Monash University Handbook 2012 Undergraduate - Units

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit covers human anatomy in its broadest sense; to explore and understand structure and function at the macroscopic, microscopic (histological) and developmental (embryological) levels. Topographic studies will cover the morphology and organisation of the musculoskeletal system, the cardiovascular system, the respiratory system, the digestive system, urinary system, endocrine system, nervous system and reproductive system. Histology studies will correlate microscopic structure with function; beginning with the cell, moving on to the four primary tissue types and following up with systems-based histology where relevant. Embryology will help in understanding human development; beginning with fertilization and following up through the development of organ-body systems, with emphasis on mechanisms regulating normal development and organisation of the body. The unit encompasses familiarisation and usage of anatomical and medical terminology. Skills in practical observation, identification and communication will be encouraged as well as the ability to source for information through effective use of IT.

Outcomes

On completion of this unit students will have a comprehensive overview of human anatomy, including knowledge and understanding of the macroscopic structure and functions of the systems of the human body, the microscopic structure and functions of cell types and body tissues as well as the embryological origins of the human body; understand anatomical and related medical terminology; use anatomical and related medical terminology effectively in verbal and written communication required in medical sciences; demonstrate observational and descriptive skills in relation to histological slides, anatomical models, dissected/ prosected anatomical specimens and radiographs; actively participate in groupwork to mirror future role as part of a healthcare team.

Assessment

Continuous assessment: 20%
Practical examination: 30%
Examination: 50%

Chief examiner(s)

Associate Professor Dr. Lakshmi Selvaratnam

Contact hours

Three 1-hour lectures, 3 hours group lab practical/tutorial, 3 hours computer-assisted learning and 3 hours private study per week

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Students will undertake a supervised research project. Candidates may commence the honours year at the beginning of either the first or second semester. Students will carry out a research project and present the results of their study in both written and oral form. Information about research projects will be available from the course coordinator towards the end of the preceding semester.

Outcomes

On completion of the course, students will have demonstrated a high-level of understanding of the key theoretical and practical aspects of their chosen discipline, including to:

1. be able to critically review the scientific literature in their specialist area of study;
2. understand the processes involved in the design, development and implementation of a relevant research project;
3. be able to complete and analyse a set of laboratory-based, computer-based, field-based, theoretical or other appropriate studies;
4. be proficient in data acquisition, critical analysis of results, appropriate presentation, and scientific word processing;
5. demonstrate communication skills in both oral and written presentations to both a specialist and a non-specialist scientific audience, including the ability to write and present scientific work in a potentially publishable way;
6. have acquired a range of advanced technical skills appropriate to their area of study;
7. have demonstrated the capability to perform a variety of scientific procedures and techniques that are essential to the satisfactory completion and reporting of a research project;
8. have acquired, where appropriate, sound knowledge of OHSE regulations, including hazardous and dangerous materials and risk assessments;
9. have developed, where appropriate, an awareness of the ethical approval processes required when working with humans or animals;
10. have demonstrated potential to pursue higher studies and learning in their area of study;
11. have gained insight into the breadth and diversity of their discipline and its place within the broader scope of science.

Assessment

Assessment will include a written thesis and oral presentation and/or oral defence. Final assessment methods and weightings will be advised by the unit coordinator prior to commencement.

Chief examiner(s)

Dr Wendy Wright

Contact hours

Full year

Prerequisites

Completion of the requirements for levels 1 to 3 of the Bachelor of Science and entry into Honours.

Co-requisites

ASC4200

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

ASC4200 is a level four unit in the Honours Program of the Bachelor of Science course. This unit provides advanced instruction on experimental design and data analysis and develops skills in critical thinking and examination of the scientific literature. Students will also examine appropriate Occupational Health, Safety and Environmental issues and learn about the ethical requirements associated with research involving humans and animals. As a part of this unit, students will convene and present a research symposium. This unit relates strongly to the Science Graduate Attributes and provides support for students wishing to develop a career in research science.

Outcomes

On completion of the unit, students:

1. will understand experimental design and sampling methods relevant to their research project;
2. can tailor research design and experimental protocols, giving consideration to available resources, occupational health, safety and environment requirements and research ethics;
3. can critically analyse articles from the scientific literature;
4. can present scientific ideas and the results of their research (orally and in writing) clearly and effectively, choosing appropriate materials and presentation styles for general and scientific audiences;
5. can manage their work requirements, both independently and as a member of a team;
6. will have demonstrated an ability to apply the University's Occupational Health, Safety and Environmental requirements appropriately within the context of their research discipline;
7. will have demonstrated an ability to apply the University's requirements regarding the ethics of conducting research on humans and/or animals appropriately within the context of their research discipline.

Assessment

100% assignments

Chief examiner(s)

Dr Wendy Wright

Contact hours

Approximately 4 hours of lectures/workshops per fortnight for 12 weeks (one semester).

Prerequisites

Completion of the requirements for levels 1 to 3 of the Bachelor of Science and entry into Honours.

Co-requisites

ASC4100

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

ASP1010 provides an introduction to, and understanding of, the nature of the solar system, our galaxy, and the cosmos beyond. The unit material will emphasize key concepts that will allow students to gain understanding of key astrophysical phenomena. The unit covers a wide range of topics that include the night sky, the historical development of astronomy, the solar system, comets and asteroids, the Sun, other stars, stellar remnants such as black holes, the Milky Way, other galaxies, quasars, dark matter, and cosmology.

Outcomes

On completion of this unit, students should be able to:
Appreciate the scale of the Universe and Earth's place in it; understand the patterns and motion in the night sky and the cause of seasons; define and use the celestial coordinate system; discuss historical development of astronomy; understand and apply Kepler's laws; discuss the role of gravitation in orbits; describe the main features and performance of telescopes; describe the properties and formation of planets, comets and asteroids; describe the general properties of the known planets beyond our own solar system and how they have been found; measure and describe the properties (magnitude, colour, structure, activity, energy sources) of stars including the Sun; understand and describe the life cycles of stars; describe the formation and evolution of white dwarfs, neutron stars and black holes; interpret the Hertzsprung-Russell diagram; describe the structure of the Milky Way; describe the formation of different galaxy types; identify multiple methods to measure astronomical distances by; outline the life histories of galaxies (including those in clusters and active galaxies); describe the evidence for dark matter, dark energy and the Big Bang, and suggest the fate of the Universe.

Assessment

Examination (3 hours): 50%
Practical workshops: 25%
Project: 10%
Quizzes: 5%
Mid-semester assignment: 10%
Students must achieve a pass mark in the practical workshops to achieve an overall pass grade

Chief examiner(s)

Dr Jasmina Lazendic-Galloway

Contact hours

Three 1-hour lectures and a 2-hour practical workshop/tutorial per week

Prerequisites

No formal background in astrophysics is required.
However, secondary science to Year 11 is recommended.

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

The characteristics of life, how life first appeared on the earth, whether these conditions can be expected to occur on other planets, the formation of stars and planets, the dynamics of planetary orbits and the habitable zones around stars, different kinds of stars and the light they emit, whether consciousness arises from elementary interactions between atoms and molecules, whether computers can be said to be conscious, the final state of the universe and the implications for any life present.

Outcomes

On completion of this unit, students will have an appreciation of how the development of life is dependent on the conditions in the physical universe. In particular, students will have some understanding of: the necessary conditions for life; how species evolve; how life depends on energy input from stars; the dynamics of the solar system with regard to the thermal requirements for life; what is known about planets around other stars; the evolution of stars and which stars are suitable for the appearance of life; modern theories of star and planet formation; the types of stars in galaxies; possibilities of other life forms; the development of consciousness; how the universe will evolve; what this means for the future of life in the universe

Assessment

Examination (3 hours): 50%
Support class work: 30%
Project work: 10%
Assignments: 10%
Student must pass the final examination to be granted a pass grade

Chief examiner(s)

Dr Jasmina Lazendic-Galloway

Contact hours

Three 1-hour lectures and one 2-hour laboratory class per week

Prerequisites

Secondary science to Year 11 and mathematics to Year 12 (recommended)

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

An introduction to modern astronomy, with an emphasis on using astronomical observations to understand the evolution of stars, galaxies and the Universe. Students are introduced to the night sky and how to navigate around it using astronomical coordinates. The design, performance and use of visible and radio wavelength telescopes is discussed in detail, including imaging and spectroscopy. Visible and radio wavelength observations will be interpreted to determine the distances, masses, ages and evolution of stars and galaxies. Laboratory work is a key component of ASP2011, including an astronomical observing session and analysis of data from major observatories.

Outcomes

At the completion of this unit students should be able to: understand the motion of the planets in the night sky; navigate the night sky using celestial coordinates; measure the brightness of celestial objects using astronomical images; understand the workings of reflecting and refracting telescopes; determine the angular resolution achieved by telescopes; describe the operation of CCDs; understand the statistics of photons from celestial objects; understand how astronomers determine the distances, luminosities, masses, radii and temperatures of stars; interpret the Hertzspung-Russell diagram; understand how stellar evolution can be inferred from observations; understand what observational astronomy tells us about the birth and fate of stars; use radio and Hubble Space Telescope observations to measure the expansion of the Universe; describe the emission processes responsible for radio waves; describe the origin of 21-cm wavelength radio waves; utilise 21-cm observations to measure the distances to and masses of galaxies; understand the principles behind radio interferometers; use radio observations to determine the masses of black holes and the radii of neutron stars; interpret astronomical observations and justify conclusions drawn via a concise and accurate written report.

Assessment

Examination (3 hours): 50%
Written assignments: 15%
Laboratory: 35%
Students must achieve a pass mark in the laboratory component to achieve an overall pass grade.

Chief examiner(s)

Associate Professor Michael Morgan

Contact hours

Three 1-hour lecture or tutorial classes per week and one 3-hour laboratory class per week

Prerequisites

6 points of physics at first-year level

Prohibitions

ASP2031, PHS2211

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Processes of star and planet formation; celestial mechanics; tides, accretion disks; solar system formation; extra-solar planets; the Sun; interiors of stars and the main sequence; post main sequence evolution; degenerate remnants; the Milky Way; the nature of galaxies; active galaxies; particles and cosmic rays.

Outcomes

On completion of this unit students will become familiar with the application of basic physical and mathematical principles to quantitative and qualitative understanding of the nature of the universe around us; will develop the ability to think physically about astronomical problems, and demonstrate this in a range of problem solving tasks; will develop practical skills in computationally modelling astrophysical systems and will have gained a knowledge of stars, planets, and galaxies sufficient to undertake further astrophysics studies at Level 3.

Assessment

Examination (3 hours): 50%
Problem sets: 10%
Computer laboratories: 30%
Tests: 10%
A pass in the examination is required to pass the unit.

Chief examiner(s)

Dr Alina Donea

Contact hours

Three 1-hour lectures per week, one weekly 2-hour computer practical class, one weekly 1-hour support class

Prerequisites

MTH1030, MTH1035 or equivalent, and 6 points of physics at level one

Co-requisites

MTH2010 or MTH2015 recommended

Prohibitions

ASP2022 (except with permission from the unit coordinator)

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Stellar photometry; observing the stars; star formation; equation of state; reduced equations of stellar structure; polytropic stellar models; full equations of stellar structure; the main sequence; post-main-sequence evolution. Galactic morphology and stellar content; elliptical and spiral galaxies; large-scale structure of the Milky Way; dark matter; potential theory; galactic dynamics-orbits in spherical and axisymmetric potentials. Field trip. Astronomical data reduction.

Outcomes

On completion of this unit, students will: understand the nature of stars - their life histories, how they produce energy, how they synthesise the chemical elements, their ultimate fates; be able to build simple polytropic numerical stellar models; be able to distinguish and discuss the different galactic types; understand the relationships between stellar evolution, galactic evolution, and the creation of the elements; be able to model computationally the motion of stars in galaxies; understand the implications of the observed nature of galaxies for theories of the universe; be familiar with the morphology and kinematics of the Milky Way; understand the significance of Dark matter to galactic structure; be able to use a large research-level telescope, including for data collection and analysis.

Assessment

Examination (3 hours): 70%
Assignments: 20%
Field-trip report: 10%

Chief examiner(s)

Dr Alina Donea

Contact hours

Three 1-hour lecture, one 1-hour support classes per week and one 1-hour computer laboratory in most weeks

Prerequisites

One of MTH2010 or MTH2015, plus MTH2032, or equivalent

Prohibitions

ASP3011

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Newtonian physics and Einstein's Special Theory of Relativity, the geometry of space-time, the Minkowski metric, Lorentz transformations, k-calculus, and four-vectors; the physics of space-time, momentum and energy; classical paradoxes; other metrics, Black Holes; observation of the Universe relevant to Cosmology; the expansion of the Universe, the Cosmic Background Radiation; the evolution of the Universe, propagation of light; primordial elements and recent observations.

Outcomes

On completion of this unit, students will be aware of the reasons for supplanting Newtonian physics with relativity theory; be able to use special relativity to predict the behaviour of relativistic particles; have gained the capacity to discuss the relativistic paradoxes in an informed way; have a basic knowledge of our current understanding of the beginnings, nature, and fate of the Universe; be aware of the current uncertainties in cosmology. Students will also have developed skills in: analysing physical problems geometrically; thinking logically in a theory at odds with common experience; communicating and interpreting complex results; the use of mathematics to solve complex problems; interpreting mathematical results and presenting them in written form; strengthening the ability to make verbal and visual presentations of their results; working in a team environment.

Assessment

Examination (3 hours): 70%
Laboratory work and reports: 30%

Chief examiner(s)

Dr Anthony Lun

Contact hours

The equivalent of three 1-hour lectures and one 2-hour laboratory/support class per week

Prerequisites

MTH2010 or MTH2015. Recommended: MTH2032

Prohibitions

ASP2052, ASP3052

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit consists of three lecture sub-units and a practical component:

• Nuclear physics: nuclear stability, shell model and angular momentum, radioactive decay selection rules, the neutrino and Fermi theory of beta decay, nuclear force;
• Evolution of massive stars and synthesis of chemical elements; creation of supernova remnants and neutron stars, and types of continuum and line emission produced; interpreting X-ray spectra in relation to physical and chemical properties of these objects;
• Elementary particles: spin, parity, isotopic spin, strangeness and baryon/lepton number, conservation laws of the fundamental interactions, symmetry theories.

Outcomes

On completion of this unit, students will be able to:

• describe nuclear systematics, nuclear models and nuclear structure;
• understand the evolution and nucleosynthesis in massive stars; continuum radiation, collisional plasmas and atomic line emission in X-ray band from supernova remnants; nuclear processes as the supernova shock wave propagates through the star;
• relate observed X-ray spectra to structure and dynamics of supernova remnants and neutron stars:
• describe the properties of elementary particles, their interactions and role in cosmological evolution;
• undertake computation and analysis quantifying nuclear, stellar and particle properties;
• present results, analysis and critical discussion based on a selected astrophysics topic.

Assessment

Examinations (4.5 hours at 1.5 hours each): 72%
Assignments and Practical: 28%

Chief examiner(s)

Dr Jasmina Lazendic-Galloway

Contact hours

Three 1-hour lectures and an average of 2 hours tutorial/practical per week

Prerequisites

PHS2011, PHS2022, MTH2032, and either MTH2010 or MTH2015

Prohibitions

PHS3062

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit gives students theoretical background and practical experience in modern observational astronomy. ASP3231 students study telescope optics, spectroscopy, CCD imaging, image processing, statistics, astronomical distances, stellar evolution, extra-solar planets, neutron stars and galaxies. An observational project, including an astronomical observing session and analysis of the observations, comprises a substantial component of ASP3231.

Outcomes

On completion of this unit students will be able to operate an astronomical telescope; obtain CCD images of celestial objects; process and calibrate images using the techniques of research astronomy; utilise photometry to understand the nature of celestial objects; utilise spectra to measure the distances, masses and temperatures of celestial objects; utilise statistics to constrain measurements and test hypotheses; understand the operation of CCDs; understand telescope design, including telescopes operating beyond the visible wavelength range; describe and characterise the performance of astronomical spectrographs; describe the impact of the atmosphere on astronomical observations; understand how adaptive optics improves the angular resolution of astronomical images; complete a substantial observational project and written report as a member of a team.

Assessment

Examination (3 hours): 40%
Laboratory: 15%
Project: 35%
Assignments: 10%
Students must achieve a pass mark in the laboratory/project component to achieve an overall pass grade.

Chief examiner(s)

Dr Michael Brown

Contact hours

Two 1-hour lectures per week, 4 hours laboratory or project sessions per week on average (including night-time observing)

Prerequisites

ASP2011 or PHS2011 or PHS2022

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Research project and Literature Review.

Assessment

Research project (comprising written report and oral presentation): 83.3%
Literature review (comprising written report and oral presentation): 16.7%

Chief examiner(s)

Dr Todd Oliynyk

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

ASP4200 is a level four unit in the Honours Program of the Bachelor of Science course. The unit comprises six approved lecture topics which students can choose from those offered in the Honours Handbook of the School of Mathematical Sciences. These provide advanced instruction in Astrophysics and related fields, and support for students wishing to develop a career in research.

Outcomes

On completion of the unit, students:

1. will have gained an advanced understanding of Astrophysics and related disciplines;
2. will be able to apply their knowledge of these disciplines and critical thinking skills to the solution of problems in these fields;
3. will be able to present results and discuss topics in this field professionally;
4. will be able make effective use of information and communication technology for the collection and analysis of data, the solution of problems and the presentation of their work;
5. will be able to plan and efficiently carry out work requirements.

Assessment

Six lecture topics (a mixture of assignments and examinations): 16.7% each

Chief examiner(s)

Dr Todd Oliynyk

Contact hours

Approximately 8-10 hours and lectures and practice classes per week for 24 weeks (two semesters).

Prerequisites

Completion of the requirements for levels 1 to 3 of the Bachelor of Science and entry into Honours.

Co-requisites

ASP4100

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

The unit provides the opportunity for students to understand the weather and climate of the atmosphere and oceans. Topics discussed include: the characteristics of the atmosphere, radiation and the global energy balance, the greenhouse effect and climate change, the global wind distribution, Hadley circulation, mid-latitude westerlies, global heat balance, geostrophic wind, thermal wind, the oceans circulation and causes and characteristics of climate variability from seasons to ice ages.

Outcomes

On completion of this unit students will understand the physical basis of the weather and climate on scales ranging from 1000 km up to that of the globe. In particular, students will be able to demonstrate an understanding of the conservation of energy and momentum as applied to the Earth's climate system; weather prediction; greenhouse climate change; large-scale atmospheric and oceanic phenomena and natural climate variability from seasons to ice ages.

Assessment

Examination (3 hours): 60%
Assignments and tests and support-class activities: 40%

Chief examiner(s)

Dr Dietmar Dommenget

Contact hours

Three 1-hour lectures and 2 hours of support classes per week (average)

Prerequisites

MTH1030 or MTH1035, or equivalent. ATM2030 is also recommended.

Prohibitions

ATM3022, ATM2022

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit examines cloud processes, the dynamics and prediction of severe storms (including tornadoes and tropical cyclones), the structure and evolution of extra-tropical cyclones and their associated fronts, and the techniques used in forecasting the day-to-day weather.

Outcomes

On completion of ATM2030 students will be able to demonstrate knowledge of: how clouds form and their role in the weather and climate; the dynamics of severe storms, including supercells, tornadoes and tropical cyclones; the structure and evolution of extratropical cyclones and their associated fronts; moist thermodynamics with particular emphasis on forecasting moist convection; how mathematics and atmospheric physics are used to forecast the day-to-day weather, and the inherent limitations in predictability. Students will also have further developed skills in: mathematical modelling and computation; problem solving in a real-life context; scientific communication; and an awareness of the relevance of science to modern society.

Assessment

Examination (3 hours): 60%
Field trip, laboratory work, assignments and tests: 40%
Students are required to satisfactorily complete the laboratory work and pass the final examination.

Chief examiner(s)

Dr Danijel Belusic

Contact hours

Three 1-hour lectures and one 2-hour computer laboratory class per week

Prerequisites

MTH1030 or MTH1035

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Physical meteorology examines the major physical forces that affect the behaviour of the atmosphere, specifically radiative transfer and precipitation. The radiative transfer section focuses on the scattering, absorption and emission of radiant energy within the atmosphere and how this knowledge is exploited by remote satellite and ground-based instrumentation. The cloud microphysics section focuses on the development of precipitation, as well as the interaction between clouds and aerosols.

Outcomes

On completion of this unit students will be able to demonstrate: an understanding of the development of precipitation through nucleation, condensation and then collision and coalescence; an understanding of the basic principles of long wave and short wave radiative transfer and apply these principles to weather radar and satellite imagery. Students will also be able to demonstrate competence in information technology, data handling, laboratory skills, communication skills and teamwork as appropriate for the discipline of atmospheric science.

Assessment

Final Examination (3 hours): 60%
Laboratory work, assignment and tests: 40%

Chief examiner(s)

Associate Professor Steven Siems

Contact hours

Three 1-hour lectures per week, one 2-hour laboratory/support class per week, plus private study/research time.

Prerequisites

ATM2030

Co-requisites

MTH2010 or MTH2015

Prohibitions

ATM3010

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

The motion of a density-stratified fluid in a rotating frame of reference; important parameters and their magnitudes; 'homogeneous flows' in the atmosphere and ocean; shallow-water and Rossby-wave motion; western boundary currents; gradient-wind balance and vortex motion; dynamics of stratified fluids, including stability, blocking, internal gravity waves and thermal-wind balance.

Outcomes

Upon the completion of this unit, students will:

1. understand the equations of fluid motion in an inertial reference frame, and be able to extend them to both a rotating frame of reference and a density-stratified fluid;
2. appreciate how to approximate the full equations in circumstances which are relevant to motions in the atmosphere and/or oceans of various scales;
3. recognise the constraints that rotation places on fluid motion and understand how this affects the motion of the atmosphere and ocean;
4. understand the dynamics of wave motions, including Rossby waves, and be able to determine and interpret the group velocity of a dispersive wave disturbance;
5. recognise the role of rotation in atmospheric vortices of different scales;
6. appreciate the key effects introduced by density stratification, including stability, blocking and the dynamics of internal gravity waves;
7. be able to interpret observational data and recognise evidence of the dynamics that were examined in the approximated theoretical analysis related to objectives 3-6 above;
8. be able to communicate clearly the key concepts covered in the unit, both verbally and in written form.

Assessment

Final examination (3 hours): 70%
Assignments: 20%
In-semester tests and support-class activities: 10%

Chief examiner(s)

Dr Simon Clarke

Contact hours

Three 1-hour lectures per week, one 2-hour laboratory/support class per week, plus private study/research time

Prerequisites

MTH2010 or MTH2015. Recommended: ATM2020 and ATM2030.

Co-requisites

MTH2032 (or equivalent)

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Literature review, research project and synoptic meteorology laboratory including meteorological chart discussions.

