Course overview
- Study period
- Semester 2, 2024 (22/07/2024 - 18/11/2024)
- Study level
- Undergraduate
- Location
- St Lucia
- Attendance mode
- In Person
- Units
- 2
- Administrative campus
- St Lucia
- Coordinating unit
- The Environment School
The course is designed to appeal to Science, Engineering, and Business students interested in how mineral sciences and mineral availability impact our society's ability to implement a low-carbon future and protect the environment. It introduces mineralogy to first-year students and is a prerequisite for students pursuing several second-year level courses in Earth Sciences. Minerals are the fundamental building units of the rocks that make up the Earth and other planets in the solar system. This course will examine the chemical and crystallographic features that distinguish different groups of minerals from one another and explain why different types of mineral are found in specific parts of the Earth and solar system. You will learn about the major classes of mineral including silicates, carbonates, phosphates, oxides, hydroxides, sulphates and sulphides, their significance, common uses, and how to recognise their defining features in hand specimen and under a microscope. Silicates are the main building blocks of the terrestrial planets and are used in ceramics, electronics, buildings and as aggregates. Minerals have been critically important in the evolution of life, carbonate and silica form invertebrate exoskeletons, and vertebrate teeth and bones are made of phosphates. Engineered precipitation of carbonate minerals provides one possible mechanism of removing CO2 from the atmosphere. Phosphates are a major host for rare earth elements and sulphides and oxides host Cu, Ni, and Co, which are strategic elements needed for electric cars and smart phones. The course will briefly examine how different minerals contain the elements needed for modern society and how the mineralogical controls on these elements impact strategies for their extraction.
The transition from a fossil-fuels-based to an electricity-based economy will require an unprecedented amount of minerals, many so called Critical Minerals. Finding, extracting, processing, and delivering these minerals to the market place poses a major geological, economic, engineering, and environmental challenge. Minerals are the building blocks of rocks, sediments, dust, and other solid materials on Earth and all terrestrial planets, asteroid, comets, and interstellar dust in the universe. They contain clues about planetary origin and evolution, including their oceans and atmospheres. This courses investigates modern quantitative scientific approaches to the discovery of new mineral wealth, including the physico-chemical investigation of mineral properties and how these properties can be used to decipher the clues that minerals preserve in terms of past events and environments that may aid in their discovery.ᅠThe course blends fundamental theoretical and descriptive aspects of chemistry, mineralogy, crystallography, and mineral chemistry with modern quantitative mineralogical analysis. Lectures and practicalᅠclasses focus on the physical, chemical, and optical properties of minerals of specific interest, ᅠhow we measure these properties,ᅠ and the processes that control mineral formation in igneous, metamorphic, and sedimentary environments. The closely integrated lecture-practical components teachᅠ students how to recognize the main rock-forming minerals in hand specimens and thin sections, and how to use modern analytical techniques, such as ᅠX-ray diffractometry (XRD),ᅠ scanning electron microscopy (SEM), and electron microprobe analysis to identify mineral phases, to obtain information about crystalline structure, and to acquire high-resolution surface images and chemical analyses of minerals. Characterization is essential for developing pathways for the beneficial use of these resources.
Course requirements
Recommended prerequisites
We recommend completing the following courses before enrolling in this one:
ERTH1000 or ERTH1501
Incompatible
You can't enrol in this course if you've already completed the following:
ERTH2005
Course contact
Course staff
Lecturer
Tutor
Timetable
The timetable for this course is available on the UQ Public Timetable.
Additional timetable information
There are two 3-hour contact sessions, which will include both lecture and practical material at various times.ᅠ
- Thursday 9:00 am - 12:00 pm, Building 3 (Steele Building), Room 229
- Friday 9:00 am - 12:00 pm,ᅠBuilding 3 (Steele Building), Room 229
Note: Attendance ᅠis mandatory.
Please see section 4 (Learning Activities) or the Blackboard site of this course forᅠa schedule of weekly lectures and practicals, and course quizzes ᅠand exams.
Aims and outcomes
This course aims to be of broad interest to Science, Engineering and Business students interested in how mineral science can help address some of the biggest challenges faced by society moving to a low-carbon future. In addition, it aims to teach students the characteristics of major mineral groups, how to identify minerals in hand specimen and with an optical microscope and introduce students to concepts around mineral stability, some mineral reactions, and how minerals are formed (e.g. mineral paragenesis). This course is a prerequisite for second year Earth Science courses.
