Masters Degrees (Mineralogy)

Our environmental science research is multidisciplinary, including subjects ranging from biology to geography and geosciences. Supported by the global outlook and impact of the Newcastle Institute for Sustainability, you will have access to international experts, the latest facilities and a unique research support package to ensure your future success.

We offer MPhil supervision in the following subjects areas associated with environment science:

Applied and environmental biology

We conduct research on organisms and processes of commercial and environmental importance, embracing experimental approaches that encompass genomics, molecular biology, biochemistry and physiology. Our research provides evidence for the underlying molecular and physiological processes that affect animal behaviour and physiology.

Our research is driven by the desire to develop new biological systems that address health, food, energy and water security. The applied nature of our work has led to the launch of successful spin-out companies, such as Geneius. These companies offer graduate employment opportunities and make a substantial contribution to the local economy. The commercial applications that result from our research range from natural products discovery and creation of novel antimicrobials and biopesticides to sustainable methods of reducing food spoilage.

Based in the Newcastle Institute for Research on Sustainability (NIReS), our research laboratories include well-equipped molecular laboratories for polymerase chain reaction (PCR) and quantitative polymerase chain reaction (qPCR) amplification, fluorescence in situ hybridization (FISH), and facilities for the production of novel recombinant proteins, including protein engineering. Microbiological laboratories are equipped to Category 2 standard. We have the latest equipment for profiling plant leaf gas exchange and light use efficiency, high performance liquid chromatography, fluorescence and light microscopy and easy access to central facilities for confocal and electron microscopy, DNA sequencing, microarray analyses and proteomics. We also have a suite of licenced controlled environment rooms for growing transgenic plants and for housing quarantine invertebrate pests.

Applied and environmental biology research is based in the School of Biology and led by academic staff with international reputations.

Environmental change and management

We study long-term system evolution and change, developing knowledge relating to the Earth's surface and the processes that form its structure and function. We also study how human behaviour impacts on these systems and influences sustainable management.

Based in the School of Geography, Politics and Sociology, you will be part of an active research community of nearly 200 social science researchers. We pride our research on being the highest academic quality with an international focus, underpinned by a concern for informing public debate and contributing to public policy formulation.

Research in physical geography is supported by a number of laboratories:
-Newcastle Cosmogenic Isotope Facility
-Geomorphology Laboratory
-Chemical, paleoecology and organic chemistry laboratories
-Spatial Analysis Laboratory

We have over 90 academic and research staff and we will ensure that your project is supervised by experts in your field.

Geosciences

Geoscience research at Newcastle is focused on:
-Biogeochemistry, with particular strength in microbial ecology, mineralogy, organic, inorganic and isotope geochemistry
-Geoenergy, reflecting a balance between fossil fuels as a critical energy resource and the move towards a lower carbon global economy

Our biogeochemistry and geoenergy research forms a strong multi-disciplinary group. We also have links to the engineering community through our work on microbial processes of significance to oil and gas production such as reservoir souring.

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The Master of Physical Land Resources has two specializations: Soil Science (organized by the Universiteit Gent) and Land Resources Engineering (organized by the Vrije Universiteit Brussel). During your training you acquire a profound knowledge of pedology, soil physics and chemistry, soil mineralogy, soil prospection and classification, statistics and computer science, climatology and meteorology. Depending on the chosen modules you can specialize in the fields of: land evaluation, soil fertility, soil-water management, etc.

This master offers

 Knowledge and skills which enable you to start and build a successfull career as scientist specialised in either Soil Science or Land Resources Engineering in a professional way.
 The ability to formulate hypotheses and design experiments to test them, report results and findings to both your peers and to a general public.
 You to learn to think analytically, synthetically, creatively and in a problem solving way
 The ability to work both autonomously and in a team.
 The ability to apply knowledge as required for the overall development policy of your country
 The skills to function in fundamental as well as in applied research at universities, research institutions and (other) government or private institutions and companies.

International Course Programme

This programme is one of the International Course Programmes supported by the Flemish Interuniversity Council - University Development Cooperation (VLIR-UOS). A limited number of scholarships is available for students coming from specific developing countries.

Structure

The Master of Science degree programme in Physical Land Resources is a two year, full time course.