Assessment

Literature review (comprising written report and oral presentation): 16.7%
Research project (comprising written report and oral presentation): 83.3%
Laboratory compulsory but not otherwise assessed

Chief examiner(s)

Dr Todd Oliynyk

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

ATM4200 is a level four unit in the Honours Program of the Bachelor of Science course. The unit comprises six approved lecture topics which students can choose from those offered in the Honours Handbook of the School of Mathematical Sciences. These provide advanced instruction in atmospheric science and related fields, and support for students wishing to develop a career in research.

Outcomes

On completion of the unit, students:

1. will have gained an advanced understanding of Atmospheric Science and related disciplines;
2. will be able to apply their knowledge of these disciplines and critical thinking skills to the solution of problems in these fields;
3. will be able to present results and discuss topics in this field professionally;
4. will be able make effective use of information and communication technology for the collection and analysis of data, the solution of problems and the presentation of their work;
5. will be able to plan and efficiently carry out work requirements.

Assessment

Six lecture topics (a mixture of assignments and examinations): 16.7% each

Chief examiner(s)

Dr Todd Oliynyk

Contact hours

Approximately 8-10 hours and lectures and practice classes per week for 24 weeks (two semesters).

Prerequisites

Completion of the requirements for levels 1 to 3 of the Bachelor of Science and entry into Honours.

Co-requisites

ATM4100

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit focuses on the action of major classes of biomolecules in biologically and medically relevant systems. Protein structure is related to function in contexts such as blood cells and extracellular matrix. The folding of proteins and the consequences of misfolding, as a cause of disease, are also explored. The mechanism of action of enzymes in medically important systems is examined. Carbohydrates and lipids are examined in the context of their function in diverse cellular compartments and biological membranes, respectively. The techniques used to isolate and study proteins, including their analysis using the tools provided by the new science of bioinformatics, are explored.

Outcomes

The specific objectives of the lecture program are to give students a basic understanding of the principles of the structure (especially three-dimensional structure) of molecules associated with the life process and the role of these molecules in the function of living cells; the molecular organisation of cellular structures, especially that of membranes and the role of membranes in cellular metabolism; the physical and biochemical properties of proteins, especially in their roles as enzymes; the isolation, separation and characterisation of biological molecules. The specific objectives of the practical/tutorial/self-directed program are to allow students to develop problem solving skills through the evaluation of biochemical data and to provide students with the understanding and hands-on experience of the basic principles of the measurement of biological molecules; enzymology; and the separation and identification of biological molecules.

Assessment

Mid-semester test (45 min): 10%
Examination (3 hours): 60%
Evaluation of practicals/ assignments/ self-directed learning exercises: 30%

Chief examiner(s)

Dr Janet Macaulay

Contact hours

Three 1-hour lectures and one 3-hour practical/tutorial/self-directed learning exercise per week

Prerequisites

12 points of level one chemistry or level one biology; OR BMS1011; OR CHE2165 and CHM2735. Recommended: VCE Chemistry if Chemistry is not taken at University.

Prohibitions

BTH2741

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

A general outline of cellular metabolism is provided. The material presented will illustrate normal metabolic pathways and their dysfunction in various human diseases and conditions including diabetes, alcoholism, starvation, glycogen storage diseases and juvenile developmental problems. The biochemical basis of hormonal regulation and nutrition, in both famine and disease, is presented.

Outcomes

On completion of this unit, students will have a basic understanding of the principals of utilisation of energy by mammalian organisms; the biosynthesis and breakdown of major biological molecules; the cellular metabolism and the regulation and integration of metabolic processes in tissues; and the biochemical basis of nutrition. The specific objectives of the small group teaching and practical exercise program will enable students to develop problem-solving skills through the evaluation of biochemical data, to develop skills in the presentation of data and scientific ideas both verbally and in writing and to have an understanding and hands-on experience of the basic principles of the measurement of biological molecules in the context of cellular metabolism.

Assessment

On-line MCQ quizzes: 10%
Examinations (3 hours): 60%
Evaluation of practicals/assignments/case studies: 30%

Chief examiner(s)

Dr Janet Macaulay

Contact hours

Three 1-hour lectures and one 3-hour practical/tutorial/self-directed learning exercise per week

Prerequisites

12 points of first level chemistry or 12 points of first level biology; or BMS1011 or BCH2011

Prohibitions

BTH2757, BMS2021

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit provides an advanced understanding of the structure-function of the individual structural organelles and components of the cell in the context of cell biology and disease processes. Topics include the cytoskeleton, the formation of the membranes, the intra-cellular trafficking of proteins, the cellular internalization/export of proteins. Over-riding themes of this subject are:

1. to view the cell as a dynamic unit composed of a series of interacting organelles; and
2. to understand the cell as a semi-independent biological entity in constant contact and communication with the extracellular environment and with other cells in multi-cellular organisms.

Outcomes

On completion of this unit students will understand the biochemistry and molecular biology of cellular membranes; achieve a detailed understanding of the structure and function of subcellular organelles including the nucleus, mitochondria, peroxisomes, endoplasmic reticulum and golgi, and lysosomes in health and disease; understand the various aspects of intracellular and extracellular vesicle trafficking; comprehend the basis of many types of molecular machines that exist in cell biology; achieve a broad view of the importance of the discipline to current advances in biology, biotechnology and medicine; develop skills in the use of routine and advanced biochemistry laboratory equipment, procedures and techniques; manipulate and interpret biochemical data; be able to source information in the scientific literature on particular topics related to the discipline; develop skills in the communication of scientific information associated with this discipline by verbal and written means and by poster displays.

Assessment

One examination (3 hours): 60%
Evaluation of practicals and syndicate sessions/data assessment/oral presentations undertaken in the weekly practical/tutorial/self-directed learning sessions: 30%
Evaluation of mentored literature review (essay): 10%

A pass in the practicals and syndicate sessions must be obtained to pass the unit. The essay must be submitted to pass the unit. If either of these requirements are not met, the student will be awarded, at maximum, 49N for the unit.

Chief examiner(s)

Professor Phillip Bird

Contact hours

Two 1-hour lectures and one 4-hour practical/tutorial/self-directed learning exercise per week

Prerequisites

One of BMS1021, BCH2011, BCH2022, MOL2011 or MOL2022

Prohibitions

BTH3741

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit provides an understanding of DNA as the genetic component of organisms and cells, encompassing the information content, the organisation of DNA sequences, and expression of this information into RNA and proteins. Topics include global aspects of genome organisation and expression outcomes (genomics and proteomics, respectively). Other themes include the molecular diagnosis and treatment of human genetic disease using smart technologies such as gene therapy, DNA vaccines and novel therapeutics, and new information contributing to treatment deriving from genome mining.

Outcomes

On completion of this unit students will understand the molecular biology of genome structure; understand advanced concepts of the regulation of gene expression; understand the application of recombinant DNA technology to the diagnosis and treatment of human disease; understand the application of new information, derived particularly from the Human Genome Project, to biotechnology and biomedicine; have developed a broad view of the importance of the discipline to current advances in biology, biotechnology and medicine; have developed skills, both technical and time/task-management, in the use of routine and advanced biochemistry laboratory equipment and performing a series of experimental procedures; be able to manipulate and interpret experimental data; be able to source information in the scientific literature and on the web concerning particular topics related to the discipline; have developed skills in the communication of scientific information associated with the discipline by verbal and written means and by poster displays involving teamwork co-operation in preparation and presentation.

Assessment

Examination (3 hours): 55%
Essay (2000 words): 15%
Evaluation of practicals and syndicate sessions/ data assessment/ oral presentations (30%) will take place weekly during the semester in the practical/ tutorial/ self-directed learning sessions

Chief examiner(s)

Professor Rod Devenish

Contact hours

Two 1-hour lectures, one 1-hour tutorial and one 3-hour practical/ peer-group or self-directed learning exercise per week

Prerequisites

One of the following BCH2011, BCH2022, BMS2062, MOL2011, MOL2022

Prohibitions

BTH3757

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit provides an advanced understanding of the molecular aspects of cell proliferation, cell signalling, differentiation and cell death as they relate to cell biology and medicine, in particular cancer. Themes include basic mechanisms of cell signalling involving cell receptors, gene expression, hormones and endocrine networks, and intracellular signalling cascade. These concepts are applied to cell growth, differentiation and cell death and how the involvement of the immune system is regulated in diseases, including auto-immune diseases, cancer (and its treatment) and the destruction of T-cells after human immunodeficiency virus (HIV) infection.

Outcomes

On completion of this unit students will understand the basic mechanisms of cell signalling; have achieved a detailed understanding of disordered intracellular signalling and its role on the development of cancer; understand the various aspects of the immune system in relation cell signalling and infectious disease; understand the role of programmed cell death in differentiation and disease; have achieved a broad view of the importance of the discipline to current advances in biology, biotechnology and medicine; have developed skills, both technical and time/task-management, in the use of routine and advanced biochemistry laboratory equipment and performing a series of experimental procedures; be able to manipulate and interpret experimental data; be able to source information in the scientific literature and on the web concerning particular topics related to the discipline; have developed skills in the communication of scientific information associated with the discipline by verbal and written means and by poster displays.

Assessment

Examination (1 x 3 hours): 55%
On-line MCQ quizzes: 10%
Evaluation of practicals: 20%
Research paper analysis: 15%

Chief examiner(s)

Dr Alfons Lawen

Contact hours

Three 1-hour lectures/tutorials/revisions and one 3-hour practical/tutorial/ self-directed learning exercise per week

Prerequisites

One of BCH2011, BCH2022, CEL2012, MOL2011, MOL2022; or BMS2021 or BMS2042

Prohibitions

BTH3746

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

The course will give students an advanced understanding of protein structure-function in the context of human disease. Major themes relate the various levels of protein structure to their wide ranging functions, introduce modern techniques used in the analysis of structure and function, and explore the rapidly developing area of protein-related biotechnologies and drug design. Topics to be covered include examples of aberrations in protein structure that lead to alteration in function in a variety of biological contexts, emphasizing disease. Additionally the use of bioinformatics in aiding our understanding of protein sequence, structure and function will be highlighted.

Outcomes

On completion of this subject students will comprehend the hierarchical levels of protein structure, function and biological activity; understand the principles of conformational dynamics of protein structure and interactions; appreciate the areas of biotechnology including the use of proteomics, combinatorial libraries and protein design; have developed a broad view of the importance of protein structure and function to current advances in biology, bioinformatics, biotechnology and medicine; understand the principles of practical applications of database searching, genome analysis, sequence alignments and phylogeny; have developed skills, both technical and time/task-management, in the use of routine and advanced biochemistry laboratory equipment and performing a series of experimental procedures; be able to manipulate and interpret experimental data; be able to source information in the scientific literature and on the web concerning particular topics related to protein structure and function; have developed skills in communication of scientific information associated with protein structure and function by verbal and written means.

Assessment

Examination (2 hours): 60%
Practicals and assignments: 40%

Chief examiner(s)

Professor Steve Bottomley

Contact hours

3 hours of lectures and 4 hours of laboratory or tutorial sessions per week

Prerequisites

One of BCH2011, BCH2022, MOL2011, MOL2022 or BMS2021 or BMS2062

Prohibitions

BTH3741

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit provides the opportunity for high achieving students to work with an academic supervisor and complete a research project in Biochemistry. The research project may be chosen from a list of projects available at the beginning of semester from the Department of Biochemistry. The unit convenor and supervisor must approve the project topic at the time of enrolment. Student will work in a research laboratory to obtain data, will complete a written preliminary and final report and will give a series of oral presentations on their work.

Outcomes

On completion of this unit, students will have acquired the following skills and attributes: review scientific literature in biochemistry, including the ability to identify key information in this area; access databases for provision of information; presentation of oral reports; construction of written reports; manage workloads to meet deadlines; work with a significant degree of independence; plan a large project, including the ability to adjust planning as events and results dictate; conduct appropriate statistical analysis of results; perform routine laboratory measurements and manipulations; maintain efficient and meaningful communication with a project supervisor and gain experience in the use of technical word processing packages and graphics software.

Assessment

Two oral reports (preliminary 15 minutes, 10%, and final 15 minutes, 10%): 20%
Two written reports (preliminary 1,500 words, 10% and final 8,000 words, 50%): 60%
Assessment of laboratory work 20%.

Chief examiner(s)

Dr John Price

Contact hours

12 hours per week

Prerequisites

Permission of the Head of Biochemistry. Students must have completed all first and second level units in their approved major, and be able to demonstrate that they have an appropriate project and supervisor/s. 12 points of study in the discipline area at 2nd year level and a distinction over 24 points at second year level.

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Students will undertake a supervised research project. Candidates may commence the Honours year at the beginning of either the first or second semester. Students will research literature relevant to their topic, carry out a research project and present the results of their study in both written and oral form. Information about the research projects is available from the course coordinator and at a meeting held with prospective students during the second semester of third year.

Assessment

Literature review (5000 words): 15%
Research project (40000 words): 70%)
Oral presentation: 15%

Chief examiner(s)

Associate Professor Tim Cole

Co-requisites

BCH4200

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Refer to BCH4100

Assessment

Refer to BCH4100

Chief examiner(s)

Associate Professor Tim Cole

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Refer to BCH4100

Assessment

Refer to BCH4100

Chief examiner(s)

Associate Professor Tim Cole

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Students attend a lecture series on Advanced Topics in Biochemistry and Molecular Biology. Students also orally present a critique of a journal article which is distinct from their research topic in BCH4100.

Assessment

Two data assessment examinations: 70%
Oral presentation of journal article: 30%

Chief examiner(s)

Associate Professor Tim Cole

Co-requisites

BCH4100

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Refer to BCH4200

Assessment

Refer to BCH4200

Chief examiner(s)

Associate Professor Tim Cole

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Refer to BCH4200

Assessment

Refer to BCH4200

Chief examiner(s)

Associate Professor Tim Cole

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

A study of animal and plant biology and diversity from genes to whole organisms. The structure and function of plant and animal cells is examined with an emphasis on energy fixation, storage and usage. Principles of genetics, including advances in molecular biology, and current views of evolutionary processes and ecology are integrated into a structured course that offers considerable feedback on progress and opportunities for self paced learning. The subject matter of BIO1011 is continued and expanded in BIO1022 and BIO1042.

Outcomes

On completion of this unit students will understand biological processes from the level of cell biochemistry to whole organism biology; diversity and evolutionary processes as a basis for further study in biological and biomedical disciplines; develop skills in library research; develop a critical approach to scientific methods; develop skills in using basic laboratory equipment; develop skills in data evaluation and presentation.

Assessment

Examination (2.5 hours): 40%
Practical work: 30%
Essay: 10%
Mini quizzes: 20%

Chief examiner(s)

Dr Gerry Rayner

Contact hours

Two 1-hour lectures and one 3-hour practical

Prohibitions

BIO1722, BMS1021

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

A study of the biology of whole organisms, organ systems and cells, including molecular genetics, and the effect of environmental parameters on biological functions. The biology of microbes and animals is emphasised. Ecological factors that are biologically important at the level of integrated whole organisms and at cellular, subcellular, and biochemical levels are considered for each organism under study. As for BIO1011 the unit is structured to encourage self paced learning with considerable feed back on individual performance.

Outcomes

On completion of this unit, students will have a good understanding of microbial diversity, molecular genetics and genetic engineering and the biochemistry and physiology of organ systems, including homeostasis, nervous and muscular-skeletal systems, animal reproduction and development and nutrition. Students will gain further skills in laboratory procedures and techniques, including Gram staining, gel electrophoresis, and spectrophotometry. Students will also gain skills in data analysis and the use of computer software for such. Interactive practicals include topics in field biology and the structure of the mammalian reproductive system. Finally, students will further their skills in using library facilities, including the use of research databases.

Assessment

Examination (2.5 hours): 40%
Practical work: 30%
Essay:10%
Mini quizzes: 20%

Chief examiner(s)

Dr Gerry Rayner

Contact hours

Two 1-hour lectures and one 3-hour practical

Prerequisites

BIO1011

Prohibitions

BIO1711

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

A study of the biosphere, environmental conditions and their effects on animals, plants and communities; responses of organisms to environmental conditions; interactions between plants and animals; environmental genetics and microbiology; management of biological resources; and an introduction to ecology and the impact of humans on the environment. As for BIO1011 the unit is structured to encourage self-paced learning with considerable feedback on individual performance.

Outcomes

On completion of this unit, students will understand how humans interact with their biological environment; appreciate the diversity of plants, animals and their habitats; develop skills to assess the biological health of the environment; appreciate the special multidisciplinary nature of research in environmental biology; have developed skills to carry out and write up a research project; and will have skills in analysis and the presentation of quantitative information in environmental biology.

Assessment

Examinations (2.5 hours): 40%
Practical work: 30%
Essay: 10%
Miniquizzes: 20%

Chief examiner(s)

Dr Gerry Rayner

Contact hours

Two 1-hour lectures and one 3-hour practical (or tutorial equivalent) per week

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit aims to present normal physiological function of the major organ systems in vertebrates. The emphasis is on the study of discrete cell populations and organs within each system and the integration of these systems to meet the needs of the functioning organism. The relationship between structure and function is an underlying theme of the course. Laboratory and tutorial classes are divided into two streams: the human/ medical stream or the animal/ veterinary stream; students select the stream appropriate to their study program and interests.

Outcomes

On completion of this unit students will be able to recognise the major anatomical features of the vertebrate body; describe the normal physiological function of the major systems of vertebrates; describe the behaviour of individual cell populations within each of these systems; appreciate the integration of the activities of individual cell population to create a functioning system; understand the control mechanisms which operate within each system and within the functioning organism; measure physiological responses under a range of experimental conditions and choose appropriate reference material to interpret these responses.

Assessment

Mid-semester test (theory): 25%
End-of-semester test (theory): 45%
Practical work (assessed by attitude and performance in the lab and by laboratory reports submitted throughout the semester): 30%
A pass in both theory and practical work is mandatory to pass this subject.

Chief examiner(s)

Dr Wendy Wright

Contact hours

Two 1-hour lectures and two 1-hour tutorials per week, plus eight 3-hour laboratory exercises every semester

Off-campus attendance requirements

OCL students complete laboratory component using home experimental kits. Optional weekend schools also offered.

Prohibitions

BIO1022

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit begins with a study of the molecules making up the cell: carbohydrates, lipids, proteins and nucleic acids. This forms the basis for the consideration of cell structure and function. The principles of cellular organisation, cellular metabolism and genetics are introduced. The laboratory program illustrates fundamental aspects of the theory course.

Outcomes

On completion of this unit, students will be able to sketch a representative animal and/or plant cell; recognise cell organelles and state their function; draw representative structures for each of the major classes of biological macromolecules; appreciate the roles of biological macromolecules in living cells; demonstrate an understanding of the relationship between macromolecular structure and function; discuss the cooperative action of the biological macromolecules responsible for cell function such as membrane transport processes and cell division; recognise common features of energy transduction systems in plant and animal cells; acquire basic laboratory skills eg measurement of mass, volume and time, recording and interpretation of experimental data, report writing.

Assessment

Mid-semester test and final examination: 70%
Practical work 30%
A pass in both the theory and practical components is mandatory

Chief examiner(s)

Dr Wendy Wright

Contact hours

Three 1-hour lectures and one 1-hour tutorial per week, six 3-hour laboratory classes per semester

Off-campus attendance requirements

OCL students complete laboratory component using home experimental kits

Prohibitions

BIO1011, BIO1626

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit is an introduction to ecology; the scientific study of the interactions between organisms and their environment. Ecology and biodiversity forms the foundation for understanding conservation and the management of genetics, species and ecosystem diversity. The approach taken is to address core ecological theory, but with an emphasis on contemporary management issues and applications. Topics include the scope and approaches of ecological enquiry; abiotic and biotic factors determining distributions; population growth and regulation; species interactions; patterns and maintenance of biodiversity; food web analysis; disturbance and succession; and production ecology and nutrient cycling. Particular emphasis is placed on integrating ecological processes across spatial and temporal scales. Practical work can be completed through team-based projects conducted during a pre-semester field camp, or on two day field excursions (Clayton: weekends, Sunway: Friday to Sunday) during the semester, together with in-laboratory practical sessions.

Outcomes

On completion of this unit students will be able to:

1. Describe the modern scope of scientific inquiry in the field of ecology.
2. Describe the differences in the structure and function of different types of ecosystems.
3. Identify and describe the fundamental drivers of patterns in diversity at local, landscape and global scales.
4. Explain the main limitations on patterns of energy flow through natural food webs and ecosystems.
5. Quantitatively describe patterns in populations and communities.
6. Apply basic ecological sampling techniques in aquatic and terrestrial ecosystems and be proficient in summarising and reporting that data in the format of a scientific paper.

Assessment

Theory examination (2 hours): 45%
Continuous assessment (quizzes): 10%
Practical assessment (two 1500 word project reports): 30%
Population ecology exercise: 15%

Chief examiner(s)

Dr Jill Lancaster

Contact hours

Two 1-hour lectures and one 3-hour practical or equivalent

Prerequisites

24 points of level one units, which includes 6 points from BIO units or one of ATS1301, ATS1309 or ATS1310.
For Bachelor of Environmental Engineering and associated double degree students only: ENE1621 Environmental engineering and BIO2040 Conservation biology will be required as either prerequisite or corequisite units.

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

The historical development of evolutionary ideas and the processes of natural selection as currently understood. Theories and techniques of reconstructing evolutionary history and the use of these approaches as tools for addressing practical problems. The history of life on earth and the role of evolutionary events such as mass extinctions and adaptive radiations in that history. Developmental and genetic processes in evolutionary change. Adaptation in the natural world.

Outcomes

On completion of this unit, students will learn the historical development of the theory of evolution and the evidence for the occurrence of evolution; understand the fundamental processes of evolution; be familiar with the major evolutionary events in the history of life, including chemical origins, emergence of eukaryotes, metazoans, and vertebrates, and mass extinctions; and understand the principles of classifying organic diversity and the techniques for inferring the evolutionary relationships of organisms.

Assessment

Mid-semester theory examination (2 hours): 25%
Final theory examination (2 hours): 25%
Practical assignments: 50%

Chief examiner(s)

Professor Rob Pike

Contact hours

Two 1-hour lectures and one 3-hour practical or equivalent

Prerequisites

BIO1011 and either BIO1022 or BIO1042

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit deals with threats to the environment associated with human activities and potential solutions to redress their impacts. Recent losses of biota have been caused by habitat loss and degradation, climate change and pollution, the introduction of exotic species and overexploitation of natural resources. Science-based conservation measures are explored that may reduce loss of biodiversity/ecosystem function, including habitat preservation and restoration, combating climate change, and intensive conservation of species. We analyse how conservation efforts may involve trade-offs with biological, economic, social and political factors.

Outcomes

On completion of this unit students will: be aware of the key environmental issues currently facing humankind and the role that humans play in environmental degradation and species extinction; have a sound knowledge of conservation techniques that can be used to restore habitats and ecosystem function and reduce species extinctions; understand the special problems involved in trying to conserve endangered species; be able to appreciate the complex political, economic and social issues involved in conservation biology.