Learning outcomes
After successfully completing this course you should be able to:
LO1.
An understanding of how elements combine to form minerals
LO2.
A knowledge of different mineral groups
LO3.
Knowledge of which minerals are critical to society and are required to enable a low carbon future
LO4.
Ability to recognise different minerals in hand specimen
LO5.
Ability to use a petrographic optical microscope and recognise common minerals under the microscope
LO6.
Awareness of common mineral associations
LO7.
Understanding of why different minerals form in different places
LO8.
Be aware of how the form of mineral occurrences imposes limits on the uptake of technology
Assessment
Assessment summary
Category | Assessment task | Weight | Due date |
---|---|---|---|
Examination, Quiz | MID-TERM EXAM | 15% | |
Examination |
FINAL PRACTICAL EXAM
|
20% | |
Paper/ Report/ Annotation, Project |
CRITICAL MINERAL GROUP PROJECT
|
30% |
28/10/2024 4:00 pm |
Examination |
Final Exam (Theory)
|
35% |
End of Semester Exam Period 2/11/2024 - 16/11/2024 |
Assessment details
MID-TERM EXAM
- Mode
- Written
- Category
- Examination, Quiz
- Weight
- 15%
Task description
In Week 7 – September 6, 2024) – there will be a mid-term exam that covers all the theory and practical material up to Week 6. Students will have to individually demonstrate their ability to identify minerals in hand specimen and thin sections, will have to demonstrate basic knowledge of crystal chemistry (chemical compositions and formulas), and will have to understand the economic, engineering, environmental, and medical importance of the minerals investigated up to that point in the course.
Exam details
Planning time | no planning time minutes |
---|---|
Duration | 120 minutes |
Calculator options | Any calculator permitted |
Open/closed book | Closed Book examination - specified written materials permitted |
Materials | One A4 sheet of handwritten or typed notes, double sided, is permitted |
Exam platform | ExamSoft |
Invigilation | Invigilated in person |
Submission guidelines
Deferral or extension
You may be able to defer this exam.
Deferral according to University rules, with School/Faculty approval.
FINAL PRACTICAL EXAM
- In-person
- Mode
- Written
- Category
- Examination
- Weight
- 20%
- Other conditions
- Student specific.
Task description
Comprehensive exam based on all material covered in practicals. This will take place on FRIDAY OCTOBER 25TH from 9:00 am to 12:00 pm.
Exam details
Planning time | no planning time minutes |
---|---|
Duration | 180 minutes |
Calculator options | Any calculator permitted |
Open/closed book | Closed Book examination - specified written materials permitted |
Materials | One A4 sheet of handwritten or typed notes, double sided, is permitted Hand lens, pocket knife, or any other tool useful in mineral identification and characterization. |
Exam platform | Paper based |
Invigilation | Invigilated in person |
Submission guidelines
Submit to course coordinator at the end of the exam.
Deferral or extension
You may be able to defer this exam.
Deferral requires School/Faculty approval.
CRITICAL MINERAL GROUP PROJECT
- Team or group-based
- Mode
- Written
- Category
- Paper/ Report/ Annotation, Project
- Weight
- 30%
- Due date
28/10/2024 4:00 pm
Task description
Students will be given a sample of a mineral containing their critical element of interest. This mineral will become the topic of the Critical Mineral Project. The student will identify the mineral, will interpret the conditions under which the mineral formed, will determine the amount of the element of interest contained in that mineral, and will discuss the implications of having to find, mine, process, and engineer enough of that mineral to satisfy a specific market need (a wind mill, a Tesla automobile, an I-Phone, a solar panel, etc.). The resultant observations and data will be put together in a brief report, formatted like a paper for the journal Elements where the student will identify the mineral and discuss where to safely secure large quantities of that element and hosting mineral on Earth. The overall mark for each project will be weighted 75% content, 20% presentation, and 5% peer-assessment. This group project involves the synthesis and application of techniques learned in lectures, practicals, and reading materials during the semester.
Submission guidelines
Critical Mineral Project to be submitted via Turnitin.
Deferral or extension
You may be able to apply for an extension.
The maximum extension allowed is 28 days. Extensions are given in multiples of 24 hours.
Must be approved by School/Faculty.
Late submission
A penalty of 10% of the maximum possible mark will be deducted per 24 hours from time submission is due for up to 7 days. After 7 days, you will receive a mark of 0.