The first year provides a fundamental basis in physical land resources, with a main subject in either Soil Science or Land Resources Engineering. The second year offers specialised courses in one of the two main subjects. The students have to prepare a dissertation. Successful completion of the programme leads to the award of an Master of Science degree in Physical Land Resources.
The course curriculum of the first year, and of the main subject in soil science of the second year is organised at the Ghent University, whereas all courses of the main subject in Land Resources Engineering of the second year are organised at the "Vrije Universiteit Brussel". Students in Land Resources Engineering have to reside in Brussels during the second year.

The academic year starts the last week of September. Students are expected to arrive in Gent ten days before the start of the programme. There are two examination periods, in January and in June respectively. For students who fail, there is a re-examination session in August-September.

Curriculum

For the specialization Land Resources Engineering the curriculum is available on http://www.vub.ac.be/en/study/physical-land-resources/programme

For the specialization Soil Science the curriculum is available on http://www.plr.ugent.be/main.htm#course

Student profile

You want to know what (a) soil is?
You want to know which factors and properties determine the soil suitability to be used for both agricultural and non-agricultural purposes and how this is established?
You want to know how the soil can be improved to suit specific applications?
You want to know how to address problems of degradation and desertification?
You want to know how to manage the land and how to protect it?
You want to know what the impact of the soil factor is in the dynamics of natural ecosystems and how this knowledge can be applied in the area of nature conservation?
You want to know what the soil teaches us about current environmental issues?
You want to know how soil and water management can be improved in the frame of sustainable agriculture?
You want to know how we can manage our scarce water supplies?

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Birkbeck’s Department of Earth and Planetary Sciences shares resources, facilities and expertise with UCL’s Department of Earth Sciences, thus offering you access to a unique, world-class research environment. This programme provides an excellent opportunity for you to develop and enhance your general, transferable and specialist research skills. You will gain insight into different research methods and acquire valuable experience of conducting large-scale research projects.

Our key research interests include: igneous petrology and geochemistry; sedimentology; environmental geochemistry and mineralogy; stratigraphy and palaeontology; structural geology; geophysics; palaeoclimatology; planetary geology; and earthquake studies.

Our research

Birkbeck is one of the world’s leading research-intensive institutions. Our cutting-edge scholarship informs public policy, achieves scientific advances, supports the economy, promotes culture and the arts, and makes a positive difference to society.

Birkbeck’s research excellence was confirmed in the 2014 Research Excellence Framework, which placed Birkbeck 30th in the UK for research, with 73% of our research rated world-leading or internationally excellent.

In our joint submission with UCL, Earth Systems and Environmental Sciences at Birkbeck were rated 6th the UK in the 2014 Research Excellence Framework (REF), while we achieved 100% for an environment conducive to research of the highest quality.

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The Department of Earth, Ocean and Atmospheric Sciences at UBC, one of the largest geoscience groups in Canada is composed of over 40 full-time faculty, a staff complement of 30, a total of 40 research associates and postdoctoral fellows. Our Department's research extends from pure science studies of the earth's deep interior, through near-surface geological studies and environmental earth science, to the oceans and atmosphere. UBC earth scientists draw on a broad base of knowledge from the basic sciences of chemistry, physics, biology and mathematics.

What makes the program unique?

UBC and the Province of British Columbia offer exceptional opportunity for combined field and laboratory research. The Canadian Cordillera offers research opportunities in:

• petrology of intrusive and volcanic rocks of many kinds, and of metamorphic rocks of all grades
• structural studies of complex metamorphic terrains exposed in three dimensions
• metalliferous deposits of varied genetic types
• mineral exploration methods; mineralogy associated with many different environments
• complexly folded and faulted successions of bedded rocks in the mountain belts and plateaus, and in virtually undisturbed coal- and gas-bearing strata of the north-eastern province
• numerous problems of engineering, environmental geology-related to water, slope stability, natural geological hazards, and hydrogeology (lakes, fjords, deltas, tidal flats, continental shelf, and oceanic depths provide a wide range of aquatic environments for students interested in sedimentology, geochemistry, biostratigraphy, and geological oceanography)

Numerous research units in the Department of Earth, Ocean and Atmospheric Sciences maintain excellent provisions for research and study in a wide range of geological sciences.