Assessment

Theory examination (2 hours): 50%
Practical assessment (1 class): 5%
Issues paper (1500 words): 20%
Project: 25%

Chief examiner(s)

Dr Dave Chapple

Contact hours

Two 1-hour lectures and one 3-hour practical (or equivalent)

Prerequisites

24 points of level one units; except for students enrolled in the Bachelor of Environmental Engineering who are exempt from this rule

Prohibitions

ENV2726, BIO2042

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit introduces students to different kinds of genetic variation and the ways in which they are, and are not, important in fitness of individual organisms and viability of populations. A major distinction is made between functional genetic variation as opposed to the non-functional genetic variation typically used as a source of DNA-based tools to study the biology of organisms and their populations. After exploring these concepts, the unit expands on the control and inheritance of traits that have major influences in the lives of organisms. There follows an investigation of how ecological and conservation genetics is applied to real-world research and biological management, in a coherent progression from fine scale 'wildlife forensics', relatedness, parentage, through 'landscape genetics' to phylogeography and phylogenetics. Recent revolutions in these fields are outlined. The concepts are illustrated by exploration of exciting examples encompassing pure and applied science, including urban ecology, invasion and conservation biology, global change ecology, and associated practical work. We explore the relationship between genetic variation and extinction risk of populations and species. Finally, we investigate how genetic variation in organisms is associated with ecosystem function, ecological community structure and protection against environmental change.

Outcomes

After completing this unit the student will:

1. understand the principles underlying interactions between the genotypes of organisms and their environment;
2. understand the application of those principles to ecology and conservation management and thus comprehend the roles of this field of study as it applies to society;
3. be able to apply practical and analytical skills in ecological, evolutionary and conservation genetics involved in the conduct of ecological studies;
4. be able to apply principles of experimental and survey design, data collection and interpretation, in the field of ecological and conservation genetics;
5. be able to synthesize and communicate scientific principles and information underlying ecological and conservation genetics in oral and/or written formats.

Assessment

Practical assignments: 30%
Mini-quizzes: 20%
Final examination: 50%

Chief examiner(s)

Dr Paul Sunnucks

Contact hours

Two hours of lectures and three hours of practical, per week

Prerequisites

12 credit points of level one biology

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit surveys diverse plant groups and related organisms, including fungi, algae, bryophytes, ferns, gymnosperms and angiosperms. A strong emphasis is placed on angiosperms, the major group of plants in the Australian flora. We discuss the major characteristics of each group, including their reproductive biology, and use key features for plant identification in practical classes. As we move through this diverse range of plants we discuss their evolutionary relationships and the adaptive significance of their key features.

Outcomes

On completion of this unit, students should have gained an understanding of plant diversity and evolutionary relationships within the plant kingdom, a basic knowledge of the Australian flora and developed practical skills in plant identification.

Assessment

Theory examination (2 hours): 40%
Practical exam (2 hours): 15%
Continuous assessment (mini quizzes): 10%
Practical assignments: 20%
Plant project: 15%

Chief examiner(s)

Associate Professor Martin Burd

Contact hours

Two 1-hour lectures and one 3-hour practical per week (or equivalent)

Prerequisites

BIO1011 and either BIO1022 or BIO1042, or permission

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Examines the diversity of animals and organises them in a systematic way using their evolutionary history. We examine a range of representatives from different animal phyla, starting with the structurally simple and progressing to mammals, in the context of emerging and changing patterns in their body plans. These are related to changes in the ecology and diversification within the phyla. Concepts and theories developed during the theory part of the course are developed further in the practical classes. During these interactive sessions use of live material is made for observation and the characters used to group animals into higher taxonomic groups are demonstrated and discussed.

Outcomes

On completion of this unit, students will understand the origin of animals and how they differ from other living organisms; understand the relationship between animal diversity and evolutionary derived changes in animal body plans; encounter a range of living and preserved invertebrate and vertebrate animals and be able to subsequently identify major animal phyla; have developed skills in library and field research, data and information gathering, collation and organisation suitable for the preparation of a scientific report; developed problem-solving skills in both individual and team setting; mastered basic laboratory techniques associated with examining and handling zoological specimens

Assessment

Final theory exam (2 hours): 35%
Final practical exam (2 hours): 25%
Continuous assessment (miniquizzes): 10%
Practical assignments: 20%
Research project: 10%

Chief examiner(s)

Dr Ross Thompson

Contact hours

Two 1-hour lectures and one 3-hour practical (or equivalent)

Prerequisites

BIO1011 and either BIO1022 or BIO1042, or permission

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

We examine how the form and function of animals enables them to meet their need to survive and reproduce. To do this, animals acquire, process and use energy to cope with challenges in the internal and external environments through a wide variety of physiological, morphological, reproductive and behavioural adaptations. In order to understand unifying principles, we examine the amazing variety of different solutions to common problems that animals encounter. Concepts and theories in lectures are expanded and developed in interactive practical classes where animal, digital sensor and model examples are used.

Outcomes

On completion of this unit students will:

1. be able to describe the relationships between functional anatomy, physiology and behaviour of animals that allow them to survive and reproduce;
2. have mastered basic laboratory techniques in order to be able to identify morphological features in a range of living and preserved animals and be able to relate these features to their function;
3. have developed skills in library and field research, data and information gathering, collation and organisation suitable for the preparation of a scientific report;
4. have developed problem-solving skills in both individual and team settings.

Assessment

Final theory exam (2 hours): 35%
Final practical exam (2 hours): 25%
Research project: 13%
Miniquizzes and reports: 27%

Chief examiner(s)

Dr Richard Reina

Contact hours

Two 1-hour lectures and one 3-hour practical (or equivalent

Prerequisites

BIO2231 or permission

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit deals with the structure and function of plants at different levels of organisation from the cellular to the whole plant. Topics include general plant structure and anatomy, and structural adaptations of plants to different environments. Aspects of plant function and physiology include nutrient and water uptake and transport, gas exchange and assimilation processes and how plant function, plant growth and plant form are modified by interactions with the environment. The link between structure and function of plants is stressed throughout this unit.

Assessment

Theory examination (Two 1-hour exams): 40%
Practical: 40%
Essay: 10%
Miniquizzes: 10%.

Chief examiner(s)

Professor John Beardall

Contact hours

Two 1-hour lectures and one 3-hour practical per week (or equivalent)

Prerequisites

BIO2181 or permission

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

The unit will analyse the basic parameters of animal health with respect to symptomatic observation and measurement of disturbance to body function through to clinical diagnostic methods. Disease states will be explored as case studies of common diseases in farm and pet animals and via analysis of the impacts of disease on the various organ systems of the body. Disease treatment and control methods will be described together with basic information on microbial infection systems relevant to animal protection and treatment. Information concerning specific health issues in various species will be explored via a number of examples. Specialist lectures from animal welfare and veterinary staff will be used to detail these examples and provide practical contexts. Practicals will explore the techniques and analyses of modern veterinary medicine.

Outcomes

1. To impress the importance of hygiene, nutrition and welfare in animal health;
2. To describe the main features of a range of diseases and their symptoms in pet and farm animals;
3. To outline the importance of observation and measurement of symptoms and the role of modern diagnostic medicine in disease control;
4. To allow students to develop a basic understanding of diagnostic testing and interpretation;
5. To discuss the importance of disease control and research in the welfare and maintenance of animals.

Assessment

12 Tutorial quizzes: 10%
10 Practical assignments/reports: 40%
Final examination: 50%

Chief examiner(s)

Professor Mark Sandeman

Contact hours

Two hours of lectures and four hours of tutorials and/or practical work per week

Off-campus attendance requirements

Residential program over three days on campus

Prerequisites

BIO1711

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

In this unit students will explore the anatomy and physiology of the human reproductive system. The changes in structure and function of tissues and organs during embryonic and foetal development will be considered. Relevant pathological states will highlight key aspects of dysfunction. Principles of human inheritance will be studied, with an emphasis on inherited disorders and gene therapy. Finally, students will consider the factors that influence the distribution and maintenance of genes within human populations.

Outcomes

On completion of this unit, students will be able to explain the processes required for reproduction of individual cells and differentiate between meiotic and mitotic cell division; explain the physiology of the male and female reproductive systems, relating it to the general anatomy of these systems; explain how the endocrine system controls reproductive function in the male and the female; demonstrate an understanding of the processes of gametogenesis and fertilization; describe the process of implantation and embryogenesis; describe how organs are formed from the primary germ layers; describe the major stages of prenatal development: pre-embryonic, embryonic and foetal and the major events within these stages; discuss the development of foetal circulatory and respiratory systems and describe the changes that take place in the natal and post-natal period; discuss maternal adaptations to pregnancy; explain the genetic basis of heritable disorders (sex-linked, autosomal dominant, autosomal recessive, spontaneous mutation); explain the role of genetic markers in screening for genetic disease and the potential applications of gene therapy; explain how genetic variation in populations is measured; discuss the roles of gene flow, selection and genetic drift in establishing population characteristics.

Assessment

One major assignment (3000 words): 20%
Case study: 10%
Examination (3 hours): 70%

Chief examiner(s)

Dr Phillip Brook-Carter

Contact hours

36 hours of lectures and 24 hours of practical/tutorial classes per semester

Prerequisites

BIO1722

Prohibitions

BIO2722

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Principles of Physiology will build on the foundations learnt in BIO1711 Vertebrate Biology to examine several physiological systems, with an emphasis on control mechanisms. The unit will consist of four themed sections: Homeostasis and Coordination, Cardiovascular System, Environmental Exchanges and Balance, and Nutrient Exchange and Utilisation. The unit will also explore interactions between systems in the maintenance of homeostasis. Laboratory and tutorial classes are divided into two streams: the human/ medical stream or the animal/ veterinary stream; students select the stream appropriate to their study program and interests.

Outcomes

Upon completion of the unit students will be able to:

1. explain the concept of homeostasis and the principles of negative and positive feedback mechanisms, illustrated within the context of the neural and endocrine systems;
2. outline the processing of information within the central nervous system;
3. describe how the endocrine system acts as a regulatory system within the body;
4. explain how basic life processes are controlled and integrated through nervous and endocrine activity;
5. describe the structure and function of the heart, blood and blood vessels, and how the perfusion of the body's tissues is maintained and regulated according to physiological need;
6. explain how the respiratory system functions to exchange blood gases;
7. describe how the renal system functions to maintain the body's fluid and electrolyte balance and the extracellular volume;
8. evaluate the interactions of the respiratory and renal systems in the maintenance of the extracellular pH;
9. describe how the body satisfies its requirement for energy and appropriate nutrition;
10. demonstrate practical skills in the measurement of simple physiological parameters and the evaluation and interpretation of experimental data;
11. demonstrate communication skills through written reports and participation in on line discussion of topics being considered in the unit and display the ability to work effectively in small groups.

Assessment

Workshop assessment: 20%
Case based integration assignment: 20%
Examination: 60%

Chief examiner(s)

Associate Professor Jennifer Mosse

Contact hours

Three 1-hour lectures and one 2-hour workshop per week

Off-campus attendance requirements

Nil

Prerequisites

BIO1711 and BIO1722

Prohibitions

BMS2031, PHY2021 and PHY2032

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

The philosophy of science. Writing and assessing scientific papers and reports. The analysis and interpretation of biological data, especially the design and analysis of experiments. This unit is a pre-requisite unit for Honours in Biology (BIO4100 and BIO4200).

Outcomes

On completion of this unit, students will understand the basic principles underlying the philosophy of science, understand and develop critical, analytical skills in writing, assessing and publishing scientific papers and reports and interpretation of biological data. Students will develop basic skills in the process of obtaining research funding. A specific aim of the unit is for students to develop skills in, and become familiar with design and analysis of experiments and biological sampling programs.

Assessment

Theory examination (2.5 hours): 50%
Practical examination (2 hours):25%
Practical work and assignments: 25%

Chief examiner(s)

Dr Ross Thompson

Contact hours

Two 1-hour lectures and equivalent of 3 hours laboratory/tutorials per week

Prerequisites

12 points from level two BIO, BTH, ENV or GEN units and either SCI1020 or STA1010 or STA2010 or permission. Recommended unit: BIO2011

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit investigates the organisms and the processes that drive marine ecosystems. We deal with the trophic structure of marine ecosystems, including primary and secondary production, microbial loops, food webs and their importance for marine fisheries. The implications of the characteristic life cycles of marine organisms to their geographical distribution are also considered. These topics are placed in the context of specific marine ecosystems including coastal habitats, coral reefs, open oceans, the deep sea and polar ecosystems. The practical component comprises a field trip (fee payable) either to Heron Island in December or the Queenscliff Marine Station in February where students work in small groups on specific aspects of marine biology.

Outcomes

On completion of this unit, students will be able to:

• describe the diversity and ecological importance of marine life;
• explain the fundamental physiochemical and physiological processes underlying the productivity of marine environments;
• describe the ecological dynamics of marine ecosystems;
• discuss the impact of human activity on the sustainability of marine ecosystems;
• critically review some of the important current trends in marine biology;
• employ a critical, analytical approach to scientific research;
• demonstrate skills in writing scientific reports and in oral communication of scientific information.

Assessment

Examination (2.5 hours): 50%
Practical work/field work/project work: 40%
Miniquizzes: 10%

Chief examiner(s)

Professor John Beardall

Contact hours

Two 1-hour lectures, equivalent of 3 hours laboratory/field work per week

Prerequisites

12 points from level two BIO units including either BIO2181 or BIO2231

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit deals with several key areas of animal behaviour. We investigate animal communication systems, with particular emphasis on how signals are produced, transmitted and received, their information content and how they are sometimes used in social manipulation. We then go on to explore the way in which behaviour develops during the animal's early life and the various influences that shape this development before moving on to examine the genetic regulation of behaviour, how behaviour evolves and how we can use comparative methods to study this process. The rest of the unit is then devoted to behavioural ecology which deals with the role of behaviour in the animal's interactions with its environment and the ways in which the environment shapes adaptive behaviour on an evolutionary time scale. Topics covered in this area include foraging and anti-predator behaviour, social organisation, mating systems and parental care.

Outcomes

On completion of this unit, students will be able to:

1. describe the mechanisms underlying behaviour;
2. use examples to explain how behaviour develops and why it is adaptive;
3. design, conduct and analyse the results of an extended research project, and
4. effectively communicate findings to a scientific and a general audience in individual and group settings.

Assessment

Examination (2.5 hours): 50%
Project outline: 5%
Project report: 35%
Group poster presentation: 10%

Chief examiner(s)

Dr Bob Wong

Contact hours

Two 1-hour lectures and 3 hours practical work per week

Prerequisites

12 points from level two BIO units, including BIO2242

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

How plants respond to their environment, from molecular changes in gene expression to effects on communities. Plant development and responses to environmental stresses such as drought, temperature and salinisation, and global climate change. Manipulation of plant performance by means of genetic engineering and the ethical issues involved.

Outcomes

On completion of this unit students will understand the basic processes governing the ways in which plants respond to their environment, from alterations in patterns of gene expression, through differences in metabolic activities to changes in morphology; have an understanding of the mechanisms by which plants cope with specific stresses in their environments, including drought, salinisation, extreme temperatures and global climate change; have developed a critical, analytical approach to scientific research and have developed skills in writing scientific reports

Assessment

Examination (2.5 hours): 60%
Practical work: 40%

Chief examiner(s)

Dr Tim Cavagnaro

Contact hours

Two 1-hour lectures and the equivalent of 3 hours laboratory work per week

Prerequisites

12 points from level two BIO or GEN units. Recommended: BIO2282

Prohibitions

BIO2082

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit focuses on the factors influencing the distribution, composition and structure of Australian plant communities, and the characteristics of the component plant species. The roles of contemporary environmental and historical factors are discussed. Methods of quantifying community parameters are covered in the practical course. There is a five-day field excursion (to the Grampians) during the Easter break (fee payable).

Outcomes

At the end of this unit students should; know the major characteristics of the main Australian vegetation types, understand the basic ecological and historical processes influencing the characteristics of the vegetation types and their component species, appreciate the complexity of interactions occurring within the plant environment, be familiar with the methodological approaches that are used in plant ecology.

Assessment

Examination (2.5 hours): 50%
Practical report: 30%
Essay: 20%

Chief examiner(s)

Dr Patrick Baker

Contact hours

Two 1-hour lectures, equivalent of 3 hours laboratory plus field work per week

Prerequisites

12 points from level two BIO units including BIO2011 or BIO2051, or by permission. Recommended: BIO2181 and BIO2022

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Ecological knowledge needs to be incorporated in many areas of application, including natural resource management, invasive species responses, and biodiversity and conservation. The unit will focus on teaching core skills in applied ecology that should inform any management process. There is less emphasis on policy and legislative issues, except where they directly affect management decisions. The unit will focus on a range of issues that are of current importance in both academic research areas and also in important new policy developments in Victoria and in Australia generally. The practical component will consist of three projects that directly relate to the three lecture units within the unit.

Outcomes

On completion of this unit, students will have a grounding in the principles of landscape ecology, the application of the adaptive management process in natural resource management including ecological-economic trade-offs, issues and possible solutions to threats posed by invasive species, methods of biodiversity management and an understanding of the need to cater for genetic variation and evolutionary potential. Students will have a firm grounding in the ecological theory on which natural resource management is based. Students will become familiar with some of the techniques available to managers and decision-makers, be able to critically evaluate management techniques, be aware that management is conducted within a socio-economic framework, and be familiar with some of the main issues confronting biological resource managers today. They will be able to express informed opinions on the economic, ethical and political considerations of resource management.

Assessment

Examination (2 hours): 60%
Practical reports (three, 10% each): 30%
Feedback assignments (five, 2% each): 10%

Chief examiner(s)

Dr Rohan Clarke

Contact hours

Two 1-hour lectures and 3 hours laboratory work per week

Prerequisites

BIO2040 or BIO2042, and BIO2011, or permission

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit builds upon basic ecological concepts to provide the theory and practical experience needed to understand, manage, monitor and conserve inland aquatic ecosystems. It considers the abiotic and biotic components of freshwater ecosystems, especially the dynamics of energy and nutrients, trophic structure and interspecific interactions, and the patterns and processes supporting aquatic biodiversity.

Outcomes

On completion of this unit students will have an understanding of the components, processes and services/values that characterise flowing (rivers and streams) and standing (wetlands, lakes and ponds) waters. Experience will be gained in applying practical methods (both in the field and laboratory) to obtain, analyse and interpret ecological datasets. Research skills will be developed through designing, undertaking and communicating a freshwater project.

Assessment

Examination (3 hours): 60%
Practical work: 40%

Chief examiner(s)

Professor Jennifer Davis

Contact hours

Two 1-hour lectures, 3 hours laboratory/field work per week

Prerequisites

BIO2011 or BIO2051, and either BIO2231 or BIO2181.

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

The diversity and biology of Australian vertebrates will be investigated in relation to biogeographical history and ecology of the region. The course examines the biology of Australian vertebrates as examples of the physiological, behavioural and nutritional adaptations that animals around the world develop in response to environmental challenges. Specific topics will include; life history strategies of birds and mammals with particular emphasis on marsupials, clutch size in birds and the relationship to latitude, cooperative breeding in birds, physiological adaptations to temperate and arid conditions, and feeding adaptations in relation to the evolution of dietary resources.

Outcomes

On completion of this unit, students should have; development of an understanding of the historical factors that have influenced the evolution of the Australian vertebrate fauna; development of an understanding of the significance of physiological, behavioural and nutritional adaptations in vertebrates in relation to their ecology; development of an introductory knowledge of techniques for investigating the functional biology of organisms; development of skills in oral and visual communication of biological concepts

Assessment

Examination (2.5 hours): 50%
Written reports: 40%
Oral presentation 10%

Chief examiner(s)

Dr Christopher Johnstone

Contact hours

Two 1-hour lectures and the equivalent of 3 hours of practical and/or field work per week

Prerequisites

12 points from level two BIO units, including BIO2242.

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit provides students with advanced knowledge and practical skills in plant and cellular biotechnology. Coverage of key current and emerging topics in the subject area will include recombinant DNA methodology and genomics; plant cell and algal in vitro culture methods; cellular physiology and development; industrial exploitation using bioprocessing procedures; nutritional enhancement and elevated tolerance to environmental stress in crops; engineering of metabolism; production of innovative vaccines; rhizosphere biotechnology and bioremediation of unhealthy environments; ethical, legal and commercial aspects of genetically altered plants and bioproducts.

Outcomes

On completion of this unit students will understand the vast scope of plant and cellular biotechnology and appreciate its potential for improvement of the human condition and maintenance of a healthy environment - both in the Australian context and globally. Students will further develop their capacity to evaluate critically the current literature in this fast moving subject area. Also, students will have increased ability to plan experiments and collect and collate their own experimental data and present it for assessment. In undertaking experimental analyses, students will also acquire advanced practical skills of relevance to plant and cellular biotechnology industries within Australia and internationally.

Assessment

Examination: 50%
Practical performance and report writing during semester: 25%
Research technique summary (500 words): 7.5%
Oral presentation: 7.5%
Essay: 10%

Chief examiner(s)

Prof John Hamill

Contact hours

Two hours of lectures and one tutorial per week, plus 36 hours of practical work per semester

Prerequisites

BIO1011 and either BIO1022 or BIO1042; plus 12 points of level two units chosen from BIO2082, BIO2181, BIO2282, BCH2011, BCH2022, any BTH2XXX unit, GEN2041, GEN2052, MOL2011, MOL2022, MIC2011 and MIC2022

Prohibitions

BTH3611

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit examines the biology of tropical aquatic ecosystems. It focuses on South East Asia, (the Malaysian region in particular) but will also encompass aquatic environments in other parts of the tropics. The ecology and diversity of communities in coral reefs, oceans, sandy and rocky shores, estuaries, lakes, rivers and swamps is examined. The students will gain an understanding of the physical and chemical factors that affect these environments. Conservation and management issues such as the impacts of tourism, pollution, fisheries, wetland drainage and river regulation are studied.

Outcomes

On completion of this unit students will have gained an introduction to the diversity and ecology of freshwater and marine environments in the tropics with particular reference to the Malaysian region. The students will gain an understanding of the conservation and management issues relating to aquatic ecosystems. The students will develop skills to design and analyse sampling programs to examine the flora and fauna of aquatic habitats and to assess changes.

Assessment

Essay: 15%
Class presentation: 5%
Mid-semester test: 20%
Field trip assignment: 5%
Field trip practical report: 20%
Final examination: 35%

Chief examiner(s)

Associate Professor Catherine Yule

Contact hours

Two 1-hour lectures, one 1-hour tutorial and one 3-hour practical session or equivalent per week

Prerequisites

BIO1011, BIO1022. Recommended: BIO2011

Prohibitions

SCM3011

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This subject examines the biology of terrestrial tropical ecosystems. It focuses on South East Asia, the Malaysian region in particular, with its diverse habits including lowland dipterocarp forest, peat swamp forests, montane cloud forests, heath forests, limestone vegetation and karst with associated cave formations. In terms of biodiversity, the Indo-Malaysian region is one of the richest in the world, and factors influencing the high biodiversity will be examined. Students will gain an understanding of the importance of climate, nutrient cycling, disturbance, and forest dynamics, on the ecology of tropical plants and animals. Conservation and management issues such as conflicting land-use requirements, peat swamp drainage, logging and fire are discussed.