Final Exam (Theory)
- In-person
- Mode
- Written
- Category
- Examination
- Weight
- 35%
- Due date
End of Semester Exam Period
2/11/2024 - 16/11/2024
- Other conditions
- Student specific.
Task description
On campus in person invigilated exam held during the central exam period.
Course Hurdle: to pass this course you must also attain a mark of 50% or above in the final theory examination.
Exam details
Planning time | 10 minutes |
---|---|
Duration | 120 minutes |
Calculator options | Any calculator permitted |
Open/closed book | Closed Book examination - specified written materials permitted |
Materials | One A4 sheet of handwritten or typed notes, double sided, is permitted |
Exam platform | Paper based |
Invigilation | Invigilated in person |
Submission guidelines
Deferral or extension
You may be able to defer this exam.
Deferral according to University rules, with School/Faculty approval.
Course grading
Full criteria for each grade is available in the Assessment Procedure.
Grade | Description |
---|---|
1 (Low Fail) |
Absence of evidence of achievement of course learning outcomes. Course grade description: The minimum percentage required for this grade is: 0% |
2 (Fail) |
Minimal evidence of achievement of course learning outcomes. Course grade description: The minimum percentage required for this grade is: 30% |
3 (Marginal Fail) |
Demonstrated evidence of developing achievement of course learning outcomes Course grade description: The minimum percentage required for this grade is: 45% |
4 (Pass) |
Demonstrated evidence of functional achievement of course learning outcomes. Course grade description: The minimum percentage required for this grade is: 50% |
5 (Credit) |
Demonstrated evidence of proficient achievement of course learning outcomes. Course grade description: The minimum percentage required for this grade is: 65% |
6 (Distinction) |
Demonstrated evidence of advanced achievement of course learning outcomes. Course grade description: The minimum percentage required for this grade is: 75% |
7 (High Distinction) |
Demonstrated evidence of exceptional achievement of course learning outcomes. Course grade description: 84.5%+ |
Additional course grading information
The course grade will be established by combining the marks for all assessment items according to the weighting given in section 5.1. However, to pass this course you must also attain a mark of 50% or above in the final theory examination.
Supplementary assessment
Supplementary assessment is available for this course.
Should you fail a course with a grade of 3, you may be eligible for supplementary assessment. Refer to my.UQ for information on supplementary assessment and how to apply.
Supplementary assessment provides an additional opportunity to demonstrate you have achieved all the required learning outcomes for a course.
If you apply and are granted supplementary assessment, the type of supplementary assessment set will consider which learning outcome(s) have not been met.
Supplementary assessment can take any form (such as a written report, oral presentation, examination or other appropriate assessment) and may test specific learning outcomes tailored to the individual student, or all learning outcomes.
To receive a passing grade of 3S4, you must obtain a mark of 50% or more on the supplementary assessment.
Additional assessment information
Applications for Extensions
Information on applying for an extension can be found here - my.UQ Applying for an extension
Extension applications must be received by the assessment due date and time.
If you are unable to provide documentation to support your application by the due date and time you must still submit your application on time and attach a Word document outlining why you cannot provide the documentation and upload the documentation to the portal within 24 hours.
Please note: While your extension request is being considered, you should work towards completing and submitting your assessment as soon as possible.
If you have been ill or unable to attend class for more than 4 weeks in a semester, we advise you to carefully consider whether you are capable of successfully completing your courses. You might need to consider applying for removal of course. We strongly recommend you seek advice from the Faculty that administers your program.
Extensions with Student Access Plans (SAP)
For extensions up to 7 days, your SAP is all that is required as documentation to support your application. However, extension requests longer than 7 days (for any one assessment item) will require the submission of additional supporting documentation e.g., a medical certificate. A maximum of two applications may be submitted for any one assessment item, unless exceptional circumstances can be demonstrated. All extension requests must be received by the assessment due date and time.
The assessment tasks in this course evaluate students’ abilities, skills and knowledge without the aid of Artificial Intelligence (AI). Students are advised that the use of AI technologies to develop responses is strictly prohibited and may constitute misconduct under the Student Code of Conduct.
Turnitin
By submitting work through Turnitin you are deemed to have accepted the following declaration “I certify that this assignment is my own work and has not been submitted, either previously or concurrently, in whole or in part, to this University or any other educational institution, for marking or assessment”.
All students must ensure they receive their Turnitin receipt on submission of any assessments. A valid Turnitin receipt will be the only evidence accepted if assessments are missing. Without evidence, the assessment will receive the standard late penalty, or after five days, will receive zero.