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Environmental geology is a growing area of active research, because it provides insights into how the environment has evolved over geological time. Through our modular course structure and use of web-based material for distance learning, we aim to provide up-to-date reviews of research topics across relevant aspects of the earth sciences.

Our teaching is informed by considerable research into environmental issues, which is ongoing in the Department of Earth and Planetary Sciences. Current research focuses on areas such as metal pollution, coastal erosion, mineralogy, earthquake prediction, palaeoclimatology and palaeontology.

Why study this course at Birkbeck?

Can be used as a qualifying year for MRes or PhD study.
Offered as part-time study at Birkbeck or you can study by distance learning, wherever you are in the world (check our distance-learning frequently asked questions for more information).
The Department of Earth and Planetary Sciences has strong links with University College London (UCL) Department of Earth Sciences. Together, the 2 departments form the UCL-Birkbeck Research School of Earth Sciences. The School offers excellent facilities for research in environmental geology and planetary geology, as well as traditional geological and geophysical research.

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A country's physical land resources are a fundamental pillar of support for human life and welfare. Worldwide, population pressures and severe degradation, pollution and desertification problems are threatening this - for several countries relatively scarce - natural resource, and cause competition between agricultural or industrial purposes, urban planning and nature conservation. To guarantee a proper use and management of this for a nation basic commodity, well trained specialists with a thorough knowledge of the properties and characteristics of this natural resource, and a solid insight in factors and measures that may alter its actual state and value are warranted and call for a high standard scientific and practical education.

The main subject in Soil Science aims at training researchers, academics, government staff and expert consultants in the inventory and detailed characterization of land capacity, and of soils in particular. Graduates should be able to understand the development and evolution of soils under natural conditions or following human interference using field, map, laboratory and remote sensing data. They should have the scientific knowledge to use and manage soil and water in a sustainable way, and to optimize land use under different natural and environmental conditions.

Structure

The Master of Science degree programme in Physical Land Resources is a two year, full time course. The first year provides a fundamental basis in physical land resources, with a main subject in either Soil Science or Land Resources Engineering. The second year offers specialised courses in one of the two main subjects. The students have to prepare a master dissertation in the second year. Successful completion of the programme leads to the award of an Master of Science degree in Physical Land Resources. The course curriculum of the first year, and of the main subject in soil science of the second year is organised at the Ghent University, whereas all courses of the main subject in Land Resources Engineering of the second year are lectured at "Vrije Universiteit Brussel".

The academic year starts the last week of September. However students are advised to arrive in Ghent in the first week of September to follow the preparatory summer course.

Teaching methods
A wide variety of teaching methods are used in the PLR programme. All course units, except for “Internship” and “Master Dissertation” include lectures. Lectures are fundamental to provide students with the necessary basic knowledge in order to acquire the requested competences. Besides lectures the following teaching methods are very frequently used: practical classes, PC-room classes and coached exercises. Teaching methods like guided self-study, group work and microteaching are occasionally used. Field work and excursions are naturally an important component of the Physical Land Resources programme, especially in the first year.

Learning Outcomes

The Master of Science in Physical Land Resources is organized at both UGent and VUB and aims to contribute to an increased knowledge in Physical Land Resources both in terms of quantity (more experts with a broad knowledge) and of quality (knowledge and its use at an advanced scientific level). The incoming students have diverse backgrounds in geology-related sciences, civil engineering or agronomy and the large majority of students originate from developing countries.
-Possesses a broad knowledge at an advanced level in basic disciplines (soil physics, soil chemistry, soil mineralogy, meteorology and climatology) that provide a polyvalent scientific understandinga. needed to evaluate land potential for agricultural and environmental applications, understand the evolution of soils under natural and human-impacted conditions, and contribute to sustainable land use planning and integrated management of land and water (Soil Science); or in non-agricultural applications of land, such as geotechnical aspects, the role of soil and groundwater in water resources management and water supplies, and of land management in relation to other environmental and land use aspects (Land Resources Engineering).
-Possesses the basics to conduct field work (soil survey, soil profile description, soil sampling), interpret analytical data, classify the soil, and manage and interpret existing cartographic and remote sensing data using modern equipment, informatics and computer technology.
-Characterize soil physico-chemically and mineralogically with advanced techniques to understand soil processes, translate this to soil quality and assess the influences by and on natural and anthropogenic factors.
-Recognize interaction with other relevant science domains and identify the need to integrate them within the context of more advanced ideas and practical applications and problem solving.
-Demonstrate critical consideration of and reflection on known and new theories, models or interpretation within the specialty.
-Plan and execute target orientated experiments or simulations independently and critically evaluate the collected data.
-Develop and execute original scientific research and/or apply innovative ideas within research units.
-Formulate hypotheses, use or design experiments to test these hypotheses, report on the results, both written and orally, and communicate findings to experts and the general public.