Outcomes

On completion of this unit, students should be able to:

1. demonstrate an understanding of the diversity, structure and function of a range of tropical ecosystems;
2. demonstrate an understanding of conservation and management issues relating to tropical ecosystems;
3. demonstrate and understand the importance of climate, nutrient cycling, disturbance and forest dynamics, on the ecology of tropical plants and animals;
4. design, analyse and undertake sampling programs to examine the flora and fauna of tropical habitats;
5. demonstrate advanced scientific report writing skills;
6. make effective oral and visual presentations;
7. work collaboratively and effectively in teams.

Assessment

Essay: 20%
Mid-semester test: 20%
Field trip project: 30%
Final exam: 30%

Chief examiner(s)

Associate Professor Catherine Yule

Contact hours

Two 1-hour lectures and one 1-hour tutorial per week (or equivalent), plus one 5-day field trip (or equivalent)

Prerequisites

BIO1011, and one of BIO1022 or BIO1042. Recommended: BIO2011

Prohibitions

SCM3022

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

An individual research project in a discipline relating to a major area of study, conducted under supervision. Includes critical literature review, experimental design and data analysis. Student must maintain regular contact with supervisor(s) and subject coordinator.

Assessment

Two oral reports: 20%
Two written reports: 55%
Supervisor's assessment of project planning, conduct and development: 25%

Chief examiner(s)

Dr Damian Dowling

Contact hours

Approximately 12 hours per week

Prerequisites

Permission of the Head of School plus students must have approval of project and supervisor prior to enrolment. In addition students must have a distinction average across 24 points of level 2 BIO/GEN units, including a minimum of 12 points in the discipline directly relevant to the project.

Prohibitions

SCI3740, SCI3990

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Students undertake a supervised research project. Students will present the results of their research project in a seminar. Candidates may commence the honours year at the beginning of either first or second semester. Further information is available from the course coordinators and at a meeting held with prospective students during second semester of third year.

Assessment

Research project with written report on the results: 93%
Seminar based on research project 7%

Chief examiner(s)

Dr Tim Cavagnaro (First semester)
Dr Dave Chapple (Second semester)

Prerequisites

BIO3011 or by permission of the Head of School

Co-requisites

BIO4200 or BIO4280

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Students submit an essay on an advanced topic in biology that is distinct from the topic of the BIO4100/GEN4100 research project. In addition, they will attend lectures and complete practice exercises in Advanced Data Analysis. Candidates may commence the honours year at the beginning of either first or second semester. Further information is available from the course coordinator and at a meeting held with prospective students during second semester of third year.

Assessment

Essay: 50%
Lectures and exercises in Advanced Data Analysis: 50%

Chief examiner(s)

Dr Tim Cavagnaro (First semester)
Dr Dave Chapple (Second semester)

Prerequisites

BIO3011 or by permission of the Head of School

Co-requisites

BIO4100 or GEN4100

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit provides advanced instruction in quantitative methods, thesis writing and current topics to students enrolled in the honours program in biology. Students will gain an understanding of advanced experimental design, data analysis and scientific writing that will assist them in completing their honours thesis. Further classes and coursework relating to current topics in biology will assist students in critical analysis of journal articles, providing further support for their academic development in research science.

Outcomes

On completion of this unit students will be able to:

1. demonstrate an understanding of experimental design and sampling methods that are relevant to their research project;
2. demonstrate an understanding of the impacts of resource limitation on experimental design and implementation;
3. critically analyse articles from the scientific literature and use this ability to enhance the quality of their own written work;
4. express themselves clearly and effectively to a scientific audience;
5. complete assessment tasks expeditiously and competently.

Assessment

Essay: 50%
Statistics coursework: 30%
Examination: 20%

Chief examiner(s)

Dr Lee Sui Mae

Contact hours

One to three hours of lectures and/or tutorials per week over 12 weeks

Prerequisites

BIO3011

Co-requisites

BIO4100

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

The science of biotechnology and the structure of the industry and the relationship between academic research and commercial biotechnology will be explored. Particular emphasis will be placed on the development of biotechnology in Australia and Asian countries. The unit will help prepare students to pursue careers in biotechnology.

Outcomes

Students develop knowledge of or skill at: what biotechnology is; the science contributing to biotechnology; the structure of the biotechnology industry; Australian biotechnology; regional biotechnology; communication; conducting investigations; scientific thinking and problem solving technique; working in teams.

Assessment

Assignments (written and oral): 75%
Laboratory reports: 20%
Tutorial presentation: 5%

Chief examiner(s)

Dr Lynne Mayne

Contact hours

Two x 1-hour lectures per week, one x 2-hour tutorial per week, one x 4-hour laboratory session every third week

Prohibitions

BTH1802

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit will cover classical and modern biotechnology, including recent developments in molecular biology and its applications in such diverse areas as agriculture, forestry, food, medicine and marine sciences. This includes an introduction to bio-prospecting and pharmaceuticals; genomics, proteomics and bio-informatics; environmental and industrial biotechnology and the current issues and concerns surrounding biotechnology. Related topics such as human genome project, risk assessment, bio-safety and genetically modified organisms and crops, cloning, patents, ethics intellectual property rights and the regulatory framework for biotechnology in various countries will be discussed.

Outcomes

At the conclusion of this unit students will have an understanding of the essential techniques and the basic principles of molecular biology and recombinant DNA technology that are required for biotechnology; be familiar with the applications of biotechnology; and be well-informed of the fundamental ethical and regulatory issues surrounding this discipline.

Assessment

Final examination: 50%
Quizzes: 15%
Tutorial activities: 15%
Web pages: 20%

Chief examiner(s)

Dr Kumaran Narayanan

Contact hours

Two 1-hour lectures and three 1-hour online tutorials per week

Prohibitions

BTH1011

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Students will be introduced to intellectual property law and to the major regulatory regimes relevant to biotechnology research, development and commercialization. Ethical issues and controversies relating to biotechnology will also be examined. Students will be encouraged to develop strategies to identify and pursue career paths post graduation.

Outcomes

Students will develop knowledge of or skills at: Australian and major international intellectual property law regimes; biotechnology regulation; societal issues relating to biotechnology; approaches to career development; literature research; teamwork; and oral and written communication.

Assessment

Assignments (Total of 4500 words): 45%
Exam (2 hours): 40%
Oral Presentations: 15%

Chief examiner(s)

Dr Lynne Mayne

Contact hours

Two one-hour lectures per week and one two-hour tutorial per week

Prerequisites

BTH1011

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

In order to carry out any DNA manipulation a large variety of enzymes and specialised techniques are used. This unit will provide the opportunity to gain an understanding of the nature and use of the "tools of the trade" applied routinely by molecular biologists. This includes the management of biological databases. A wide variety of applications will be explored, ranging from human disease situations to genetic modification of crop species.

Outcomes

On completion of this unit, students will: understand basic principles of recombinant DNA technology, appreciate their applications in medical and industrial settings, understand the use of biological databases for data storage and demonstrate skill in data mining, and acquire skills in analysis, interpretation and presentation of experimental data.

Assessment

Examination (3 Hours): 60%
Online bioinformatics project: 20%
Practical and tutorial exercises: 20%

Chief examiner(s)

Dr Phillip Brook-Carter

Contact hours

Three hours of lectures and two hours of practical/tutorial per week.

Off-campus attendance requirements

Optional 2 day residential school

Prerequisites

BIO1722 or BIO1022, and BTH1802

Prohibitions

BMS2062, MOL2022, BTH3757

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

The unit begins with an introduction to the cellular environment, considering the interactions that stabilise biological macromolecules and the maintenance of constant pH within cells and organisms. Next, we will study the structure and function of proteins and the techniques for their isolation and purification. The composition of biological membranes and the structure of nucleic acids and their packaging within cells is considered. This is followed by a study of the mechanisms of synthesis, modification and degradation of nucleic acids and proteins. The mechanisms that control these processes are emphasised.

Outcomes

On completion of this unit students will appreciate the role of water as the primary solvent in living systems; understand the buffering mechanisms which operate in biological systems; be able to categorise biological molecules according to their structural and chemical characteristics; appreciate the role of non-covalent interactions in the maintenance of tertiary and quaternary conformation of biological macromolecules; understand the biological actions of selected macromolecules, singly or as components of aggregates; understand the principles of storage and transmission of genetic information; understand the control mechanisms which operate at the level of gene expression and discuss strategies for the isolation and purification of proteins from biological samples. Students will acquire laboratory skills, including the accurate measurement of physical parameters; use spectrophotometric methods to assay biological molecules in solution and acquire skills in the handling and presentation of laboratory data.

Assessment

Assignment work: 20%
Practical work: 30%
Examination (3 hours): 50%

Chief examiner(s)

Associate Professor Jenny Mosse

Contact hours

Three 1-hour lectures per week, 36 hours of laboratory per semester.

Prerequisites

CHM1011 and one of BIO1011, BIO1022 or BIO1722

Prohibitions

BCH2011

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

The unit begins with a general overview of metabolism and bioenergetics. This is followed by a comprehensive survey of cellular metabolism including: the generation of energy from major dietary components: carbohydrate, protein and lipid; the biosynthesis of carbohydrates, lipids and nucleotides; and amino acid metabolism. A study of photosynthesis illustrates the linkage between electron transport systems and biosyntheses. The integration and control of cellular biochemistry and the role of hormones in metabolic regulation is emphasised.

Outcomes

On the completion of this unit students should understand the mechanisms involved in the storage and processing of metabolic fuels and the control of metabolic reaction sequences; the specialised metabolic role of various tissues; the integration and regulation of metabolic processes. Students should demonstrate advanced laboratory skills, in particular data collection/interpretation and report writing.

Assessment

Assignment work: 20%
Practical work: 30%
Examination (3 hours): 50%

Chief examiner(s)

Associate Professor Jenny Mosse

Contact hours

Three hours of lectures per week and 36 hours laboratory classes per semester

Prerequisites

CHM1011 and one of BIO1022 or BIO1722

Prohibitions

BCH2022

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit introduces traditional and modern practices involved in crop production. It includes environmental, genetic, physiological and cultural factors influencing crop growth and yield, and emphasises the growth, development and yield of several important tropical crop species and their management for sustainable production. A field trip will enhance students' understanding of crop plant identification, soil and environmental factors affecting plant growth as well as pest management.

Outcomes

Upon completion of this unit, students will be able to recognise plant species of agricultural importance; demonstrate good understanding of the principles involved in crop production, methods used for crop improvement, , the important factors affecting crop growth and yield, and the sustainable production of some important tropical crops; and will have further developed skills in analysis, interpretation and presentation of data.

Assessment

Three projects: 30%
Two laboratory reports: 15%
One field trip: 5%
Final examination: 50%

Chief examiner(s)

Dr Adeline Ting Su Yien

Contact hours

Three hours of lectures per week. Three hours laboratory practical per week for eight weeks and one field trip to either a commercial plantation or a crop research station.

Prerequisites

BTH1802 and BIO1022

Prohibitions

BTH2800

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit will examine case studies of biotechnology research and development and will consider the industry context in which biotechnology is commercialised including: industry structure; methods of financing, management approaches; and product development.

Outcomes

Students will demonstrate understanding of how enabling technologies are applied in biotechnology; the structure of the biotechnology industry; methods of funding; approaches to the management of biotechnology innovation; and the potential of a specific biotechnology for commercial development. Students will demonstrate oral and written communication skills and the ability to work in small groups.

Assessment

Essay (3000 words): 40%
Tutorial reports (including class presentations) (4 x 750 words): 40%
Oral presentation and written report (1000 words): 20%

Chief examiner(s)

Dr Lynne Mayne

Contact hours

Two 1-hour lectures and one 2-hour tutorial per week

Prerequisites

BTH2012

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit discusses food as a habitat, the principles involved in microbiological spoilage of foods, micro-organisms of public health significance that cause food-borne illness, food safety and aspects of food preservation. Microbiological testing of foods is considered using current standard methods. The industrial microbiology section examines how micro-organisms are obtained, handled and maintained in industry and discusses the application of genetically modified micro-organisms. Fermentation modes and kinetic models are discussed using batch and continuous growth. Scale up and downstream processes of industrial fermentations and the role of micro-organisms in producing substances of industrial importance is discussed using antibiotics, hormones, membrane proteins and bioethanol as examples.

Outcomes

On completion of this unit students will be able to: discuss food as a habitat for micro-organisms; describe micro-organisms characteristic to the food industry and their roles in food production, food spoilage and food-borne illnesses; discuss principles involved in microbiological spoilage of food, microbial control, and methods of preserving foods; and discuss the importance of microbiological food criteria and HACCP systems for maintaining food safety in industry. Students also will appreciate the breadth of industrial microbiology; discuss the differences between chemical and microbiological industrial processes; discuss how different industries may obtain, handle, and maintain micro-organisms; utilise the basic principles behind the operation of batch and continuous fermenters, and discuss the different uses of batch and continuous fermentation; discuss the use of different methods of genetic improvement used to modify micro-organisms for industry; model growth kinetics and kinetics of biological activity in batch and continuous culture systems; consider variables when changing scale of fermentation systems; describe the application of industrial control systems such as SCADA for microbial fermentations, describe examples of the modification of chemical compounds in microbial processes; and discuss the use of micro-organisms with particular reference to their industrial product.

Assessment

Final written examination (3 hours): 60%
One major and two minor laboratory reports: 30%
One assignment (2000 words): 10%.

Chief examiner(s)

Associate Professor Jenny Mosse

Contact hours

Three hours of lectures and a 5-day block lab

Off-campus attendance requirements

OCL students will undertake a 5-day residential school (offered in even numbered years)

Prerequisites

BTH2722 or MIC2011

Prohibitions

BTH3776

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

BTH3722 focuses on infectious diseases of the organ systems, summarising the aetiology, pathogenesis and laboratory identification of important pathogens. The epidemiology of infectious disease and strategies for disease control are highlighted. The mode of action of antimicrobial drugs, their role in treating infectious disease and the problems of drug resistance are discussed. Techniques for laboratory diagnosis of infectious disease, and safe handling of pathogens, are emphasised.

Outcomes

On completion of this unit students will be able to explain how microbes cause disease, with particular emphasis on bacterial and viral pathogenicity; discuss the epidemiology of infectious disease; discuss the role of chemotherapy and the importance of drug resistance in the treatment of infectious disease; describe the role of microorganisms in selected infectious diseases associated with the different organ systems; discuss relevant diagnostic techniques used in clinical microbiology laboratories; describe and perform techniques used in diagnostic serology; and demonstrate competence in laboratory procedures for handling and processing microbiological specimens.

Assessment

Final written examination (3 hours): 60%
Assignment (2000 words) 10%.
Laboratory work: 30% (comprising performance: 10%, one full report: 5%, diagnostic lab worksheets and discussion: 7.5%, and project worksheets and discussion: 7.5%)

Chief examiner(s)

Associate Professor Jenny Mosse

Contact hours

Three hours of lectures/tutorials and 3 hours laboratory classes per week

Off-campus attendance requirements

OCL students will attend a 5-day residential school (offered in even numbered years)

Prerequisites

MIC2011

Prohibitions

MIC3041

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit begins by examining the fundamental principles of microbial ecology and the basic methods used in this area. It then considers the role of micro-organisms in biogeochemical nutrient cycles. Some important natural habitats for micro-organisms such as air, fresh water and salt water are considered with the main discussion centred on soil. The roles of particular soil micro-organisms within their microenvironments are explained with special attention being given to micro-organisms involved in transformations of carbon and nitrogen. The role of micro-organisms in composting, the management of pollution and as agents of bioremediation is discussed.

Outcomes

On completion of this unit students will be able to: demonstrate the use of basic methods in this area, notably monitoring, enumeration and sampling; discuss basic principles in microbial ecology, recognizing the role of micro-organisms as a mixed flora, and illustrate examples of microbial interactions; diagram the role of micro-organisms in biogeochemical nutrient cycles; discuss the role of different micro-organisms in air, water environments, and soils, predicting what results are likely to happen to populations and their effects when environmental parameters are changed; describe how micro-organisms can cause pollution; apply the use of micro-organisms as indicators of pollution; discuss the role of micro-organisms in sewage treatment; discuss the role of micro-organisms in composting; describe how micro-organisms can be exploited in bioremediation.

Assessment

Final written examination (3 hours): 60%
Laboratory reports: 30% +Assignment (2000 words) 10%. The laboratory reports comprise one major lab report worth 10%, and 5 smaller reports worth a total of 20%.

Chief examiner(s)

Associate Professor Jenny Mosse

Contact hours

Three hours lecture and three hours laboratory per week

Off-campus attendance requirements

OCL students will attend a 5-day residential program (offered in even numbered years)

Prerequisites

MIC2011

Prohibitions

BTH3797

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

The unit examines the pathways by which cells receive external information and process this into specific biochemical responses. We begin with a survey of different mechanisms of cellular signalling and their roles in 'normal' cellular activities and overall homeostasis. A diverse set of cellular processes is studied and the normal control mechanisms highlighted. This is followed by investigation of the dysfunction of signalling mechanisms in several disease states. Topics covered are: the cell cycle, apoptosis, haematopoiesis, atherosclerosis and HIV/AIDS. The aim is to demonstrate to students that dysfunction or inappropriate cellular signalling plays a key role in the pathogenesis of many common disease. Methods of clinical diagnosis are introduced and incorporated into the laboratory work, which is designed to illustrate concepts of the theory.

Outcomes

On completion of this unit students will be able to describe a range of cellular signalling mechanisms, understand endocrine control of cellular processes; discuss the dysfunction of signalling mechanisms in several common disease states; appreciate the use of biochemical and spectroscopic techniques in the diagnosis of disease; be able to plan and execute complex biochemical laboratory procedures; demonstrate proficiency in the interpretation of complex data acquired by biochemical and spectroscopic techniques; demonstrate basic competence in the safe handling of hazardous biological materials.

Assessment

Final examination (3 hours): 50%
Major assignment (5000 words): 20%
Practical work: 30%

Chief examiner(s)

Dr Phillip Brook-Carter

Contact hours

Three hours of lectures per week and 40 hours laboratory work per semester

Prerequisites

BTH2741

Prohibitions

BCH3021, BCH3042

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit focuses on recombinant DNA methodology and genomics, which underpin commercial developments in the rapidly expanding biotechnology industry. Advanced techniques for gene manipulation in prokaryotes and eukaryotes, methods for genome mapping and sequencing, and techniques for investigating gene and protein function, including mutagenesis, RNA interference and expression profiling, will be considered. Industrial and research applications of these technologies, such as genetic manipulation of plants and animals, gene therapy, virus detection and typing, recombinant vaccine production and personalized medicine will be explored.

Outcomes

On completion of this unit students will understand the molecular basis of a wide range of techniques for gene manipulation, and genomic and proteomic analysis; apply their knowledge to the pursuit of current scientific problems in industry, medicine and research; be able to critically evaluate a variety of approaches to a particular scientific or industrial problem; demonstrate proficiency a wide range of techniques for gene manipulation and in the interpretation of data acquired by these techniques; and demonstrate advanced report writing skills.

Assessment

3-hour end of semester examination: 50%
Critical analysis of scientific literature: 10%
Assignment (2000 words): 10%
Practical performance and report writing: 30%

Chief examiner(s)

Dr Phillip Brook-Carter

Contact hours

3 hours lectures per week and 36 hours practical work per semester.

Off-campus attendance requirements

A five day residential laboratory school.

Prerequisites

BTH2732

Prohibitions

BCH3031, BTH3757

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit examines the methods and protocols of bioinformatics, genomes, DNA and protein sequence analyses. Topics covered include methods of information retrieval from various internet databases; bioinformatics softwares, data entry of bioinformatics information, computer modelling of macromolecules, and functional genomics.

Outcomes

To understand information content and its flow in the biological systems, and the processes related to the flow; to learn to use bioinformatics software and computer models; to learn to analyse and interpret simple bioinformation data sets; to understand theoretical basis of mining bioinformation.

Assessment

Practical reports 35%,+ Mid-semester Test 15%,+ Final Examination 50%

Contact hours

2 hours of lectures, 2 hours practical and 1 hour tutorial per week

Prerequisites

BTH2746 or GEN2041

Prohibitions

BMS2062

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit introduces the role of plant breeding and its significance in plant biotechnology, plant genomes and organisation, the regulation of gene expression, plant cell and tissue culture methodologies, gene transformation techniques, the application of transgenic technology for crop improvement (including the production of transgenic plants resistant to abiotic and biotic stresses and crops with prolonged shelf life and enhanced nutritional value) and the use of transgenic plants as bioreactors for the production of novel proteins in medicine and industry.

Outcomes

Upon completion of this unit students will have developed an overall view of plant biotechnology; a clear understanding of the techniques involved in plant tissue culture; the ability to design constructs for genetic manipulation of specific agronomic characteristics in crops species; an understanding of the various strategies involved in the creation of existing plant transgenic crops; an appreciation of the potential role of genetic manipulation to produce novel plant products of potential economic importance; and will have further developed skills in analysis, interpretation and presentation of data.

Assessment

Practical reports (including assignments): 40%
Mid-semester test: 20%
Final examination: 40%

Chief examiner(s)

Professor Sadequr Rahman

Contact hours

Three hours of lectures and three hours of practical per week

Prerequisites

BTH1802 and GEN2041

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit allows students to develop laboratory research skills in the interdisciplinary field of pharmacological chemistry. Students will undertake a laboratory project involving both chemistry and pharmacology and will spend time in both chemistry and pharmacology laboratories.

Outcomes

Under supervision students will be able to:
design and carry out experiments; identify and critically evaluate and use research literature; conduct interdisciplinary projects composed of chemistry and pharmacology; implement safe working practices with chemicals, radio-isotopes and biological materials; and make oral presentations and write reports covering both chemistry and pharmacology intended for a research-level audience.

Assessment

Written reports: 80%
Oral reports: 20%

Chief examiner(s)

Dr Kellie Tuck

Contact hours

Six hours of supervised laboratory work and six hours of self-directed study

Prerequisites

CHM2911 and CHM2922 with a grade point average of at least 70; PHA3011 and PHA3021 with a grade point average of at least 70; and at least 12 points of level three chemistry.

Co-requisites

At least 18 points of level three chemistry (including the prerequisite 12 points) and PHA3042

Prohibitions

Course convenor approval is required to take either CHM3990 or PHA3990 with BTH3960

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Students will undertake a supervised research project. Candidates may commence the honours year at the beginning of either the first or second semester. Students will carry out a research project and present the results of their study in both written and oral form. Information about research projects will be available from the course coordinator towards the end of the preceding semester.

Outcomes

Students can:

1. design and implement a supervised research project;
2. execute and analyse research;
3. use computer data systems;
4. report scientific work;
5. communicate with scientists;
6. use technical skills;
7. do relevant research procedures;
8. pursue higher studies.