In the case of a Blackboard outage, please contact the Course Coordinator as soon as possible to confirm the outage with ITS.
Weekly practical exercises:
Weekly practical exercisesᅠ to gain experience in using ᅠphysical properties, microscopy techniques, and spectroscopic techniques in mineral identification and evaluation.
There are 11 exercises in total, which will be undertaken during class. Practical exercises commence in class on Thursday and continue in class on Friday.
In-class quizzes and practical exams:
Four in-class quizzes, each of about 10 minutes' duration, will be administered at unspecified times at the beginning of class throughout the semesterᅠ and are designed to: (1) encourage you to keep on top of lecture and laboratory/practical lessons and exercises; (2) to assess your mastery of the material; and (3) most importantly, to provide feedback regarding your progress throughout the semester.
Study material for "in-class quizzes" will come from lecture material, lecture notes, and the exercises carried out in the practicals.
In-class quizzes and practical exams should be completely legible with well-labelled sketches and drawings when applicable. Responses that are not readable will receive a score of zero.
Final exams
There will be one "theory" and one "practical" final exam. The "theory" final exam will assess your overall command of: (1) principles of crystal chemistry, (2) fundamental physical, crystallographic and chemical properties of common rock-forming silicate and nonsilicate minerals, (3) modern methods used to study minerals, (4) mineral paragenesis, (5) uses and importance of common rock-forming minerals in understanding Earth materials, processes and evolution, and (6) using basic command of (1)-(5) to secure resources for growing population in a resources- and capacity-finite planet.
The "practical" final exam will assess your overall command of: (1) use of a petrographic microscope to identify and characterize minerals, (2) identification of minerals in hand samples, and (3) understanding of mineral associations and textures in rocks, using this information to interpret something about geological formation conditions and history of a rock in hand sample or thin section, and using the gathered information to decide where to find and how to extract resources from specific minerals.
NOTE: obtaining a mark of 50% or above on the final theory exam is a hurdle that must be cleared in order to pass the course as a whole. Failing the theory exam will result in an overall 'fail' grade, irrespective of marks for other assessed items.
Learning resources
You'll need the following resources to successfully complete the course. We've indicated below if you need a personal copy of the reading materials or your own item.
Library resources
Library resources are available on the UQ Library website.
Other course materials
If we've listed something under further requirement, you'll need to provide your own.
Required
Item | Description | Further Requirement |
---|---|---|
The Manual of Mineral Science, Klein and Dutrow |
Additional learning resources information
- MINDATᅠ- a constantlyᅠupdated database with all known mineral species, physical properties (although not as complete as Web Mineral, below), site and specimen photographs, and discussion fora. It links to Web Mineral (below) and other databases.
- RRUFFTM- a growing database of spectroscopic, X-ray diffraction and other data for minerals, originated at the University of Arizona.
- Web Mineral - a mineralogical database with a complete set of chemical and physical data of minerals. This is a great place to look for reliable mineral data, and links to other databases.
- Mineralogical Society of Antwerp - a Europe-centred base from which to find other mineral sites including rock shops, science sites, etc.
- Bob's Rock Shopᅠ- another motherlode of links, but this time based in the USA.
- Mineralogical Society of Queensland - your local society for mineral and gemstone afficionados.
- 3D Rocks: https://sketchfab.com/nate_sid/collections/igneous-petrology
- 3D Minerals: https://sketchfab.com/nate_sid/collections/minerals
- https://jp-minerals.org/vesta/en/download.html
- Mineral structural data:ᅠhttp://rruff.geo.arizona.edu/AMS/amcsd.php
- http://www.designlife-cycle.com
- https://www.ga.gov.au/scientific-topics/minerals/critical-minerals/critical-minerals-and-their-uses
- https://www.usgs.gov/news/national-news-release/us-geological-survey-releases-2022-list-critical-minerals
ᅠ
Learning activities
The learning activities for this course are outlined below. Learn more about the learning outcomes that apply to this course.