Other admission requirements

The applicant must be proficient in the language of the course or training programme, i.e. English. The English language proficiency can be met by providing a certificate (validity of 5 years) of one of the following tests: (TOEFL/IELTS predictive tests and TOEIC will not be accepted)
-TOEFL IBT 80.
-TOEFL PBT 550.
-ACADEMIC IELTS 6,5 overall score with a min. of 6 for writing.
-CEFR B2 Issued by a European university language centre.
-ESOL CAMBRIDGE English CAE (Advanced).

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A country's physical land resources are a fundamental pillar of support for human life and welfare. Worldwide, population pressures and severe degradation, pollution and desertification problems are threatening this - for several countries relatively scarce - natural resource, and cause competition between agricultural or industrial purposes, urban planning and nature conservation. To guarantee a proper use and management of this for a nation basic commodity, well trained specialists with a thorough knowledge of the properties and characteristics of this natural resource, and a solid insight in factors and measures that may alter its actual state and value are warranted and call for a high standard scientific and practical education.

The main subject in Land Resources Engineering offers training in non-agricultural use and application of soil, and includes geotechnical aspects (use of soil as a building material or for foundations, slope stability and stability of excavations), the role of soil- and groundwater for water management and supply, soil management in relation to environment and land use (erosion, sediment transport, coastal development and protection).

Structure

The Master of Science degree programme in Physical Land Resources is a two year, full time course. The first year provides a fundamental basis in physical land resources, with a main subject in either Soil Science or Land Resources Engineering. The second year offers specialised courses in one of the two main subjects. The students have to prepare a master dissertation in the second year. Successful completion of the programme leads to the award of an Master of Science degree in Physical Land Resources. The course curriculum of the first year, and of the main subject in soil science of the second year is organised at the Ghent University, whereas all courses of the main subject in Land Resources Engineering of the second year are lectured at "Vrije Universiteit Brussel".

The academic year starts the last week of September. However students are advised to arrive in Ghent in the first week of September to follow the preparatory summer course.

Teaching methods
A wide variety of teaching methods are used in the PLR programme. All course units, except for “Internship” and “Master Dissertation” include lectures. Lectures are fundamental to provide students with the necessary basic knowledge in order to acquire the requested competences. Besides lectures the following teaching methods are very frequently used: practical classes, PC-room classes and coached exercises. Teaching methods like guided self-study, group work and microteaching are occasionally used. Field work and excursions are naturally an important component of the Physical Land Resources programme, especially in the first year.

Learning outcomes

The Master of Science in Physical Land Resources is organized at both UGent and VUB and aims to contribute to an increased knowledge in Physical Land Resources both in terms of quantity (more experts with a broad knowledge) and of quality (knowledge and its use at an advanced scientific level). The incoming students have diverse backgrounds in geology-related sciences, civil engineering or agronomy and the large majority of students originate from developing countries.
-Possesses a broad knowledge at an advanced level in basic disciplines (soil physics, soil chemistry, soil mineralogy, meteorology and climatology) that provide a polyvalent scientific understandinga. needed to evaluate land potential for agricultural and environmental applications, understand the evolution of soils under natural and human-impacted conditions, and contribute to sustainable land use planning and integrated management of land and water (Soil Science); or in non-agricultural applications of land, such as geotechnical aspects, the role of soil and groundwater in water resources management and water supplies, and of land management in relation to other environmental and land use aspects (Land Resources Engineering).
-Possesses the basics to conduct field work (soil survey, soil profile description, soil sampling), interpret analytical data, classify the soil, and manage and interpret existing cartographic and remote sensing data using modern equipment, informatics and computer technology.
-Characterize soil physico-chemically and mineralogically with advanced techniques to understand soil processes, translate this to soil quality and assess the influences by and on natural and anthropogenic factors.
-Recognize interaction with other relevant science domains and identify the need to integrate them within the context of more advanced ideas and practical applications and problem solving.
-Demonstrate critical consideration of and reflection on known and new theories, models or interpretation within the specialty.
-Plan and execute target orientated experiments or simulations independently and critically evaluate the collected data.
-Develop and execute original scientific research and/or apply innovative ideas within research units.
-Formulate hypotheses, use or design experiments to test these hypotheses, report on the results, both written and orally, and communicate findings to experts and the general public.