Assessment

Assessment will include a written thesis and oral defence. Final assessment methods will be advised by the unit coordinator prior to commencement.

Chief examiner(s)

Dr Lee Sui Mae

Contact hours

Full year

Prerequisites

Completion of the admission requirements for the Bachelor of Biotechnology Honours year or for the Science Honours Program

Co-requisites

BTH4200 or BTH4280

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

The unit aims to develop students graduate attributes relevant to a post-graduation career in biotechnology and associated areas. These will be learned in an interdisciplinary biotechnology context of the development of scientific knowledge and its commercialisation. From their previous studies, students will have knowledge of scientific invention and technological innovation. The unit will allow them deeper exploration of an aspect or aspects of this process. Students will also consider what scientific knowledge is and how it is challenged. The unit will require both team and individual work.

Outcomes

Students can:

1. research, analyse and report on an aspect of biotechnology;
2. engage in a major team activity;
3. demonstrate problem solving and critical thinking skills;
4. explain and apply theories of knowledge in a biotechnology context; and
5. communicate effectively.

Assessment

two written reports: (6000 words) 30% and (2000 words) 10%
essay (4000 words): 20%
two oral presentations: 20%
continuous assessment of group work (supervisor, peer and self-assessed): 20%

Chief examiner(s)

Dr Lynne Mayne

Contact hours

Workshops, seminars and individual or small group meetings with supervisors and mentors.

Prerequisites

Completion of the requirements for levels one to three of the Bachelor of Biotechnology

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit provides advanced instruction in quantitative methods, thesis writing and current topics to students enrolled in the honours program in biotechnology. Students will gain an understanding of advanced experimental design, data analysis and scientific writing that will assist them in completing their honours thesis. Further classes and coursework relating to current topics in biotechnology will assist students in critical analysis of journal articles, providing further support for their academic development in research science.

Outcomes

On completion of this unit students will be able to:

1. demonstrate an understanding of experimental design and sampling methods that are relevant to their research project;
2. demonstrate an understanding of the impacts of resource limitation on experimental design and implementation;
3. critically analyse articles from the scientific literature and use this ability to enhance the quality of their own written work;
4. express themselves clearly and effectively to a scientific audience;
5. complete assessment tasks expeditiously and competently.

Assessment

Essay: 50%
Statistics coursework: 30%
Examination: 20%

Chief examiner(s)

Dr Lee Sui Mae

Contact hours

One to three hours of lectures and/or tutorials per week over 12 weeks

Prerequisites

Completion of the requirements for levels one to three of the Bachelor of Science with Honours

Co-requisites

BTH4100

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Units CHM1011 and CHM1022 assume a background in VCE chemistry, or its equivalent, and are highly suited to students wishing to proceed further in chemistry, or those requiring a sound chemical knowledge for other units. CHM1011 introduces modern chemistry through biological, environmental and industrial examples. On completion students will have gained an understanding of how atoms and molecules interact with each other and how this affects their bonding, reactivity, 3-D structure and physical properties. The concepts developed within the lectures are strengthened in the laboratory, reinforced through small group tutorials, and supported with the aid of computer-based tutorials and tests.

Outcomes

On completion of this unit students will have developed an insight and understanding into the bonding and structure of a variety of simple organic molecules; aspects of isomerism; stereochemistry; the use of chemical nomenclature; and a knowledge of the classification, properties and reactions of a wide range of organic compounds according to the functional groups they contain; a basic understanding of the properties of atomic nuclei; variety and differences in atomic bonding; an understanding of wave-particle duality and the Schroedinger equation; an ability to interpret the relationships between electronic structure and bonding; an understanding of the principles of spectroscopy, an ability to use modern spectroscopic methods to deduce the structures of simple organic molecules; an understanding of basic inorganic molecular shapes and the properties of chemical mixtures. The laboratory program will foster the acquisition of skills in a broad range of basic practical techniques and will provide basic laboratory skills in chemical analysis and have verified some of the theoretical principles learnt in coursework.

Assessment

Examinations (3 hours): 60%
Laboratory work: 20%. Students with an ENTER score of 95 or higher may opt, in consultation with the Unit Coordinator, to undertake part of their laboratory work as problem-based learning modules.
Computer tests and tutorials: 20%. Students must achieve a pass mark in their laboratory work to achieve an overall pass grade.

Chief examiner(s)

Dr Chris Thompson

Contact hours

Three 1-hour lectures and one 3-hour laboratory or tutorial per week

Prohibitions

CHM1031, CHM1731

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Usually, students would need either CHM1011 or CHM1031 to progress to CHM1022. Within CHM1022, students will gain an understanding of chemical change from the perspective of thermodynamics, kinetics and equilibria through to the formation and reactivity in biologically important molecules e.g. carbohydrates, amino acids, proteins and nucleic acids. Along the way, students will encounter the formation of inorganic coordination compounds their role in colour and magnetism and the bioinorganic chemistry of enzymes. The concepts developed within the lectures are strengthened in the laboratory and with the aid of computer-based tutorials and tests.

Outcomes

On completion of this unit students should have a basic understanding of biological and synthetic macromolecules; chemical stoichiometry; the laws of thermodynamics; heat changes in reactions; entropy; the rates of chemical reactions; acid-base chemistry; equilibria; understand the properties of transition elements; be able to describe coordination compounds and their structures, reactions and applications; be able to interpret properties of solids; have learnt some applications of inorganic compounds; synthesis and structures of nano materials. Students will learn how to use basic laboratory skills in chemical analysis and have verified some of the theoretical principles learnt in coursework through laboratory applications.

Assessment

Examinations (3 hours): 60%
Laboratory work: 20%. Students with a CHM1011 result of 90 or higher may opt, in consultation with the Unit Coordinator, to undertake part of their laboratory work as problem-based learning modules
Computer tests and tutorials: 20%. Students must achieve a pass mark in their laboratory work to achieve an overall pass grade.

Chief examiner(s)

Dr Chris Thompson

Contact hours

Three 1-hour lectures and one 3-hour laboratory or tutorial per week

Prohibitions

CHM1042, CHM1742

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

An introduction to chemistry and its role in society for students with little background in chemistry, physics and mathematics. Topics include: atoms and molecules, chemical nomenclature, stoichiometry, the periodic table, atomic structure, an introduction to spectroscopy, drawing chemical models, the ozone layer, the greenhouse effect and global warming, molecular mass and moles, energy/work/heat, energy changes at the molecular level, petroleum, water as a solvent, the physical properties of water and hydrogen bonding.

Outcomes

To provide an interesting and stimulating introduction to a vitally important unit for students with a non-standard preparation. The unit attracts intelligent candidates with demonstrated skills in other areas, but who lack extensive training in chemistry and probably physics and mathematics. The level of the unit is such that, as well as providing an optional unit at first year for students in any faculty of the university, it will also be an appropriate introduction to further studies in chemistry at second and third-year levels. The general aim of the unit is to provide an introduction and grounding in chemistry which will enable students to gain an understanding of the role of chemistry in modern society; be able to sensibly interpret popular representations and misrepresentations of chemistry and its impact; appreciate the logical approach required in a scientific discipline; understand the atomic and molecular basis of chemistry; obtain a basic knowledge of some key chemical concepts and achieve competency in some key laboratory techniques used in chemistry.

The course aims to assist in the development of an understanding of the nature, practice and application of science; skills in written reporting of experimental work and other types of investigations based on chemistry; skills in collecting, organising, analysing and interpreting chemical data meaningfully, using appropriate mathematical and statistical tools; skills using a range of sources to find desired information and evaluate the quality of information obtained and its relevance to the task being undertaken; students' abilities to use current information and communication technologies to enhance their work; knowledge through evaluating arguments and synthesising ideas; the ability to apply chemical knowledge and critical thinking and so analyse challenges and develop effective solutions to them; an awareness of the ethical issues relating to applications of chemistry; an awareness of the ethical issues relating to scientific work; an understanding of how scientists, working in a world-wide community, build upon and recognise the work of others; an awareness of OHS issues relating to the use of chemicals; an appreciation of the roles and benefits of chemistry in society; the ability to evaluate their own performance; the ability to appropriately plan and carry out tasks; the ability to work collaboratively and effectively with other individuals and in teams.

Assessment

Examinations (3 hours): 60%
Laboratory work: 20%
Regular testing: 20%
Students must achieve a pass mark in their laboratory work to achieve an overall pass grade.

Chief examiner(s)

Dr Chris Thompson

Contact hours

Three 1-hour lectures and one 3-hour laboratory or tutorial per week

Prohibitions

CHM1011, CHM1731

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

CHM1042 continues directly from CHM1031. Topics include: nuclear fission and nuclear power, radioactivity and its biological effects, nuclear power stations and their waste, electrochemistry, batteries and fuel cells, water splitting and the hydrogen economy, polymers and plastics, an introduction to organic chemistry, organic functional groups, chirality, manipulating molecules and designing drugs, food chemistry, an introduction to DNA and genetic engineering, cloning and the human genome project. Practical work will include such experiments as measuring energy changes, modelling and testing organic compounds, forming emulsions and analysis for vitamin C.

Outcomes

As for CHM1031

Assessment

Examinations (3 hours): 60%
Laboratory work: 20%
Regular testing: 20%
Students must achieve a pass mark in their laboratory work to achieve an overall pass grade.

Chief examiner(s)

Dr Chris Thompson

Contact hours

Three 1-hour lectures and one 3-hour laboratory or tutorial per week

Prohibitions

CHM1022, CHM1742

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit is designed to introduce the student to the principles of analysis using a number of different instrumental techniques. It is designed around instrumental applications for both atomic and molecular analysis. Introductory principles of analysis, spectroscopic techniques encompassing UV/VIS, atomic absorption and mass spectrometry, as well as chromatographic and electroanalytical techniques are covered. The main emphasis is on practical quantitative analysis using a range of different techniques.

Outcomes

On completion of this unit students will have gained an understanding of the key principles involved in chemical analysis; be able to explain the principles of atomic and molecular spectroscopies and be able to discuss the instrumentation commonly employed in UV/VIS, infrared and atomic spectroscopies; have gained an appreciation for the different instrumental components used in different techniques; be able to explain the principles of chromatography and its application in a variety of instrumental techniques including GC, HPLC, molecular exclusion chromatography, ion chromatography and electrophoresis; be able to suggest appropriate techniques and conditions to separate particular mixtures using these techniques; be able to explain the basis of electroanalytical methods and discuss the different classification of electroanalytical methods; appreciate the benefits offered by electroanalytical methods of analysis; have further developed their practical skills, particularly chemical analysis using analytical instrumentation, data handling and report writing; have further developed their problem solving skills and their ability to work both independently and in small groups.

Assessment

Two assignments (5000 words): 20%
Practical work: 30%
Examination (3 hours): 50%

Chief examiner(s)

Dr Alison Green

Contact hours

Three 1-hour lectures per week, 3 hours of practical work each week

Off-campus attendance requirements

Off campus students will attend a four-day vacation school for tutorials and practical laboratory work.

Prerequisites

12 points of first level Chemistry

Prohibitions

CHM2736, CHM2922

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit presents a broad overview of the origins of the environmental pollution problems by studying the sources, reactions, transport, effects and fate of chemical species in the water, soil and air environments. Specifically it will study the influence of human activity upon these processes and provide relevant practical introduction to the basic analytical techniques employed for environmental chemical analysis.

Outcomes

On completion of this unit students will: know the sources and be able to classify water pollutants including oxygen-consuming wastes, disease-causing agents, synthetic organic compounds, radioactive materials and heat; be able to assess water quality by the measurement of the various water parameters; follow and have an understanding of the chemical processes which occur in natural waters; have an appreciation of the chemistry of soils and sediments; have a general understanding of the principles of air pollution, the major sources, fate and effects of pollutants; have a practical knowledge of atmospheric monitoring and sampling methods; have an appreciation of tools and approaches to preventing environmental pollution; and to provide relevant practical introduction to the basic analytical techniques employed for environmental chemical analysis.

Assessment

Assignment work (5000 words): 20%
Practical work: 25%
Examination (3 hours): 55%

Chief examiner(s)

Dr Barbie Panther

Contact hours

Three 1-hour lectures per week, 39 hours of laboratory per semester

Prerequisites

One of CHM1022, CHM1742 or CHM1752

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

In this unit students will study the structure, synthesis and analysis of important industrial and biological compounds. Specific topics will include a study of the reactions of small organic compounds which forms the basis for producing larger molecules and macromolecules (including polymers and biochemicals). An important component is the experimental program which will emphasise practical applications and the use of spectroscopic and chromatographic methods of analysis.

Outcomes

On completion of this unit, students will have an understanding of the principles of Infrared and Nuclear magnetic resonance spectrometry to enable them to determine the structure of organic and metal organic molecules using these methods; recognise the structures of molecules and macromolecules important in industrial and biochemical processes; understand the reactions of relevant organic groups and be able to write equations for these reactions; be able to suggest reaction pathways for the synthesis of simple organic molecules from readily available materials and be able to write reactions for these pathways; understand the mechanisms of SN1, SN2, E1 and E2 reactions in order to predict the conditions which favour these reactions; be able to write reaction pathways and suggest favourable conditions for the synthesis of macromolecules; be able to synthesise certain organic compounds in the laboratory; use analytical instruments to determine the purity and structure of synthesised products.

Assessment

Six assignments (500 words each): 20%
Practical work: 25%
Examination (3 hours): 55%

Chief examiner(s)

Dr Barbie Panther

Contact hours

Three 1-hour lectures per week, 39 hours of laboratory per semester

Prerequisites

CHM1011 or CHM1022 or equivalent

Prohibitions

CHM2911

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Basic principles and key aspects of molecular design, synthesis, structure and reactivity of carbon based molecules, organo-transition metal chemistry and metal complexes with examples taken from important biological, industrial and environmental processes. It will cover aspects of reactive intermediates; carbocations; molecular rearrangements; nucleophilic substitution; elimination reactions; free radicals; aromatic and heterocyclic chemistry; pericyclic reactions; carbonyl compounds; geometry, properties and bonding in transition metal complexes; metal coordination environments in metalloproteins; metal ions in metalloproteins; metal complexation in aquatic systems.

Outcomes

On completion of this unit students will have an appreciation of the tools used by chemists to design, prepare and study novel carbon based molecules and metal complexes and how these tools are then applied in order to develop an understanding of: the general principles of transition metal chemistry, including the structure, colour and properties of metal complexes, and how these principles are applied in industrial processes and in the rationalisation of the properties and functions of metalloproteins, and environmental processes involving metal ions; organometallic chemistry, catalysis, carbon based intermediates, carbocations, molecular rearrangements substitution and elimination reactions, the chemistry of aromatic compounds and pericyclic reactions, the reactions of carbonyl compounds and their importance in biosynthesis, drug synthesis. Students will also develop expertise in the handling and manipulation of chemicals, the use of commonly used synthetic procedures, the application of modern analytical and spectroscopic methods in the analysis of compounds and occupational health and safety in the laboratory. They will also further develop skills in the use of modern information technologies and data analysis and in the written and oral presentation of scientific data.

Assessment

Examination (2 hours): 50%
Mid-semester test (50 mins): 20%
Practical work: 30%
Students must achieve a pass mark in their laboratory work to achieve an overall pass grade.

Chief examiner(s)

Dr Perran Cook

Contact hours

Three 1-hour lectures and the equivalent of 3 hours laboratory activity per week

Prerequisites

CHM1011 and CHM1022. Students without these should consult the second year coordinator.

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit covers the theory and instrumentation behind common physical and analytical instrumental techniques such as infra-red, Raman, UV/Vis absorption and fluorescence and atomic spectroscopies, mass spectrometry, chromatography and electroanalytical chemistry. A knowledge of the physical chemistry of gases and liquids is an important precursor to the understanding of chromatographic and electroanalytical chemistry. The application of these techniques in forensic analysis is examined using examples such as the detection of accelerants at arson scenes, drug detection in sport and identification of microsamples at crime scenes. Practical exercises will provide problem solving in physical and forensic analytical chemistry. A "Moot Court" team exercise and guest lecturers are an integral part of the subject.

Outcomes

At the completion of this unit students will: understand key terms in instrumental analysis, including accuracy and precision, sensitivity, selectivity, detection limit and dynamic range; be able to explain and describe the principles and applications of spectroscopic techniques such as infra-red, Raman, UV/Visible absorption and fluorescence, and atomic mass spectrometry; have gained knowledge of electrochemical techniques for chemical analysis and have developed an understanding of the need for, and uses of, separation techniques such as gas and liquid chromatography. Students will have gained knowledge of a range of instrumental methods and of how different instruments operate, been exposed to a number of case studies illustrating the many and varied uses of chemical instrumentation for solving analytical and forensic problems, and gained an understanding and familiarity with the use of database searching and retrieval for compound identification. Students will have: further developed skills in the manipulation of chemicals, the use of chemical analysis techniques, risk assessment and the use of modern information technologies and data analysis; developed skills in working in small groups and in the written and oral presentation of scientific data including in the context of a "Moot-court" scenario.

Assessment

Examination (2 hours): 40%
Mid semester test (1 hour): 20%
Computer test/Assignments: 10%
Laboratory reports: 30%
Students must achieve a pass mark in their laboratory work to achieve an overall pass grade.

Chief examiner(s)

Dr Perran Cook

Contact hours

Three 1-hour lectures/tutorials and the equivalent of 3 hours laboratory activity per week

Prerequisites

CHM1011 and CHM1022. Students without these should consult the second year coordinator.

Prohibitions

CHM2741

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit develops further the basic principles and key aspects of synthesis, structure and reactivity of carbon based molecules and metal complexes discussed in CHM2911. It will cover aspects of aromatic and heterocyclic chemistry including electrophilic aromatic substitution; physical organic chemistry; reactive intermediates; molecular rearrangements; nucleophilic addition; properties and bonding in transition metal complexes; metal ions in biology including metalloproteins and metal based drugs including Cisplatin.

Outcomes

On completion of this unit students will have a greater appreciation of aromatic and heterocyclic chemistry and metal complexes and how these types of compounds are then applied in order to develop an understanding of: substitution, addition and elimination reactions, the reactions of carbonyl compounds and their importance in biosynthesis, drug synthesis and in the rationalisation of the properties and functions of metalloproteins. Students will also develop a well-rounded expertise in the handling and manipulation of chemicals, the use of commonly used synthetic procedures relating to the lecture material and the application of modern spectroscopic methods in the analysis of compounds. During practical classes students will become conversant with the identification and management of risks concerned with their individual experiments, experience group work, interact with modern information technologies and develop skills in report writing and oral presentation.

Assessment

Examination (2 hours): 50%
Mid-semester test (45 mins): 15%
Laboratory work: 25%
Assignment: 10% +Students must achieve a pass mark in their laboratory work to achieve an overall pass grade.

Chief examiner(s)

Dr Perran Cook

Contact hours

Three 1-hour lectures and an average of 3 hours laboratory activity per week

Prerequisites

CHM2911

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

A fundamental understanding of the principles underlying aquatic chemistry and their application in the study of aquatic processes. Includes: equilibria, activity and solubility; acid-base and carbonate equilibria, coordination chemistry and complexation, trace metal speciation, aquatic colloid and surface chemistry, estuarine processes and lake biogeochemistry, physico-chemical features of estuaries, rivers and lakes, light and heat in aquatic systems, major ions in natural waters, redox equilibria, dissolved gases, biogeochemical cycling of nutrients and contaminants, eutrophication. The practical component covers common major analytical techniques and two field excursions.

Outcomes

On completion of this unit, students will have knowledge of the physical and chemical characteristics of aquatic systems, gain an understanding of the fundamental physico-chemical processes operating in aquatic systems, gain an appreciation of current water pollution issues, acquire competence in the use of a range of commonly-used field and water quality monitoring techniques and further develop skills in risk assessment, the use of modern information technologies and data analysis and in the written and oral presentation of scientific data.

Assessment

Examination (2 hours): 50%
Laboratory work: 25%
Assignments: 15%
Online tests: 10%
Students must achieve a pass mark in their laboratory work to achieve an overall pass grade.

Chief examiner(s)

Dr Perran Cook

Contact hours

Three 1-hour lectures/tutorials and the equivalent of 3-hours laboratory or field trip per week

Prerequisites

6 points level one Chemistry

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

A detailed account of the chemistry of food substances will be provided. The components present in larger amounts (carbohydrates, fats, proteins, minerals and water), and those occurring in smaller quantities (colours, flavours, vitamins, preservatives, trace metals, both natural and synthetic toxins, and additives) will be discussed. Chemicals used in food production (fertilizers, pesticides, insecticides, fungicides, herbicides) and the chemistry of food processing, storage and cooking are also discussed. Methods used in food analysis are considered. The chemistry of the digestion of food and the energy provided by food during consumption are included.

Outcomes

On completion of this unit students will have identified the essential chemical components of food and have an understanding of how they are analysed, gained a working knowledge of the chemistry of lipids, carbohydrates, proteins, vitamins, nutrient minerals and water, related each of these food components to nutritional needs, developed links between food types and energy provided and between energy needs and balanced diets, gained an understanding of how agricultural methods affect food production, and recognised chemical changes that occur during the processing, storage and cooking of food.

Assessment

Examination (3 hours): 60%
Laboratory exercises and workshops: 20%
Assignments, tests and debates: 20%
Students must achieve a pass mark in their laboratory work to achieve an overall pass grade.

Chief examiner(s)

Dr Perran Cook

Contact hours

Three 1-hour lectures/tutorials and the equivalent of 3 hours of laboratory activity per week

Prerequisites

6 points of level one Chemistry

Prohibitions

BND1022

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This course allows students to undertake an introductory research project as part of their second year of study in Chemistry within the BSc Adv (Hons) or BSc (Science Scholar) degrees. The project will be carried out within the School of Chemistry teaching and research laboratories. Allied with the practical work will be tutorial materials and discussion on formal matters relating to OH&S, database searching, data analysis and presentation and report presentation.

Outcomes

Completing students will be proficient in literature searching and reviewing; understand design, development and implementation of a research project; have gained experimental skills and experience in data processing and interpretation; be able to communicate their results verbally and in writing.

Assessment

Written project proposal: 10%
Laboratory work: 30%
Project report: 50%
Oral presentation: 10%

Chief examiner(s)

Dr Perran Cook

Contact hours

Six hours per week

Prerequisites

CHM2911 and permission from the Head of School

Co-requisites

CHM2922

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

The unit describes the structure, properties and synthesis of biomaterials, macromolecules, and 'smart' inorganic materials, which are designed to carry out a range of sensing or active functions. Includes: biopolymers and biomineralisation in plants and animals; mimicry of biological systems; properties of everyday materials such as polypropylene and polyurethane and the link between their properties, structure and synthesis; properties of inorganic and metal-organic solids such as conductivity, magnetism, and porosity; theory and use of X-ray crystallography for determining solid-state structures. Principles of controlled radical polymerisation such as RAFT that is widely used in industry to synthesize polymers of certain molecular weights are introduced. In addition, ionic liquids as 'new generation' liquid materials are introduced. The unit also offers an opportunity to learn about a fast emerging field of alternative resources of energy such as solar cells, advanced batteries and fuel cells.