Filter activity type by
Please select
Learning period | Activity type | Topic |
---|---|---|
Week 1 |
Problem-based learning |
Introduction to Critical Minerals and Basic Principles of Mineralogy - Getting to know your peers and finding suitable partners for a group Introductory presentation on the importance of mineral science by Mars2020 Project Scientist(s). Program, evaluation, and basics of mineral sciences. What exactly is a mineral and why you should care. History of mineralogy. Nature and abundance of elements. Determining physical properties. What are Critical Minerals? What modern devices require these "critical minerals". Based on the elements needed to make your favorite device (I-phone, Tesla, laptop, solar panel, race bike, etc.), choose an element that will be the base for your course project. Based on that element, you will be given a mineral that you and your group will have to identify and investigate in detail. Study the following sites to choose your "critical element" of interest: http://www.designlife-cycle.com https://www.usgs.gov/news/national-news-release/us-geological-survey-releases-2022-list-critical-minerals https://www.ga.gov.au/scientific-topics/minerals/critical-minerals/critical-minerals-and-their-uses |
Problem-based learning |
Physical Properties Exercise - Choosing a Critical Mineral for the Group Project Based on your reading of the information in the sites below : http://www.designlife-cycle.com https://www.usgs.gov/news/national-news-release/us-geological-survey-releases-2022-list-critical-minerals https://www.ga.gov.au/scientific-topics/minerals/critical-minerals/critical-minerals-and-their-uses and your group choice, tell the tutors which "critical element" of interest each group will be studying. Based on your choice of "critical element", each group will be given a mineral in the following session. After choosing your group and your critical element, you will practice identifying minerals by describing their physical properties. |
|
Week 2 (29 Jul - 04 Aug) |
Problem-based learning |
Basics of Crystal Chemistry and Structure - Why Elements End-up in Specific Minerals Nature and abundance of elements, atomic structure, chemical bonding, valence state, size of atoms and ions. Atomic packing and coordination of ions, Paulings rules, crystal structures and mineral classification Crystal lattices, symmetry and symmetry operations, crystallographic axes, crystal systems, crystal form and habit, Miller indices. |
Problem-based learning |
Optical Mineralogy 1 Properties of light, polarization, light interaction with matter, refraction, color and pleochroism. Operate the petrographic microscope, measure fundamental optical properties of minerals in orthoscopic illumination (e.g. relief, colour, pleochroism, extinction). Learning outcomes: L04, L05 |
|
Week 3 (05 Aug - 11 Aug) |
Problem-based learning |
Optical mineralogy - part 2 Isotropy and anisotropy, optics of isotropic minerals, double refraction, uniaxial and biaxial minerals, retardation, birefringence, interference colors, and extinction. Operate the petrographic microscope, measure fundamental optical properties of minerals in orthoscopic illumination. Learning outcomes: L04, L05 |
Problem-based learning |
Optical Mineralogy 3 Optical indicatrix, ray splitting and orientation, sign of elongation, optic sign, interference figures, and optic angle (2V). Learning outcomes: L04, L05 |
|
Week 4 (12 Aug - 18 Aug) |
Problem-based learning |
Igneous minerals 1 (Neso/soro/cyclosilicates) Introduction to minerals formed mainly by igneous processes starting with nesosilicates (olivine), sorosilicates, and cyclosilicates. Investigate the crystal-chemical control on the partitioning of specific "critical elements" into those minerals. Assess the degree of difficulty and energy required to extract desirable elements from these minerals. |
Problem-based learning |
Igneous minerals 2 (Inosilicates) Single-chain inosilicates (pyroxenes and pyroxenoids) and double-chain inosilicates (amphiboles). Investigate the crystal-chemical control on the partitioning of specific "critical elements" into those minerals. Assess the degree of difficulty and energy required to extract desirable elements from these minerals. |
|
Week 5 (19 Aug - 25 Aug) |
Problem-based learning |
Mineral Stability and Phase Diagrams Introduction of Bowen's reaction series and some basic phase diagrams, correlated with observed mineral occurrences and microstructures. Some basic thermodynamic concepts introduced. Thermodynamic concepts will be used to explain why some minerals may have their bonds more easily broken. The importance of broken bonds on the possible capture of atmospheric CO2 will be discussed. Learning outcomes: L01 |
Problem-based learning |
Igneous minerals 3 (Phyllosilicates) Phyllosilicates (micas, chlorite, etc.). The importance of phyllosilicates in critical mineral availability, and the advantages and difficulties imposed by phyllosilicates on mineral production. |
|
Week 6 (26 Aug - 01 Sep) |
Problem-based learning |