Other admission requirements

The applicant must be proficient in the language of the course or training programme, i.e. English. The English language proficiency can be met by providing a certificate (validity of 5 years) of one of the following tests: (TOEFL/IELTS predictive tests and TOEIC will not be accepted)
-TOEFL IBT 80.
-TOEFL PBT 550.
-ACADEMIC IELTS 6,5 overall score with a min. of 6 for writing.
-CEFR B2 Issued by a European university language centre.
-ESOL CAMBRIDGE English CAE (Advanced).

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Our environmental science research is multidisciplinary, including subjects ranging from biology to geography and geosciences. Supported by the global outlook and impact of the Newcastle Institute for Sustainability, you will have access to international experts, the latest facilities and a unique research support package to ensure your future success.

We offer MPhil and PhD supervision in the following subjects areas associated with environment science:

Applied and environmental biology

We conduct research on organisms and processes of commercial and environmental importance, embracing experimental approaches that encompass genomics, molecular biology, biochemistry and physiology. Our research provides evidence for the underlying molecular and physiological processes that affect animal behaviour and physiology.

Our research is driven by the desire to develop new biological systems that address health, food, energy and water security. The applied nature of our work has led to the launch of successful spin-out companies, such as Geneius. These companies offer graduate employment opportunities and make a substantial contribution to the local economy. The commercial applications that result from our research range from natural products discovery and creation of novel antimicrobials and biopesticides to sustainable methods of reducing food spoilage.

Based in the Newcastle Institute for Research on Sustainability (NIReS), our research laboratories include well-equipped molecular laboratories for polymerase chain reaction (PCR) and quantitative polymerase chain reaction (qPCR) amplification, fluorescence in situ hybridization (FISH), and facilities for the production of novel recombinant proteins, including protein engineering. Microbiological laboratories are equipped to Category 2 standard. We have the latest equipment for profiling plant leaf gas exchange and light use efficiency, high performance liquid chromatography, fluorescence and light microscopy and easy access to central facilities for confocal and electron microscopy, DNA sequencing, microarray analyses and proteomics. We also have a suite of licenced controlled environment rooms for growing transgenic plants and for housing quarantine invertebrate pests.

Applied and environmental biology research is based in the School of Biology and led by academic staff with international reputations.

Environmental change and management

We study long-term system evolution and change, developing knowledge relating to the Earth's surface and the processes that form its structure and function. We also study how human behaviour impacts on these systems and influences sustainable management.

Based in the School of Geography, Politics and Sociology, you will be part of an active research community of nearly 200 social science researchers. We pride our research on being the highest academic quality with an international focus, underpinned by a concern for informing public debate and contributing to public policy formulation.

Research in physical geography is supported by a number of laboratories:
-Newcastle Cosmogenic Isotope Facility
-Geomorphology Laboratory
-Chemical, paleoecology and organic chemistry laboratories
-Spatial Analysis Laboratory

We have over 90 academic and research staff and we will ensure that your project is supervised by experts in your field.

Geosciences

Geoscience research at Newcastle is focussed on:
-Biogeochemistry, with particular strength in microbial ecology, mineralogy, organic, inorganic and isotope geochemistry
-Geoenergy, reflecting a balance between fossil fuels as a critical energy resource and the move towards a lower carbon global economy

Our biogeochemistry and geoenergy research forms a strong multi-disciplinary group. We also have links to the engineering community through our work on microbial processes of significance to oil and gas production such as reservoir souring.