Outcomes

On the completion of this unit the students will have an appreciation of the principles of polymer chemistry, have insight into synthesis of polymers in industry, understand the link between their structure and physical properties and how to design polymers with specific properties through copolymerization. Students will gain a broad overview of the properties of biomaterials and smart materials and the interplay between properties, structure and synthesis. The students will also gain an understanding of the chemistry of advanced materials that are of importance in energy generating and storage devices such as advanced batteries, solar and fuel cells, as well as the use of ionic liquids as 'new generation' liquid materials in these electrochemical devices. The students will learn about the connection between properties of conducting, magnetic and porous materials and their structure. The students will also develop a basic understanding of the theory of X-ray crystallography, and its use in determining solid-state structures. The students will develop expertise in carrying out radical and ionic polymerization in the lab and improve their skills in characterization techniques used to study properties of organic and inorganic materials. They will also further develop skills in the use of modern information technologies and data analysis and in the written and oral presentation of scientific data.

Assessment

Examination (3 hours): 60%
Assignments: 10%
Laboratory reports: 30%
Students must achieve a pass mark in their laboratory work to achieve an overall pass grade.

Chief examiner(s)

Dr Kellie Tuck

Contact hours

Three 1-hour lectures/tutorials and the equivalent of 3 hours of laboratory activity per week.

Prerequisites

CHM2911 and 6 other points of level two chemistry. Students without these units should consult the third year coordinator.

Prohibitions

CHM2180

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Bioactive chemistry considers naturally occurring compounds and the biosynthetic pathways from which these arise; followed by a study of biological systems used to carry out controlled chemical reactions on organic molecules. The importance of natural product chemistry in relation to biologically active compounds of commercial significance will be illustrated. The course will then focus on concepts of protein chemistry including protein structure, peptide sequencing and synthesis, the principles of folding of polypeptide chains, prediction and modelling of polypeptide structures. The use of proteins as industrial catalysts, in biosensor technology and in immunochemistry will be considered.

Outcomes

On completion of this unit, students will appreciate the range of real world applications for molecules harvested from biological systems; classify a selection of naturally occurring, biologically active molecules into particular classes and outline the general approaches used to isolate, purify and characterise these molecules; describe the general synthetic strategies used by a chemist, utilising both conventional reagents and biological reagents, to design and effect molecular transformations leading to production of medicinal agents; distinguish between primary and secondary metabolites in living systems and describe a selection of biosynthetic pathways including those leading to the formation of natural products of commercial significance; classify selected enzyme controlled reactions, appreciate their role in metabolism and illustrate their applications in biotransformations; describe the experimental strategies for peptide sequencing and the fundamental principles of protein synthesis; describe important aspects of protein architecture; appreciate the fundamental relationship between protein structure and function; compare the properties of biocatalysts and chemical catalysts and consider the industrial applications of biocatalysts; safely perform selected advanced laboratory procedures including: organic synthesis including chemical and enzymatic catalysis; extraction and purification of secondary metabolites from plant material; spectroscopic, electrophoretic and chromatographic analysis; radioimmunoassay and demonstrate advanced level report-writing skills.

Assessment

Final examination (3 hours) 50%
Assignment: 10%
Problems: 10%
Practical work: 30%

Chief examiner(s)

Associate Professor Jenny Mosse

Contact hours

Three hours of lectures and three hours of laboratory work per week

Prerequisites

BTH2752 or CHM2762

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

In this unit, the fundamental principles and concepts of chemistry studied in previous years will be related to the aquatic and atmospheric systems. The chemical processes which occur in natural and modified systems will be examined with a particular view of understanding the nature, effects and fate of pollutants. This provides students with the background to understand current issues such as air and water pollution, the enhanced greenhouse effect and stratospheric ozone depletion. Some emphasis will be placed on the analysis of air and water, and water treatment processes will be investigated for both the production of potable water as well as treatment of polluted waters.

Outcomes

On completion of this unit students will be able to understand the different water cycles and water and wastewater management schemes; understand different quality and quantity requirements of different users of water; understand the chemical principles involved in the purification of water for domestic and industrial use; understand the process of eutrophication and the factors that cause it; understand the nature, properties, effects and detection of toxic substances in the aquatic environment; understand the structure of the atmosphere and the energy and mass transfer processes which occur, and of the changes in the atmosphere through time and related causes and effects; experimentally detect, quantify and interpret the presence of a range of atmospheric pollutants, or chemical pollutants in aquatic systems using modern analytical and monitoring methods; work effectively as a member of a team; show advanced report writing skills.

Assessment

Assignment work: 30%
Practical work: 25%
Examination (3 hours): 45%

Chief examiner(s)

Professor Sam Adeloju

Contact hours

Two hours of lectures, one hour of tutorials and three hours of laboratory per week

Off-campus attendance requirements

OCL students undertake a 4-day residential school program

Prerequisites

CHM2752 or CHM2922

Prohibitions

ENV3726

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Mastery of spectroscopy and molecular structure and chemistry at interfaces and surfaces is essential for graduates in chemistry, materials, bio-science and earth sciences. The first topics covered are advanced spectroscopy, with an emphasis on micro and nano-spectroscopic and surface analysis methods, computational and theoretical chemistry and molecular symmetry. Computational and spectroscopic techniques, particularly those involving analysis at the micro and nano scale, are described in terms of principles, instrumentation and applications. Together these complementary areas provide a strong foundation in molecular structure, which is central to the molecular sciences. The final topics covered are essential physical chemistry: Surface Chemistry introduces the special features of the molecular structure of the interface, surface tension and adsorption at the interface, surfactants, emulsions and foams, adhesion, wetting, detergency, and formulation of surfactants; Colloid Chemistry focuses on dispersion of small particles in the context of food chemistry, paints, cosmetics, water systems and formulation science.

Outcomes

On completion of this unit students will have developed an understanding of key aspects of advanced spectroscopy, spectroscopic and surface analysis of chemistry at the micro and nano scale; developed an understanding of molecular symmetry and its uses and further developed an understanding of molecular structure; gained familiarity with basic concepts of computational chemistry and become proficient in the 'hands on' use of some related software; gained a broad overview of the properties of the interface between two different material phases and the chemical processes that occur at such interfaces; gained an appreciation of the importance of the processes that occur at interfaces in the functioning of biological systems, and in the applications of chemistry and the functionality of everyday materials; developed an understanding of key terms used in colloid and surface chemistry and have developed an understanding of the phenomena of interfacial tension, adsorption of substances at interfaces, and the stability of colloidal dispersions. Students will have further developed skills in the use of modern instrumentation, in working in small groups and in the written and oral presentation of scientific data.

Assessment

One 2-hour examination: 40%
One 50 minute test: 10%
Assignments and computer testing: 20%
Laboratory work and short laboratory reports and proforma reports: 30%
Students must achieve a pass mark in their laboratory work to achieve an overall pass grade.

Chief examiner(s)

Dr Kellie Tuck

Contact hours

Three 1-hour lectures/tutorials and the equivalent of 3 hours of laboratory activity per week

Prerequisites

CHM2911 and CHM2922. Students without these should consult the third year coordinator.

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

A description of the advanced tools and methodologies that are used in the determination of reaction mechanisms will be provided. This is supported by a discussion of the theoretical basis of the design of synthetic pathways for target e.g. bioactive molecules. The knowledge gained will be used to elucidate the reaction mechanisms of common organic reactions and metal-mediated reactions towards identifying scope in organic chemistry. The development of chemical methods that allow realisation of the concept of a sustainable future will also be discussed. Advanced NMR spectroscopy will also be introduced as a useful tool to elucidating structure.

Outcomes

On completion of this unit students will have gained an understanding of the tools and methodology that are used to study the mechanisms of chemical reactions, gained a broad overview of a range of modern organic synthetic methods and will have developed the ability to design synthetic pathways based on the principles of retrosynthetic analysis. Particular emphasis will be placed on advanced organic transformations, metal-mediated reactions (e.g. Heck, Suzuki, Grubbs) and 'greener' reaction types (e.g. catalysis). Students will gain an understanding of the principles of green chemistry, application of which leads to waste, hazard and energy use reduction, through the study of a series of synthetic examples. Students will also have developed skills in problem solving through exercises on reaction mechanisms; gained generic practical skills and enhanced their report writing skills.

Assessment

Examination (2 hours): 47%
Mid-semester test (1 hour): 23%
Laboratory work and short laboratory reports: 30%
Students must achieve a pass mark in their laboratory work to achieve an overall pass grade.

Chief examiner(s)

Dr Kellie Tuck

Contact hours

Three 1-hour lectures/tutorials and the equivalent of 3 hours of laboratory activity per week

Prerequisites

CHM2911 and CHM2922. Students without these should consult the third year coordinator.

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit focuses on several major classes of biologically and clinically important therapeutic agents. Students will study the traditional use, isolation, structural characterisation, synthesis and clinical evaluation of drugs and also be exposed to newer crystallographic, computational, combinatorial and screening methodology used in drug design and development. The subject will consist of three inter-related sections:

1. drug discovery and development,
2. molecular recognition and
3. combinatorial chemistry and the synthesis of biological polymers. Where appropriate, guest speakers from industry and government agencies will contribute to the subject.

Outcomes

On completion of this unit students will have developed an understanding of the traditional and modern methods used for drug discovery; of how molecules interact at the molecular level and how this relates to the activity of drugs; how crystallography and computational methods can be used for drug development and of combinatorial chemistry, and how it can be used in drug discovery, with particular reference to biological polymers. Students will have further developed skills in the use of reaction mechanisms and how a knowledge of reaction mechanisms can aid in understanding the mode of action of a drug, and the method by which it can be synthesised, and developed generic practical skills, through laboratory work. They will have gained an appreciation of research work through involvement in small research projects and have enhanced their professional skills in problem solving and in both written and oral forms of scientific communication.

Assessment

One 2-hour examination: 60%
Seminar/Assignments: 10%
Laboratory work and short laboratory reports: 30%
Students must achieve a pass mark in their laboratory work to achieve an overall pass grade.

Chief examiner(s)

Dr Kellie Tuck

Contact hours

Two 1-hour lectures, one 1-hour tutorial and the equivalent of three hours of laboratory activity per week

Prerequisites

CHM2911. Students who have not completed and passed this unit should consult the third year coordinator.

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

A general description of the synthetic methods and characterization techniques that are used to prepare coordination complexes and organometallic compounds will be provided together with the tools and methodologies used in the determination of reaction mechanisms and, in particular, metal centred/mediated reactions. Techniques commonly used to study the structure and properties of inorganic complexes will be introduced through the practical classes and a problem based approach.

Outcomes

On completion of this unit students will have gained a broad overview of a range of modern inorganic synthetic methods and gained an understanding of the application of main group organometallic reagents to synthesis as well as their selectivity in reactions with different classes of functional groups. They will have furthered their appreciation of coordination complexes, especially those which mimic the action of naturally occurring biomolecules, and gained an understanding of bonding in inorganic compounds. Students will also gain an understanding of reaction mechanisms and, in particular, metal centred reactions; how coordination to a metal centre can enhance the reactivity of organic molecules; and how basic knowledge of reaction mechanisms can be used to study more complex biological and environmental systems. Students will also have developed skills in various instrumental techniques that are used to probe the structure and properties of metal complexes; in problem solving through exercises on reaction mechanisms and structure elucidation; gained generic practical skills; and enhanced their report writing skills.

Assessment

One 2-hour examination: 50%
One mid-semester examination: 20%
Laboratory work and short laboratory reports and proforma reports: 30%
Students must achieve a pass mark in their laboratory work to achieve an overall pass grade.

Chief examiner(s)

Dr Kellie Tuck

Contact hours

Three 1-hour lectures/tutorials and the equivalent of 3 hours of laboratory activity per week

Prerequisites

CHM2911 and CHM2922. Students without these should consult the third year coordinator.

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Advances in analytical science will involve the development and exploitation of advanced mass spectrometric, molecular spectroscopic and separation techniques. This unit concentrates on these approaches, and provides examples of how they can be applied in areas such as forensic and environmental science, genomics and forensic imaging. The remainder of the unit covers the use of spectroscopic, radiometric, separation and particle characterization techniques in automated monitoring and process analysis in a variety of industrial, clinical and environmental applications. Aspects of instrumentation, data processing and chemometrics will be emphasised in each analytical technique discussed.

Outcomes

On completion of this unit students will have developed an understanding of the principles of analytical instrumentation, simulation and data processing and interpretation using chemometric techniques such as multivariate analysis; have developed both an understanding of the fundamentals of mass spectrometry and the skills for interpretation of mass spectra for structural elucidation and fingerprinting purposes; will be able to describe the principles and applications of atomic emission spectrometry; will be able to detail the principles and applications of micro/nano-scale analysis using surface and X-ray spectroscopic techniques, will have an understanding of different techniques and applications of separation science, will have an understanding of the principles of flow analysis and its use in hyphenated analytical techniques, will have gained an understanding of how these techniques can be applied in forensic and environmental science, and will have developed practical competencies in analytical measurements involving chromatographic/other separations, flow analysis techniques, and quantitative molecular and atomic spectroscopy.

Assessment

One 3-hour examination: 60%
Assignments and computer testing: 10%
Laboratory work and laboratory reports: 30%
Students must achieve a pass mark in their laboratory work to achieve and overall pass grade.

Chief examiner(s)

Dr Kellie Tuck

Contact hours

Two 1-hour lectures, one 1-hour tutorial and the equivalent of 3 hours laboratory activity per week

Prerequisites

CHM2911 and CHM2922. Students without these should consult the third year coordinator.

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

The three major components of the environment, air, soil and water, are considered. Environmental issues related to energy are outlined. Soils: natural, constituents, properties; chemical processes; organic matter; fertility; acidity; salinity; remediation. Water: major components; nutrient pollution including consequences and tracing methods; water treatment including sewage treatment, drinking water treatment and artificial wetlands. Air and energy: importance to society; fossil fuel use; combating atmospheric problems associated with fossil fuel use; alternative fuels, including biofuels; CO2 emissions reduction, carbon capture and sequestration.

Outcomes

On completion of this unit students will have developed an understanding of the major components and processes in the atmosphere, soils and water and be aware of a range of environmental problems. They will have gained an understanding of the major options for overcoming the environmental problems confronting our planet. They will be capable of assessing environmental problems and designing appropriate monitoring programs. The unit will further develop students' skills in working in small groups and in the written and oral presentation of scientific data, as well as in solving problems in environmental chemistry and in the use of modern analytical instrumentation.

Assessment

One 3-hour examination: 50%
Laboratory work field trips and short laboratory reports and proforma reports: 30%
Assignments: 20%
Students must achieve a pass mark in their laboratory work to achive an overall pass grade.

Chief examiner(s)

Dr Kellie Tuck

Contact hours

Three 1-hour lectures/tutorials and the equivalent of 3 hours laboratory activity per week

Prerequisites

6 points of level one chemistry and 6 points of level two chemistry. Students without this should consult the third year coordinator.

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This course allows students to devote themselves to a substantial laboratory project as part of their final year of study in Chemistry. The project may be carried out within the School of Chemistry teaching and research laboratories or in an industrial laboratory by arrangement and approval of the Head of School. Allied with the practical work will be tutorial materials and discussion on formal matters relating to OH&S, database searching, data analysis and presentation and report presentation.

Outcomes

On completion of this unit, students will have: developed an understanding of modern laboratory practice and procedures, including OHSE, developed an in depth understanding of one or several aspects of modern practical chemistry, gained experience with data base searching, data handling and presentation and enhanced their professional skills in problem solving, written and oral presentations.

Assessment

Laboratory work: 30%
Project report: 60%
Oral presentation: 10%

Chief examiner(s)

Dr Kellie Tuck

Contact hours

72 hours laboratory work per semester or equivalent

Prerequisites

Students must pass 24 points at second level with a distinction average, including 12 points minimum in the discipline directly related to the project.

Co-requisites

18 additional points of level three chemistry selected from CHM3911, CHM3922, CHM3941, CHM3952

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Students undertake a supervised research project in a specialised area of chemistry. Candidates may commence the honours year at the beginning of either first or second semester. Further information is available from the course coordinator and at a meeting held with prospective students during second semester of third year.

Assessment

Research Project with a written report in thesis form and oral defence and 2 x 15 minute oral presentation on the students research during the Honours year: 100%

Chief examiner(s)

Associate Professor Mike Grace

Prerequisites

CHM2911, CHM2922 and 24 points of level three CHM units including one of CHM3911 and CHM3952, and one of CHM3941 and CHM3922

Co-requisites

CHM4201

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Refer to CHM4100

Assessment

Refer to CHM4100

Chief examiner(s)

Associate Professor Mike Grace

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Refer to CHM4100

Assessment

Refer to CHM4100

Chief examiner(s)

Associate Professor Mike Grace

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

All students will undertake a Professional Studies topic and one core topic defined by the School, as well as three elective topics from specialised areas of chemistry, such as pericyclic reactions, separation science, advanced organic synthesis, main group inorganic chemistry, supramolecular chemistry, computational chemistry and electron microscopy. Each topic will require students to attend 8 lecture equivalents making a total of 48 lecture equivalents for the unit. Further information is available from the course coordinator and at a meeting held with prospective students during second semester of third year.

Assessment

Combination of examination and/or assignment (depending on the topic): 100%
Please consult the course coordinator about the assessment of individual topics.

Chief examiner(s)

Associate Professor Mike Grace

Co-requisites

CHM4100

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Refer to CHM4201

Assessment

Refer to CHM4201

Chief examiner(s)

Associate Professor Mike Grace

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Refer to CHM4201

Assessment

Refer to CHM4201

Chief examiner(s)

Associate Professor Mike Grace

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Introduces the structure and function of eukaryotic cells including the diversity of cell structure and function. The concept that the many specialized cell types in the adult human body are derived from a single fertilized egg is emphasized, laying the foundations for future studies of stem cells and embryogenesis. The four primary tissues (epithelium, connective tissue, muscle tissue, nervous tissue) are described and students learn how these tissues develop in the growing embryo. Topics covered include early human development, gametogenesis, fertilization, blastocyst formation and implantation, formation of stem cell lineages, germ layers and early derivatives.

Outcomes

On completion of this unit students will: appreciate the structural diversity of eukaryotic cells; understand the arrangements of cells and extracellular matrix in primary tissues; have key knowledge of early human development; be able to recognize specialized cell types, primary tissues and stages of early human development both in vivo and in vitro; understand basic imaging techniques including aspects of image capture, storage and reproduction.

Assessment

Practical reports: 20%
Mid-semester tests: 20%
Final examination: 60%

Chief examiner(s)

Dr Julia Young

Contact hours

Three lectures and one 3-hour practical class per week

Prerequisites

One of BIO1011, BIO1022, BMS1021 or equivalent

Prohibitions

ANT2321

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit provides students with basic knowledge of the structure of the human body. It describes how tissues are combined to form organs, and how organs and organ systems are organized to form adult body structure. The microscopic and macroscopic structure of the major organs and organ systems are covered, including the cardiovascular, respiratory, gastrointestinal, urinary, reproductive and nervous systems. Imaging modalities for examining the body are described including X-ray, CT, and MRI. The general body plan is described and how the body plan is established during embryogenesis is discussed.

Outcomes

On completion of this unit students will: understand the general structure of the human body; understand the microscopic and macroscopic structure of organs and organ systems; appreciate what structural information can be obtained with CT and MRI; understand how the general body plan is established in the embryo; have a basic understanding of limb development and limb regeneration.

Assessment

Practical and laboratory assessments: 25%
Mid-semester tests: 25%
Final examination: 50%

Chief examiner(s)

Dr James Armitage

Contact hours

Three lectures and one 3-hour practical class per week

Prerequisites

DEV2011 or equivalent

Prohibitions

ANT2311, ANT2321, ANT2342

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit begins with an introduction to the concepts and experimental systems in developmental biology. How gene expression is regulated during development and thereby leads to the development of differentiated cells and tissues is considered. Communication between cells during development is described, as well as the key concepts of induction and competence. Some of the key early developmental processes and experimental strategies for studying developmental biology are covered. Finally, patterning and development of the body plan are described.

Outcomes

On completion of this unit students will be able to: demonstrate knowledge of the major mechanisms that regulate animal development, describe the strategies used to study mechanisms of development, compare and contrast different developmental model systems, perform and evaluate practical laboratory techniques integral to the study of developmental biology and be able to interpret and discuss modern developmental biology research papers.

Assessment

Mid-semester on line-based MCQ test: 10%
Seminars: 25%
Practical reports: 15%
Final examination: 50%.

Chief examiner(s)

Dr Helen Abud

Contact hours

Two lectures, a two hour practical class and a one hour seminar per week.

Prerequisites

DEV2011 and DEV2022; or BMS1062, BMS2011, BMS2021 and BMS2031. Recommended: MOL2011.

Prohibitions

ANT3052

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit considers the development of the major organs and organ systems of the body. The classical morphogenetic steps/stages in organ development are described, as well as the most up to date knowledge of the molecular/genetic and foetal/maternal environmental regulation of these morphogenetic processes. Organ systems covered include musculoskeletal, cardiovascular, central nervous, respiratory, gastrointestinal, renal and reproductive. Students will learn how abnormalities in genetic and/or environmental regulation of development lead to birth defects as well as chronic diseases in adulthood.

Outcomes

On completion of this Unit students will be able to: demonstrate sound knowledge of the development of the major organs of the body; analyse the genetic and environmental regulation of organogenesis; evaluate how errors in development lead to birth defects and adult disease; demonstrate familiarity with contemporary developmental biology techniques and demonstrate an ability to critically analyse research papers in the field of development biology

Assessment

Seminars: 30%
Practical reports: 20%
Final examination: 50%

Chief examiner(s)

Associate Professor Jane Black

Contact hours

Two lectures, two hour practical class and one hour seminar per week.

Prerequisites

DEV3011

Prohibitions

ANT3052

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit begins with an introduction to stem cell biology and regenerative medicine. Characteristics, basic biology and methods for studying stem cells are then described. Then characteristics of stem cells in specific tissues are described, including haematopoiesis, the kidney, gut and nervous system. Finally, aspects of tissue engineering and use of stem cells in animal biotechnology are covered. Students also conduct a research project in a stem cell laboratory. Two moderated classroom discussion on commercialisation and ethical issues of stem cell research are also included.

Outcomes

On completion of this unit students will be able to: describe the basic biology of stem cells; discuss key techniques in stem cell research; discuss the status of research into the identification and characterisation of stem cells; explain how stem cells are currently being used, and will likely be used, to regenerate diseased organs; describe how stem cells can be combined with factors and materials to engineer replacement tissues; be aware of some of the controversies surrounding stem cell research; have practical experience in stem cell research; and demonstrate critical and independent thinking, synthesis of the literature and scientific presentation.