Igneous minerals 4 (Tectosilicates) Tectosilicates including feldspars, feldspathoids, SiO2 group. Their importance as sources of critical elements to high-tech industries. |
Problem-based learning |
Metamorphic minerals 1 Low-to-intermediate grade metamorphic minerals: sorosilicates (epidote, lawsonite, pumpellyite) and phyllosilicates (chlorite, serpentine, talc, pyrophyllite, prehnite). Determine physical & optical properties, and identify phyllosilicates, pyroxenoids and amphiboles in low-to-intermediate grade metamorphic rocks. Many of the mineral villains in human health. |
|
Week 7 (02 Sep - 08 Sep) |
Problem-based learning |
Metamorphic minerals 2 Intermediate-to-high grade metamorphic minerals: inosilicates (pyroxenes, amphiboles), nesosilicates (garnets, staurolite, Al2SiO5 polymorphs), and cyclosilicates (cordierite). Determine physical & optical properties, and identify phyllosilicates, nesosilicates and cyclosilicates in intermediate-to-high grade metamorphic rocks. Investigate the role of high-grade metamorphism in purifying "critical minerals". |
Practical |
MIDTERM EXAM A mid-term exam where you will be required to demonstrate the practical knowledge acquired up to this point. |
|
Week 8 (09 Sep - 15 Sep) |
Problem-based learning |
Sedimentary minerals 1 (Clays) Introduction to weathering and sedimentary processes, clay mineral formation, the use of clay minerals in agriculture, engineering, and high-tech. The critical elements trapped in clay minerals and frontiers of critical minerals exploration. |
Problem-based learning |
Sedimentary Minerals 2: Carbonates Introduction to chemical sedimentation: carbonates, CO2 sequestration, and how planet Earth regulates its climate. |
|
Week 9 (16 Sep - 22 Sep) |
Problem-based learning |
Sedimentary, igneous, and organic minerals: phosphates Introduction to organic sedimentation: phosphates, the building blocks of vertebrates and why we fluorinate our drinking water. Introduction to igneous phosphates and their importance in the production of critical rare-earth elements and minerals. |
Problem-based learning |
More on sedimentary minerals and what happens when water evaporates: sulfates and halides. Minerals precipitated when water evaporates: why so many critical elements are associated with evaporites? What are the critical minerals that contain those elements? What are the environmental consequences of mining these minerals? Are there any options? |
|
Week 10 (30 Sep - 06 Oct) |
Problem-based learning |
Analytical Techniques Techniques used for mineral identification and characterization (optical and electron microscopes, electron microprobe, X-ray diffraction, and mass spectrometry). Identify mineral species using X-ray diffraction data and calculate mineral chemical formula from electron microprobe analysis. Learning outcomes: L01, L04 |
Problem-based learning |
Native Elements Introduction to ore genesis: native elements. Basic principles of reflected light microscopy. Basic mineral identification in reflected light. Where does the gold in your computer, I-phone, and other devices come from? The properties of native metals that make them so desirable. |
|
Week 11 (07 Oct - 13 Oct) |
Problem-based learning |
Igenous, sedimentary, metamorphic, and weathering minerals: oxides What is so special about the structures of oxides? Why are so many critical elements enriched in oxides? Why do oxides underpin the Australian economy and federal budget? |
Problem-based learning |
The smelly minerals: sulphides Sulfides occur in igneous, sedimentary, metamorphic, and weathering-related rocks. Where does the S come from, how does it get reduced, and why does it bond with so many important critical elements? Why are sulphides so easy to recover from a rock, even in very low concentrations? What happens when we produce critical minerals from sulphides? What to do with all that sulphuric acid? |
|
Week 12 (14 Oct - 20 Oct) |
Problem-based learning |
Hydroxides: other valuable contributors to the Australian economy, to your I-phone, your laptop, your Tesla, and the planes that fly you around. How does rain water provide critical elements? |
Problem-based learning |
Critical minerals if you want to move to the Moon or Mars Which minerals would be most valuable for inhabiting the moon or Mars? Are there minerals on the Moon that could be mined and returned to Earth at a profit? |
|
Week 13 (21 Oct - 27 Oct) |
Problem-based learning |
Review Review of techniques and addressing any questions about critical elements and minerals. |
Practical |
FINAL PRACTICAL EXAM Final practical exam – 180 minutes covering all minerals and technical aspects investigated throughout the semester. |
Policies and procedures
University policies and procedures apply to all aspects of student life. As a UQ student, you must comply with University-wide and program-specific requirements, including the:
- Student Code of Conduct Policy
- Student Integrity and Misconduct Policy and Procedure
- Assessment Procedure
- Examinations Procedure
- Reasonable Adjustments - Students Policy and Procedure
Learn more about UQ policies on my.UQ and the Policy and Procedure Library.