.
Semiconductors. Intrinsic semiconductors, n- and p- type semiconduc- tors; Hall effect; Haynes-Shockley experiment, minority carriers—-
nation, lifetime; p-n Junctions, diodes and transistors.
159
Other electronic properties. Thermionic emission, contact potential field emission, photo-electric emission, secondary emission; optical absorption, photoconductivity; luminescence; collisions between elec- trons and atoms; electron microscopy.
Unit III Absorption of charged particles. Absorption of gamma and
x-
rays atomic photo-electric effect. Compton scattering, pair production.
Detection of nuclear radiation.
Radioactivity. Decay Laws. Mechanism of alpha and beta decay.
Gamma emission.
Nuclear reactions—energetics and conservation laws. Reaction theories.
Reaction cross-section. The Neutron.
Nuclear structure and stability. Nuclear forces.
Fission. Chain reaction and nuclear reactors. Thermonuclear reactions and stellar energy.
Books
Prescribed textbooks:
'Sproul1 R L Modern Physics, 2nd ed Wiley
'Weidner R T & Sells R L Elementary Modern Physics, 2nd ed Allyn
& Bacon
Recommended for additional reading:
Solymar L & Walsh D Lectures on the Electrical Properties of Materials, Oxford Clarendon Press
Holden A Stationary States, Oxford
Wulff J ed The Structure and Properties of Materials, Part IV Electronic Properties Wiley
Azaroff L & Brophy J J Electronic Processes in Materials, McGraw-Hill EXAMINATION
Examinations will be held during the year for pass and honours.