Assessment

Mini-poster presentation on the laboratory placement research project: 20%
On-line practical class assessment: 10%
Written report on one of the issues covered by the moderated discussions: 10%
Final examination: 60%

Chief examiner(s)

Dr Helen Abud

Contact hours

Two lectures per week. 15 hours research placement in a stem cell research laboratory (over 7 weeks): Two 3-hour moderated class discussions, one 3-hour wet practical class and two 3-hour IT-based practical class exercises.

Prerequisites

DEV2011 and DEV2022, or BMS1062, BMS2011, BMS2021 and BMS2031.
Recommended: MOL2011.

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit provides the opportunity for high achieving students to work with an academic supervisor and complete a research project in Developmental Biology. The research project may be chosen from a list of projects available at the beginning of semester from the Department of Anatomy & Developmental Biology. Students will work in a research laboratory to obtain data, will complete a final report and will give a series of oral presentations on their work. Students will also undertake an informal written open-book exam comprising 3 brief essays based on weekly tutorials.

Outcomes

On completion of this unit, students will have acquired the following skills and attributes: review scientific literature in developmental biology, including the ability to identify key information in this area: access databases for provision of information; presentation of oral reports; construction of written reports; manage workloads to meet deadlines; work with a significant degree of independence; plan a large project, including the ability to adjust planning as events and results dictate; conduct appropriate statistical analysis of results; perform routine laboratory measurements and manipulations; maintain efficient and meaningful communication with a project supervisor and gain experience in the use of technical work processing packages and graphics software.

Assessment

Two oral reports (preliminary 15 mins, 10% and final 15 minutes, 10%): 20%
Two written reports (preliminary 1,500 words, 10% and final 8,000 words, 50%): 60%
Assessment of laboratory work: 20%

Chief examiner(s)

Dr Stuart Ellem

Contact hours

12 hours per week

Prerequisites

12 points of study in the discipline area at 2nd year level and a distinction average over 24 points at second year level and by permission of the Unit Convenor or the Head of Department.

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Students undertake a supervised research project. Candidates may commence the honours year at the beginning of either first or second semester. Further information is available from the course coordinator, the Department of Anatomy & Developmental Biology website and at a meeting held with prospective students during second semester of third year.

Assessment

Literature review of research project: 15%
Written thesis: 65%
Thesis defence: 20%

Chief examiner(s)

Dr Robert De Matteo

Co-requisites

DEV4200

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Refer to DEV4100

Assessment

Refer to DEV4100 and DEV4200

Chief examiner(s)

Dr Robert De Matteo

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Refer to DEV4100

Assessment

Refer to DEV4100 and DEV4200

Chief examiner(s)

Dr Robert De Matteo

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Students present two research seminars relevant to their research topic in DEV4100 and undertake a written exam related to the research process. Candidates may commence the honours year at the beginning of either first or second semester. Further information is available from the course coordinator, the Department of Anatomy & Developmental Biology website and at a meeting held with prospective students during second semester of third year.

Assessment

Seminars (two): 30% each
Examination: 40%

Chief examiner(s)

Dr Robert De Matteo

Co-requisites

DEV4100

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Refer to DEV4200

Assessment

Refer to DEV4100 and DEV4200

Chief examiner(s)

Dr Robert De Matteo

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Refer to DEV4200

Assessment

Refer to DEV4100 and DEV4200

Chief examiner(s)

Dr Robert De Matteo

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit is a core unit in the Bachelor of Environmental Science degree. Topics include: the beginning and evolution of the Universe, Solar System and Earth; planetary geology and the structure and chemistry of the Earth and other planets; geological evolution of the Earth, relative and absolute scales in geological time; plate tectonics and the structure of the Earth's crust; minerals and igneous, sedimentary and metamorphic rocks and processes; formation and evolution of life, atmosphere and oceans on the Earth and other planets during geological time, geology and the environment.

Outcomes

On the completion of this unit students will be able to discuss the birth, evolution and age of the universe and solar system; describe the earth's structure and chemistry as well as some of the tools that have been used to discover them, discuss the evolution of the earth's crust over geological time; describe geologic time in relative and absolute terms; identify and describe minerals and rocks, including some of their properties; discuss some of the processes involved in sedimentation, volcanic and igneous activity and metamorphism; and describe theories on the origin and evolution of life, the atmosphere and oceans on earth.

Assessment

Examination (2 hours): 50%
Laboratory work, quizzes, assignments and a field excursion: 50%

Chief examiner(s)

Ms Marion Anderson

Contact hours

Three 1-hour lectures and one 3-hour practical per week

Prohibitions

ESC1011

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit is a core unit in the BEnvSc degree. Explains Australia's present patterns of landform, soil, biota and climate through an understanding of past events and environments. The focus on change is carried over into future environmental management issues. An example environmental issue, uranium mining, highlights the multidisciplinary nature of environmental science.

Outcomes

On completion of this unit students should be familiar with major ideas concerning the evolution of the Australian landscape, its biota and climate patterns within the global environment; be aware of competing ideas and theories in the relevant literature; be able to synthesise and interpret relevant material and to communicate ideas to others in a coherent manner, either by written or verbal means; be familiar and proficient with some simple techniques for analysing basic geographic and physical environmental information; appreciate the importance of field work in studying the natural environment, and the problems associated with making field measurements of natural phenomena., and appreciate the interdisciplinary nature of environmental science and the cultural, legal, social and economic impact resulting from human activity.

Assessment

Written (1500 words): 35%
Examinations (2.5 hours): 35%
Practical and fieldwork reports: 30%

Chief examiner(s)

Associate Professor David Dunkerley

Contact hours

4.5 hours per week (3 lectures per week, and the equivalent of up to 3 hours practical/ tutorial per fortnight), plus one 2.5 day field excursion

Prohibitions

ATS1301

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit introduces students to the global environment and its basic natural systems. The fundamental structure and functioning of the natural systems is explored, emphasising the processes of living systems and their relationships with physical processes, including those associated with geology and climate. Major themes include the diversity and interrelationships of the biotic and abiotic components of the environment, the nature of environmental change, and human impacts on both biotic and abiotic components of natural systems. The level of study will range from local issues to regional and global impacts. The unit is taught by internal lectures, tutorials and fieldwork, and also by distance education.

Outcomes

On completion of this unit, students should be able to demonstrate familiarity with the Earth's basic natural systems; knowledge of the structure and functions of ecosystems, with particular emphasis on Australian systems; an appreciation of the diversity of plants and animals, and their relationships with their habitats; an understanding of the processes of change of habitats, ecosystems and the global environment; an understanding of the evolution of Australian ecosystems; an understanding of the impact of human activity on natural systems; an appreciation of the origins and impacts of a selection of current environmental problems, including more localised Australian issues as well as global issues.

Assessment

Three assignments: 45%
Examination (2 hours): 55%

Chief examiner(s)

Dr Fiona Hogan

Contact hours

3 x 1-hour lectures per week and the equivalent of 2-3 hours of practical/tutorial/fieldwork per fortnight

Prohibitions

ENV1800

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit emphasises the basic physical and chemical processes involved in creating and shaping the physical environment. Relevant human impacts and management issues are discussed. Topics covered include environmental ethics; the structure of the Earth; plate tectonics; minerals, rocks and weathering; earthquakes, volcanoes and glaciation; streams and flooding; mass movement; coastal zones; energy resources; waste management; sustainable development. There is no prerequisite for this subject.

Outcomes

On completion of this unit, students will have

1. an awareness of the physical processes involved in creating and shaping the physical environment; those changes in the environment over which humans have no control, and those which we are able to control and manage; some of the ethical and economic factors that influence our approach to resource management;
2. a knowledge of: the basic geological processes and structures occurring within the environmental systems of the Earth; the basic terminology used in describing geological and hydrological systems; the various resources used by plants and animals (including humans) for their existence, and ways in which these can be adequately managed and maintained; and
3. the skills to identify a range of representative rocks and minerals; determine what role humans can take in managing the physical environment, assess the human impacts on selected environmental resources, critically comment on the existing management of those resources and propose an effective resource management plan.

Assessment

Two assignments: 40%
Examination (2.5 hours): 60%

Chief examiner(s)

Dr Fiona Hogan

Contact hours

Three 1-hour lectures per week and the equivalent of three hours of practical/tutorial/fieldwork per fortnight

Prohibitions

ENV1011

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit introduces students to the tropical environments of Southeast Asia from coral reefs and mangrove swamps to lowland rainforests and mountains. It explores the flora, fauna, climate, biogeography and ecosystems of the region. A comparison is made with the Australian environment and other ecosystems of the world. Human impacts on the environment such as pollution, energy use, food production and human population growth are discussed and ameliorative measures explored. The field trip enables students to compare the ecological processes of three different tropical environments.

Outcomes

On completion of this unit, students should be able to:

1. Demonstrate a knowledge of environmental issues in the Southeast Asian region
2. Demonstrate a knowledge of the diversity of ecosystems and flora and fauna in SE Asia in comparison with other regions of the world
3. Demonstrate an understanding of the importance of weather, climate, geology, biogeography, nutrient cycles, community interactions, on the ecology of SE Asian plants and animals
4. Demonstrate an understanding of conservation issues in SE Asia, in particular with respect to human impacts
5. Access and critically analyse sources of scientific information
6. Exhibit scientific writing skills.

Assessment

Field trip assignment: 10%
Essay: 15%
Mid-semester test 20%
Final examination: 55%

Chief examiner(s)

Associate Professor Catherine Yule

Contact hours

3 hours of lectures per week, 1 hour tutorial per week, 1 day field trip per semester

Prohibitions

ENV1711

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Introduction to quantitative methods in environmental monitoring; types of environmental impacts; populations and sampling. Statistics for monitoring. Biological monitoring. Origins, types of measurement of chemical pollution. Manual and automated sampling and in-situ analysis techniques. Quality assurance issues. Introduction to spatial databases and techniques. Micro-meteorological measurements. Gaseous and particulate matter in the atmosphere. Batch sampling and continuous methods of air quality monitoring. Soils and sediments. Surface and groundwater hydrochemistry. Surface water hydrology.

Outcomes

On completion of this unit, students will be able to understand the need to perform environmental surveys and monitoring programs, and the need for suitable experimental design of such programs. They will appreciate the importance of quality assurance issues in sampling and analysis associated with environmental monitoring programs, understand the statistical basis for the design of monitoring programs, be familiar with the sampling and monitoring techniques and devices for use in the monitoring of air, water, groundwater, sediments and soils and biota. Students will be competent to plan, design and implement a sampling and monitoring program, analyse and interpret data derived from such programs, communicate the results and interpretation of environmental monitoring surveys, work effectively in a multi-disciplinary team environment, and integrate theory and information drawn from several disciplines into all aspects of monitoring and survey programs.

Assessment

Examination: 45%
Practical class reports and assignments: 15%
Field report: 40%

Chief examiner(s)

Professor Rob Pike

Contact hours

Three 1-hour lectures per week and five 3-hour practicals and a one day field trip.

Prohibitions

ENV3002

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

An introductory section on systematics and phylogeny will establish relationships between the structure, function and evolutionary history of major groups of organisms. These major groups will be introduced and defined in terms of their basic structure and features. Life cycle, habits and habitat will be discussed. Attention will be paid to the diversity of ways in which various members of each group achieve key biological functions such as: feeding; reproduction; gas exchange and locomotion. Representative organisms will be chosen to illustrate the importance of their ecological roles. The process of ecological restoration in degraded ecosystems will also be considered.

Outcomes

On completion of this unit, students should be able to identify the requirements of living things and demonstrate an understanding of the different ways in which organisms meet these requirements; identify the major plant and animal phyla, and the major lineages within these; explain the importance of several key evolutionary events; relate the taxonomy of the major plant and animal phyla, and the major lineages within these, to their structure and function; use field guides and dichotomous keys to identify organisms; describe the ecological role of several representative species and relate this to the use of such species in restoring degraded ecosystems.

Assessment

End of semester examination (3 hours): 60%
Practical and tutorial exercises: 20%
Major assignment - restoring ecosystems: 20%

Chief examiner(s)

Dr Wendy Wright

Contact hours

Three hours of lectures per week and two hours of practical classes per fortnight; plus a one-day field trip.

Off-campus attendance requirements

An optional field trip will be available to OCL students.

Prerequisites

ENV1711 and either BIO1711 or BIO1722 or an equivalent.

Prohibitions

A student who has passed two or more of: BIO2181, BIO2231, BIO2242 and BIO2282 will not be permitted to enrol in ENV2712.

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

ENV2726 begins with an overview of biodiversity and biological resources and the issues involved in the conserving and sustainable management of these resources. Reasons for, and methods of, measuring and monitoring species, populations, habitats, communities and ecosystems are explored with the aim of addressing environmental problems such as habitat loss and species loss, and the impacts of these on ecosystem function and therefore on biological resources. Specific case studies are presented. The subject continues with the identification and discussion of factors which may affect the sustainable management of biological resources. Students will choose a case study and examine, in project work, how such factors may affect a specific conservation program.

Outcomes

On completion of this unit, students will have an understanding of the major issues relating to the sustainable use of biological resources. This will include an understanding of the differences in the reasons for and the methods of conservation at various levels (eg. species, population, community, ecosystem etc.) and an understanding of the various conservation strategies that are available. Students will also develop skills, which allow them to express their opinions regarding the usefulness or desirability of particular conservation and/or management strategies in particular circumstances. Students will be able to identify and discuss various issues, which can affect conservation attempts and apply knowledge of these issues in order to recommend conservation strategies for real or hypothetical situations. Students will develop an understanding of the importance of healthy ecosystems and biological resources in the wider field of resource management.

Assessment

Assignments: 50%
Examination: 50%

Chief examiner(s)

Dr Fiona Hogan

Contact hours

Three 1-hour lectures and one 2-hour tutorial per week, plus an average of approximately 2 hours practical exercises per week (including field excursions and assignment work)

Prerequisites

ENV1711 or ENV1800

Prohibitions

BIO2042 and BIO2031

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Topics include the nature of soil, its formation and classification; physical, chemical, and biological properties of soil; soil organic matter; chemistry of the nutrients in soil including ion exchange, ion sorption, redox potential; environmental impact of soil salinity, acidity and soil erosion and their management practices; effect of human inputs and activities on soils including agrochemicals, agricultural and industrial wastes and pollutants.

Outcomes

On completion of this unit student will gain an understanding of: the fundamental properties of soil and its composition; the role of physical, chemical and biological properties of soil in maintaining soil fertility; the chemistry of essential plant nutrients including N, P, K, and trace metals; the biotransformation of selected plant nutrients; environmental and resource issues relevant to soil including acidity, salinity, soil erosion, chemical pollution, soil management practices and effects of human inputs to soil; the use of selected laboratory and field techniques to assess soil chemical and physical properties

Assessment

Written examination: 60%
Written assignments/field excursion report: 15%
Laboratory work: 25%

Chief examiner(s)

Associate Professor Tony Patti

Contact hours

3 hours lectures/tutorial per week and 3 hours of practical work per week

Prerequisites

One of CHM1022, CHM1639 or CHM1742; or one of CHM1011, CHM1031 or CHM1731 together with ATS2774

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

The unit uses an ecological approach to examine the relationship between human health and their environment. Various factors in the physical, chemical, and biological environment are studied from an epidemiological perspective. Case studies introduce students to ways of assessing environmental hazards, and control measures are discussed. Current environmental health issues such as world health, air pollution, and climate change are considered.

Outcomes

On completion of this unit, students will be able to: identify the major environmental factors that influence human health; demonstrate a basic level of understanding of the mechanisms involved in the spread of diseases within human populations; know the basic terminology in epidemiology sufficiently to be able to read and interpret journal articles on epidemiology; demonstrate an awareness of the factors involved in risk assessment and risk communication; demonstrate an understanding of the epidemiology of infectious diseases and the use of immunisation to control the spread of infections in populations; discuss food contamination and the public health measures used to control food quality; demonstrate an understanding of research methods used to investigate food poisoning outbreaks; describe the main features of microbial life in freshwater and sea water habitats and the role micro-organisms have in the degradation of introduced materials; describe the common infections caused by waterborne pathogens and water testing and treatment; demonstrate a rudimentary knowledge of toxicokinetics, toxicity testing, and the effects of common chemical hazards on human health; describe the properties of common physical hazards and their effects on human health; discuss the public health measures designed to protect the public from hazards in the chemical and physical environment; explain the interactions between human population growth, malnutrition and infection and discuss the major world health problems facing us at present; describe the common chemical, physical, and biological hazards in the indoor air environment and explain appropriate control measures; discuss the possible effects of global warming on public health; use the internet to carry out research

Assessment

Journal article critique: 10%
Internet research assessment: 10%
Written assignment (2000-3000 words): 20%
End-of-semester examination (3 hours): 60%

Chief examiner(s)

Dr Ton So Ha

Contact hours

Equivalent of three 1-hour lectures, one 1-hour tutorial and one 2-hour practical work/field work per week

Prerequisites

One of ENV1616, ENV1711, ENV1800, BIO1637, BIO1711 or BIO1022

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Existing and emerging green technologies that assist in assessing, minimising and remediating the environmental impacts of people on the environment will be considered. The technologies covered will span atmospheric pollution, hydrologic disturbance and contamination (surface and groundwaters) and soil contamination. Students will become familiar their strengths and limitations. A first-hand experience of technological approaches to impact management, through field site visits where particular technologies are in use, is a feature of the course. Aspects of the economic and legislative issues related to the management of the environment and the use of technologies will also be covered.

Outcomes

On completion of this unit, students will have a broad understanding of the impacts of human activity on the environment; be aware of the role played by technology in the broad area of environmental management; be aware of the range of technologies and emerging green technologies, available for managing the state of the environment and human impacts on it, and for minimising and remediating those impacts. Understand the operating principles, applications, strengths and shortcomings of key technologies in surface water, groundwater, soil and air, quality management.

Assessment

Examination (2 hours): 55%
group research project (2000 words): 15%
oral presentation (10 minutes): 10%
two reports on site visits (500 words each): 20%

Chief examiner(s)

Associate Professor Tony Patti

Contact hours

Two hours of lectures and the equivalent of two hours of tutorial/group discussion per week, including at least two field trips

Prerequisites

ATS3546 or ENV3011; except for students enrolled in the Bachelor of Environmental Engineering and Bachelor of Science double degree who are exempt from this rule

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit focuses on environmental management issues relevant to the extraction and production of minerals and energy; and the environmental impacts of these processes. Aspects covered include economic geology, recovery of resources, renewable resources, economic use of energy in conversion to products, basic economics of world trade including material balance, and policies for conservation of the environment as well as the resource. Study guides and a reader (including case studies) will be issued to guide the student in each topic area. Laboratory/tutorials/field work will enhance the theory. Students will be encouraged to develop and express their own views on strategies for alternative/renewable energy sources and materials for a sustainable future.

Outcomes

On successful completion of this unit the student should have a basic knowledge of how resources are deposited, distributed and discovered; appreciate (from case studies): methods of recovery, upgrading and value-adding; be educated in the material balance of global trade; be able to discriminate between good and poor conservation or resource management; have a balanced view of industrial and environmental needs; be able to make value judgements on the importance of sustainable resource development; develop an awareness of factors leading to the need for implementing alternatives to mineral and energy resources; and be able to plan effectively for future needs.

Assessment

Examination: 50%
Assignment: 30%
Laboratory-field work: 20%

Chief examiner(s)

Dr Vincent Verheyen

Contact hours

12 hours per week including home study, field work plus 2 days on-campus at vacation school

Prerequisites

ENV1722

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Topics covered include the reserve system, the role of government, flora and fauna management and protection, indigenous land management, fire ecology and management, human environmental impacts, ecotourism, forest management and general management strategies.

Outcomes

On completion of this unit students will be conversant with the basic ecological, conservation, social economic and management principles that are necessary to formulate a management plan for a natural area such as a national park, state park or state forest; appreciate the role of government and legislation in this planning activity; and use knowledge of the techniques for flora and fauna management, and fire and visitor management, to comment critically on natural area management issues and plans.

Assessment

Written assignments and practical work: 40%
End-of-semester examination: 60%

Chief examiner(s)

Dr Wendy Wright

Contact hours

Equivalent of three 1-hour lectures and one 1-hour tutorial per week plus an average of approximately two hours practical exercises per week (including field excursions and assignment work).

Prerequisites

ENV1722 and six points of level two ENV units

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit examines the role of government, industry and other stakeholders in environmental management. It introduces, examines, explains, analyses and applies the relevant features of environmental management and its associated tools, including environmental auditing and improvement plans, environmental impact assessment and the use of digital mapping technologies such as Global Positioning Systems (GPS) and Geographical Information Systems (GIS) . It explores ethical issues associated with environmental decision making. It is concerned with best practice environmental management and is designed to prepare students for a career in natural resource management, drawing case studies from a range of industries.

Outcomes

On completion of the unit students will: appreciate the roles and responsibilities of government and the various governmental agencies in environmental matters; understand the purpose, role and structure of environmental management systems and be able to apply them in practical industrial settings; appreciate the role, value and limitations of environmental impact assessment and be able to apply this process; be able to critically examine and evaluate the effectiveness of an environment effects statement; have an appreciation of health and environmental effects from industrially-related activities; have an understanding of the procedures required to plan and manage environmental issues; have an appreciation of the role of environmental ethics in managing environmental issues; and be familiar with the use of digital mapping tools such as Global Positioning Systems (GPS) and Geographical Information Systems (GIS) in the management of natural resources.

Assessment

Major assignment (2,500 words): 25%
Minor assignment (1,000 words): 10%
Field activity participation and reports: 20%
Examination (3 hours): 45%

Chief examiner(s)

Dr Fiona Hogan

Contact hours

Three hours of lectures and one hour of tutorial per week, plus 1-2 site visits/fieldwork

Off-campus attendance requirements

OCL students undertake a non-compulsory 2-day residential school program

Prerequisites

ENV1711 or ENV1800

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Establishment of a waste reduction and waste-to-resource culture; Sustainable waste management in the context of greenhouse gas emissions and renewable energy generation; Solid waste disposal and recycling (municipal, C&I, C&D); Treatment/remediation options and disposal of hazardous chemicals; Landfill management; Biological (aerobic and anaerobic) and chemical/physical remediation techniques of recalcitrant organic compounds such as petrochemicals in soils and aquifers; The use of substitutes to minimise environmental impact; Integrating cleaner production opportunities with triple bottom line criteria and life cycle analysis; Case studies are drawn from process industries and historical catastrophes; Scheduled site visit to resource recovery and landfill facility.

Assessment

Examination (3 hours): 60%
Assignments (including report on site visit): 40%

Chief examiner(s)

Dr Barbie Panther

Contact hours

3 x 1-hour lectures and 1 x 1-hour tutorial per week and 1-2 site visits

Prerequisites

CHM1022 or CHM1752, and CHM2752. Students enrolled in the BCivEnvEng must also do ENG3203.

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

The beginning and evolution of the Universe, Solar System and Earth; planetary geology and the structure and chemistry of the Earth and other planets; geological evolution of the Earth, relative and absolute scales in geological time; plate tectonics and the structure of the Earth's crust; minerals and igneous, sedimentary and metamorphic rocks and processes; formation and evolution of life, atmosphere and oceans on the Earth and other planets during geological time, geology and the environment.

Outcomes

On the completion of this unit students will be able to discuss the birth, evolution and age of the universe and solar system; describe the earth's structure and chemistry as well as some of the tools that have been used to discover them, discuss the evolution of the earth's crust over geological time; describe geologic time in relative and absolute terms; identify and describe minerals and rocks, including some of their properties; discuss some of the processes involved in sedimentation, volcanic and igneous activity and metamorphism; and describe theories on the origin and evolution of life, the atmosphere and oceans on earth.

Assessment

Examination (2 hours): 50%
Laboratory work, quizzes, assignment and a field excursion: 50%

Chief examiner(s)

Ms Marion Anderson

Contact hours

Three 1-hour lectures and one 3-hour practical per week

Prohibitions

ENV1011

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

A continuation of the introduction to Geosciences. Topics include: Plate tectonics; formation and evolution of ocean basins and continents, earthquakes and volcanoes, mountain ranges and the formation of coal, petroleum and mineral deposits; the formation of rocks in various sedimentary environments and how rocks and the crust deform over geologic time; palaeontology and the evolution of life in Earth's history; the importance of groundwater hydrology, aqueous geochemistry and transport of elements in waters of the Earth's surface and crust.

Outcomes

On completion of this unit students will be able to discuss the major features of ocean basins and continents, and to describe some of the processes which form them; discuss the processes of sedimentation and use the information tied up in sedimentary rocks to infer their environments of deposition; recognise and explain the features of, and processes, that deform rocks and minerals; describe the geologic evolution of Australia; explain how fossils can be used to study the evolution of life through geologic time, and infer the palaeoclimatic conditions on earth; discuss different types of ore, coal and petroleum deposits and explain some of the processes that form them; explain some of the aspects of geosciences that are important to the environment; explain some of the aspects of remote sensing and how they relate to the study of our planet and other planets.

Assessment

Examination (2 hours): 50%
Laboratory work, quizzes, assignment and two field excursions: 50%

Chief examiner(s)

Ms Marion Anderson

Contact hours

Three 1-hour lectures and one 3-hour practical per week

Prerequisites

ESC1011, or permission

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Investigates evolutionary patterns of Gondwana fauna, for 3.8 billion years. Topics: origin of life, metazoan origins in late Precambrian, Cambrian 'explosion' of shelled organisms, rapid evolution and mass extinctions (acritarchs, dinosaurs), biologic effect extraterrestrial impacts, vulcanism, changing climate and geography (impact of developing aridity on biota, 'Snowball Earth' metazoan origins), origin of major animal groups (molluscs, marsupials). Emphasis on strengths/weaknesses of interpretive methods and how complex science can be presented to a wide audience. Optional Field Trip.

Outcomes

On completion of this unit students should know: some detail of the course of life on Earth from 3.8 billion years to present; the effect that tectonic plate movement and the waxing and waning of continents and ocean basins have had on the biosphere, climate and environments through time; the background to the formation of the modern biosphere of Australasia; that modern environments and climate in Australia are very atypical, and how this has impact on the future predictions of climatic and environmental change; how the fossil record can be used in the dating of rock sequences; how the biosphere interacts significantly with the physical environment; the history of research in palaeontology on the Australian continent; how to present a research paper at a scientific meeting in the form of an oral presentation and a poster, how to interpret scientific research to a public audience and deal with the media. ESC3232 students have the extra workload of submitting an essay in the form of a scientific paper, which is not required for ESC2032 students, and ESC3232 students are expected to produce higher quality work, and marked as such, compared with ESC2032 students.

Assessment

Poster (A0): 15%
Oral Presentation: 15%
Examination (2 hour): 30%
Laboratory work: 40%

Chief examiner(s)

Dr Jeffrey Stilwell

Contact hours

Two 1-hour lectures and one 3-hour practical per week

Prerequisites

24 points of level one units

Prohibitions

ESC3232

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

An integrated understanding of processes that build and modify the Earth's crust. This unit uses the broad framework of plate tectonics to define the nature of all major geological environments and processes. The unit deals with where and how mountain belts form, an introduction to describing structures and their significance, and where and how sedimentary basins form. It also covers sedimentation and understanding the evolution of the atmosphere through time, changes in climate and hence palaeobiology in a plate tectonic context.

Outcomes

On completion of this unit, students will be able: to relate geological processes to global tectonic settings and to provide a broad integrated overview of crustal processes on planet Earth; to understand global volcanism and how volcanic rocks constrain past tectonic regimes; to understand mountain-building processes, and to be able to use the products of tectonics (metamorphosed and deformed rocks) to decipher tectonic processes; to understand earthquakes and deep earth structure; to understand basin evolution and the sedimentological and palaeontological record of basins.

Assessment

Two closed book examinations (2 hours each): 50%
Practical examination: 10%
Practical/fieldwork: 40%

Chief examiner(s)

Dr Jeffrey Stilwell

Contact hours

Three 1-hour lectures, two hours of practical/tutorial classes per week and two 2-day field trips

Prerequisites

ESC1011 and ESC1022, or by permission from the Head of School

Prohibitions

ESC2011

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit focuses on the internal structure of the Earth, plate tectonics and related magmatism/volcanism. We will study how and when rocks melt, and how melts evolve into a variety of magmatic rocks as observed in the field, hand specimen, and under the microscope. We will also study how we determine the age of rocks, the Earth and the solar system. Hydrogeology discusses the flow of groundwater in the shallow Earth's crust and the chemistry of groundwater as an indication of past and present hydrogeological processes, including contamination, salinity, and acid mine drainage

Outcomes

On completion of this unit, students will be able to: understand the internal structure and composition of the Earth; the processes that drive where and when melting takes place on the Earth; the dynamics of the earth's mantle and mantle crust relationships; processes that result in variation of element and isotope abundances and how we use these to determine the age of geologic materials; mineralogy and the petrographic microscope in order to identify igneous rocks and minerals; how the 3D distribution of rocks in the field relates to tectonic processes; basis of groundwater flow and geochemistry in determining hydrogeological processes; dating of groundwater; application of hydrogeology to environmental issues (eg salinity and acid mine drainage)

Assessment

Two examinations (2 hours each): 50%
Practical examination: 15%
Practical/fieldwork: 35%

Chief examiner(s)

Dr Chris Folkes

Contact hours

Three 1-hour lectures and three hours of practical/tutorial classes per week; and one or two one-day field trips.

Prerequisites

ESC2111

Prohibitions

ESC2022

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

On the successful completion of this unit the student will be able to understand the basic concepts of geological mapping, understand the principles and methods of acquiring structural, sedimentological and stratigraphic data in the field, construct accurate geological maps and cross-sections based on field data, read and understand geological maps, understand the origin of geological information expressed in the literature, synthesise large amounts of geological data, and present conclusions derived from field geology in oral and written form. A six-day intensive mapping camp in the Buchan area of eastern Victoria is a major component of the course.

Outcomes

After completing this unit the student will have gained an understanding of geology in the field, including constructing and interpreting geological maps.
The student will be able to:

1. Understand the basic concepts of geological mapping, a fundamental part of understanding earth processes, including the type of information contained on geological maps and how that information is vital to a complete understanding of regional geology;
2. Understand how structural, sedimentological and stratigraphic data are obtained in the field and how such data helps us to understand geological evolution;
3. Be able to construct accurate geological maps and cross-sections based on field data acquired by the student;
4. Be able to read and understand geological maps in general;
5. Understand the origin of field-based geological information presented in the literature;
6. Synthesise large amounts of geological data and express the findings in a final scientific report and orally;
7. Learn about safe behaviour in the field.

Assessment

Geological map, cross-sections and field report: 60%
Assessment of field skills: 5%
Practical assessment: 10%
Literature review (2000 words): 25%

Chief examiner(s)

Professor Sandy Cruden

Contact hours

One 1-hour lecture and one 3-hour tutorial per week. Six field days (Eastern Victoria)

Prerequisites

ESC2111 or permission of the Head of School

Prohibitions

ESC2061, ESC2062

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This subject is an introduction to classification, distribution and characteristics of metalliferous ore deposits. An understanding of ore deposit genesis is developed via an Earth Systems approach. The tectonic settings of ore deposits are considered within the context of the plate tectonic paradigm, and global metallogenic events throughout Earth's history. This includes a brief introduction to the minerals industry, including mining and exploration practices. Practical classes will examine sample sets from around the world and focus on developing and understanding of ore deposit genesis, and on developing skills suitable for the minerals industry. Fieldwork consists of an excursion to examine the ore deposits of Victoria.

Outcomes

This unit aims to provide an introduction to the study and interpretation of metallic ore deposits, their mineralogy, textures, structural history, environments of formation and geochemistry involved in their genesis; expose the student to a wide range of ore deposit styles in the laboratory for both hand specimen and petrographic study; develop scientific understanding and methodologies for effective mineral exploration in Australia and abroad.

Assessment

Examination (3 hours): 50%
Practical Examination: 10%
Laboratory work/assignments/field excursions: 40%

Students must pass the theory examination to achieve an overall pass grade. Students who do not pass the theory examination will receive a mark of 45%, unless their aggregate mark is lower in which case that mark will be recorded.

Chief examiner(s)

Dr Andrew Tomkins

Contact hours

Two 1-hour lectures and one 3-hour practical per week, and one 1-day field excursion

Prerequisites

ESC2111 and ESC2122

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit consists of a 10 day field trip to New Zealand. The field trip will outline various aspects of the geology of New Zealand including active arc volcanoes, geothermal systems, seismically active zones, major fault systems, allochtonous terranes, obducted ophiolites, large braided river systems, active glacial systems, and epithermal gold systems. The unit will traverse New Zealand from South Island to North Island and will focus on the volcanic and neotectonic elements of this geologically dynamic country.

Outcomes

On completion of this unit students will have a view of New Zealand geology and an insight into a dynamic volcanically and seismically active geological system. At the end of the unit students will be able to: recognise, describe and interpret structures in a neotectonic environment; assess kinematic directions associated with shear zones; understand variations in seismicity in different tectonic environments; distinguish between hotspot and subductionprelated volcanism and associated geothermal systems; understand the tectonic evolution of New Zealand and its relationship to Australia.

Assessment

Outcrop presentation: 30%
Logging exercises: 30%
Scientific report: 40%

Chief examiner(s)

Dr Andrew Tomkins

Contact hours

One two hour lecture and an 80 hour field course

Prerequisites

Only 10 positions are available and these will be offered on the basis of academic merit in ESC2111, ESC2122 and ESC2132.

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

A three-week field camp during the mid-year vacation, the unit aims to teach the skills of geological mapping in a classic field location of Australian geology. The emphasis will be on observing, recording, and interpreting geologic phenomena in the field. Students will draw on a theoretical background of lectures and laboratory studies in first, second and third-year geology to analyse real rocks in the real world. Students will use their observations and interpretations to construct geological maps and cross-sections and determine the geological history of a complex poly-deformed terrane.

Outcomes

On completion of this unit students will have developed key observational and interpretation skills associated with collecting geological data in the field. They will be able to: observe and interpret the distribution of lithologies and structures in the field; understand the basic concepts of field mapping techniques; produce a geological map and cross-sections from field observations; determine the relationship between structure and metamorphic assemblages; develop skills in visualizing of complex three dimensional geometries; unravel the geological history of one of the most complexly deformed terranes on the planet; develop skills in determining overprinting relationships from field geology; communicate results in a written report; work in a team environment and communicate of results with peers.

Assessment

Geological map and cross section: 70%
Written reports and exercises: 20%
Field performance: 10%

Chief examiner(s)

Associate Professor Peter Betts

Contact hours

Three weeks over the mid-year vacation

Prerequisites

ESC3201

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Advanced concepts of groundwater flow. Sustainable use of groundwater resources. Chemistry of groundwater and water rock interaction. Groundwater-surface water interactions. Weathering processes and rates of natural and anthropogenic sites. CO2 sequestration. Mine site processes.

Outcomes

On completion of this unit a student will understand: the hydrologic cycle, in particular groundwater; the physical controls on groundwater flow and the impacts that pumping, artificial recharge and land use changes have on natural flow systems; the origins of solutes in groundwater and water-rock interaction; groundwater-surface water interaction; processes of weathering of natural and anthropogenically impacted sites; CO2 sequestration by weathering processes; and environmental impacts of mine wastes.

Assessment

Examination (3 hours): 60%
Laboratory work/assignments/field excursions: 40%

Students must pass the theory examination to achieve an overall pass grade. Students who do not pass the theory examination will receive a mark of 45%, unless their aggregate mark is lower in which case that mark will be recorded.

Chief examiner(s)

Professor Ian Cartwright

Contact hours

Two 1-hour lectures and one 3-hour practical per week, and one 1 or 2-day field excursion

Prerequisites

ESC2122

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit allows students to devote themselves to a major research project during third year. The project may involve field and/or laboratory work and will introduce the student to geoscience research including independent study, problem solving, data generation, analysis, and report writing. The experience gained in the unit will serves as training for postgraduate or professional research.

Outcomes

On completion of this unit students will have an appreciation and understanding of research methods and practices in geosciences. They will have gained experience with data generation, manipulation and presentation. The unit will help develop the nexus between research and learning in the geosciences.

Assessment

Literature Review: 25%
Project Report: 75%

Chief examiner(s)

Professor Ian Cartwright

Prerequisites

Must have passed both ESC2111 and ESC2122 with a distinction average

Co-requisites

18 additional points of third year geosciences units selected from ESC3162, ESC3190, ESC3201, ESC3232, ESC3311, ESC3332, or ESC3421

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Geology is essentially a forensic science, and every geologist needs to know the vital clues to look for in rocks in order to work out how the earth evolved. The unit will:

1. focus on case studies from modern and ancient mountain belts;
2. teach the basic skills necessary to unravel the history of deformation and metamorphism in zones of the Earth's crust affected by tectonism; and
3. show how these observations can be linked and used to infer the large scale evolution of the earth.

Outcomes

On completion of this unit students will be able to describe, classify and interpret the significance of both large and small scale structural features of deformed rock sequences; describe and classify rock microstructure, as well as understand basic concepts of deformation and metamorphic processes in rocks; .observe, identify and measure structural elements in the field, construct structural form surface maps, and to apply concepts of geometric, kinematic and dynamic analysis; understand progressive metamorphism in a variety of rock sequences; be able to quantify the conditions of metamorphism; understand the relationships between metamorphism and tectonics; interpret geochronological data from metamorphic terrains; recognise and understand crustal fluid flow and anatexis.

Assessment

Closed book theory examination (2 hours): 45%
Open book practical examination (3 hours): 25%
Ongoing assessment of practical exercises submitted after each case study: 30%

Students must pass the theory examination to achieve an overall pass grade. Students who do not pass the theory examination will receive a mark of 45%, unless their aggregate mark is lower in which case that mark will be recorded.

Chief examiner(s)

Associate Professor Roberto Weinberg

Prerequisites

ESC2111 or ESC2122

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Investigates evolutionary patterns of Gondwana fauna, for 3.8 billion years. Topics: origin of life, metazoan origins in late Precambrian, Cambrian 'explosion' of shelled organisms, rapid evolution and mass extinctions (acritarchs, dinosaurs), biologic effect extraterrestrial impacts, vulcanism, changing climate and geography (impact of developing aridity on biota, 'Snowball Earth' metazoan origins), origin of major animal groups (molluscs, marsupials). Emphasis on strengths/weaknesses of interpretive methods and how complex science can be presented to a wide audience. Optional Field Trip.

Outcomes

On completion of this unit students should know: some detail of the course of life on Earth from 3.8 billion years to present; the effect that tectonic plate movement and the waxing and waning of continents and ocean basins have had on the biosphere, climate and environments through time; the background to the formation of the modern biosphere of Australasia; that modern environments and climate in Australia are very atypical, and how this has impact on the future predictions of climatic and environmental change; how the fossil record can be used in the dating of rock sequences; how the biosphere interacts significantly with the physical environment; the history of research in palaeontology on the Australian continent; how to present a research paper at a scientific meeting in the form of an oral presentation and a poster, how to write a paper for a scientific journal, how to interpret scientific research to a public audience and deal with the media. ESC3232 students have the extra workload of submitting an essay in the form of a scientific paper, which is not required for ESC2032 students, and ESC3232 students are expected to produce higher quality work, and marked as such, compared with ESC2032 students.

Assessment

Poster (A0) and Essay (2000 words) worth 10% each: 20%
Oral Presentation: 10%
Examination (2 hour): 30%
Laboratory work: 40%

Students must pass the theory examination to achieve an overall pass grade. Students who do not pass the theory examination will receive a mark of 45%, unless their aggregate mark is lower in which case that mark will be recorded.

Chief examiner(s)

Dr Jeffrey Stilwell

Contact hours

Two 1-hour lectures and one 3-hour practical per week.

Prerequisites

24 points of level one units

Prohibitions

ESC2032

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit will give a broad introduction to geophysical methods for students interested in the application of physics and mathematics for mineral exploration and general earth studies. Methods for gathering, processing and interpreting gravity, magnetic and radiometric data are presented in order to provide geological constraints for mineral exploration, regional mapping and numerical models. This unit includes an introduction to regional synthesis and structural geology.

Outcomes

This unit will assist students in gaining an appreciation of geophysical methods for mineral exploration and regional mapping of surface geology. They will learn the physical principles relating to observations of gravity, magnetics, and radiometric data. They will understand the fundamental parameters and the limitations of the equipment available for field work; the basic methods of data processing; data display and analysis; qualitative and quantitative methods of interpretation; and finally arrive at a geological synthesis using case histories.

Assessment

Examination (3 hours): 60%
Practical: 40%

Students must pass the theory examination to achieve an overall pass grade. Students who do not pass the theory examination will receive a mark of 45%, unless their aggregate mark is lower in which case that mark will be recorded.

Chief examiner(s)

Associate Professor Peter Betts

Contact hours

Two 1-hour lectures and one 3-hour practical per week

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit covers the planetary scale structure and dynamics of the Earth, and the fundamental processes which create 'geology' as a natural consequence of Earth evolution. The unit will provide an understanding of the subtle interplay between Earth structure, planetary cooling, geomagnetism, mantle convection, plate tectonics, continental drift, heat flow, earthquakes, melt generation etc, and the diverse measurements/ models needed to gain this understanding including seismicity, seismic tomography, gravity, changing sea level, post-glacial rebound etc. It will concentrate on an integrated, quantitative, model-based approach to the geosciences.

Assessment

Practicals: 20%
Assignment: 20%
Examination (3 hours): 60%

Students must pass the theory examination to achieve an overall pass grade. Students who do not pass the theory examination will receive a mark of 45% unless their aggregate mark is lower, in which case that mark will be recorded.

Chief examiner(s)

Associate Professor Louis Moresi

Contact hours

Two 1-hour lectures and one 3-hour practical per week

Prerequisites

12 credit points at level two in ESC, PHS or MTH units

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

This unit will provide an opportunity for more numerate students to investigate advanced topics in geophysical surveys, system development, imaging and analysis. It will cater for cross-discipline studies in physics, mathematics, electronics, IT, and geospatial technology. Students will gain an appreciation of innovation in instrumentation and application of new technology for sub-surface imaging.

Assessment

Combination of written exam(s), assessed practical(s), report(s), and/or oral presentation(s). The details of assessment will be determined and agreed between third year co-ordinator and student(s) in writing at the beginning of the project.

Chief examiner(s)

Associate Professor Peter Betts

Contact hours

Equivalent course work or independent study to 6 points of 3rd year.

Prerequisites

12 credit points at level two in ESC, PHS or MTH units.

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Sediments: will deal with sediments from a global to microscopic scale, examining the main types of clastic and chemical sediments, their provenance and influences on their mode and environment of deposition. Basins: will examine the variety of sedimentary basins, how they develop and fill, and include aspects of seismic interpretation, well logging and subsidence histories. Resources: will study the generation and accumulation of hydrocarbons and the formation of coal deposits.

Outcomes

On completion of this unit students will have a knowledge of: the different types of sedimentary basins and how they are filled; the main types of clastic and chemical sediments, how they are derived and the influences on their accumulation; what different sediments look like in natural field outcrops, and how sedimentary features can be used to determine depositional environments and stratigraphic sequences; the basic principles of seismic interpretation and well logging and how different stratigraphic and structural features can be recognised; the principles of hydrocarbon generation, migration and accumulation; environments in which peat accumulates and the formation of coal deposits; preparation of reports based on field observation, laboratory exercises and personal research.

Assessment

Practical work: 30%
Field work: 20%
Test (3 hours - theory and practical): 50%

Students must pass the theory examination to achieve an overall pass grade. Students who do not pass the theory examination will receive a mark of 45% unless their aggregate mark is lower, in which case that mark will be recorded.

Chief examiner(s)

Dr Fabio Capitanio

Contact hours

One 2-hour lecture and one 3-hour practical class each week, and one day field excursion

Prerequisites

ESC2111 and ESC2122, or by permission from the Head of School

Prohibitions

ESC3211, ESC3241

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Physical volcanology: will address volcanic eruption styles and processes, and the variety and characteristics of eruption products. Igneous petrology: will include material on the petrology and geochemistry of the Earth's mantle and crust, their melting to generate silicate magmas and the emplacement of these magmas in and on the crust; also the basics of trace element and isotope geochemistry applied to the understanding of these processes.

Outcomes

On completion of this unit, the student will have a knowledge of: the nature of melting processes within the Earth's interior and the way magmas move toward the surface, fill magma chambers, undergo crystallization and erupt; the physical processes which underlie volcanic activity, involving a range of magma types; the field occurrence and mineralogical/chemical nature of a range of products of magmatic activity, with emphasis on volcanic products; the distinctive geochemical features of volcanic rocks in the various global tectonic environments, and the significance of these features in terms of magma sources and evolution processes.

Assessment

Practical work: 30%
Fieldwork: 20%
Examination (3 Hours): 50%

Students must pass the theory examination to achieve an overall pass grade. Students who do not pass the theory examination will receive a mark of 45% unless their aggregate mark is lower, in which case that mark will be recorded.

Chief examiner(s)

Professor Ray Cas

Contact hours

One 2-hour lecture and one 3-hour practical class per week and one 3-day field excursion

Prerequisites

ESC2111 and ESC2122, or by permission from the Head of School

Prohibitions

ESC3211, EC3212

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

The project fosters independent work and problem-solving abilities. The results of the research project are written up in a thesis and reported in a seminar.

Assessment

Written report and research essay (up to 3000 words): 100%

Chief examiner(s)

Professor Ian Cartwright

Prerequisites

24 points of level three ESC units, including at least 12 points from ESC3201, ESC3411 or ESC3421

Co-requisites

ESC4200

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Refer to ESC4100

Assessment

Refer to ESC4100

Chief examiner(s)

Professor Ian Cartwright

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.

Synopsis

Refer to ESC4100

Assessment

Refer to ESC4100

Chief examiner(s)

Professor Ian Cartwright

Refer to the specific census and withdrawal dates for the semester(s) in which this unit is offered, or view unit timetables.