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Programme description

This MSc is aimed at students who wish to pursue a geosciences-related career in the future energy sector, as it transitions from fossil fuels to a low carbon economy. The aim is to offer a programme that uses subsurface (geological) knowledge opening a diverse range of career pathways in lower carbon geoenergy technologies; the disposal of energy-related wastes and the hydrocarbon industry.

This MSc programme builds on the strength and reputation of the research groups operating in the School of GeoSciences on uses of the subsurface: carbon capture and storage (CCS); radioactive waste disposal; energy storage and extraction; unconventional and conventional hydrocarbons; wet and dry geothermal heat; and subsurface fluid tracing using noble gases and stable isotopes.

Programme structure

Compulsory courses (for students who have accredited prior learning, elective courses are taken in lieu) – 90 credits

• Future Geoenergy Resources
• Applied Hydrogeology and Near surface Geophysics
• Hydrogeology 2
• Environmental Geochemistry
• Project Design and Literature Analysis
• Carbon Storage and Monitoring

Compulsory Courses – for those with Geoscience background – 20 credits

• Subsurface Reservoir Quality

Compulsory Courses – for those without Geoscience background – 20 credits

• Geology for Earth Resources
• Hydrocarbons

Optional courses: choice of 10 credits from following

• Ore Mineralogy, Petrology & Geochemistry
• Seismic Reflection Interpretation
• Carbon Capture and Transport
• Helmsdale MSc Field Excursion
• Environmental Problems and Issues
• Nuclear Waste Management: Principles, Policies & Practice

Compulsory Dissertation

• Dissertation in Applied Geoscience (Geoenergy)

Career opportunities

This programme will train students in the use of subsurface geological knowledge opening a diverse range of career pathways in lower carbon geoenergy technologies and the disposal of energy-related wastes. These include radioactive waste disposal; carbon capture and storage; geothermal energy and subsurface energy storage including compressed air energy storage.

Other pathways include working in environmental and regulatory aspects of energy storage involving potential pollution; tracking subsurface fluids in the event of leakage from subsurface facilities and ground water resources.

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Application period/deadline: March 14 - 28, 2018

• High level education covering the whole mine value chain

• Shared courses in geosciences and engineering, including both theory and practice

• Excellent, cutting-edge infrastructure for research and education in close cooperation with the mining industry

The international master´s degree programme in Mineral Resources and Sustainable Mining (MRSM) is a two-year programme focusing on education in mining-related subjects. The programme provides master’s degrees in two fields: geosciences and engineering.

The specialisation lines in the field of geosciences are Economic Geology and Quaternary Geology and in the field of engineering sciences, they are Mining Engineering, Mineral Processing, and Applied Geophysics.

The programme will give you excellent skills and understanding on the whole mine value chain and principles of sustainable mining, including:

• Theoretical studies in geosciences and engineering

• Economical and environmental aspects of mining

• Hands-on practice in the well-equipped Oulu Mining School Research Centre and in the field

• The latest modelling and simulation education related to the topics

• Instrumental skills in mineral analytics

The two-year programme has five specialisation options:

Economic Geology focuses on characterisation of mineral deposits and geological processes behind their genesis, forming a basis for mineral exploration. Central topics include ore geology, regional geology, mineralogy, geochemistry, mining industry, and exploration. The obtained proficiency can be used in mineral exploration or exploitation of natural resources in private companies or research institutes.

Quaternary Geology covers a wide range of sub-disciplines including glacial geology, sedimentology, ore prospecting techniques, and hydrogeology. Education is also covering global change issues in the northern hemisphere and the Arctic. The programme will give in depth understanding of the properties of glacial sediments and deposits, their genesis and use for ore prospecting and for geotechnical purposes.

Mining Engineering covers a wide range of topics, including geotechnique, mining technologies, analysis of production capacity, and financing. The expertise can be used in design and management of metal mines as well as in other operations related to exploitation of raw materials.

Mineral Processing deals with the processes to economically separate valuable minerals from the ores. Oulu Mining School has unique, continuous mode in-house concentrating plant that provides an excellent infrastructure for training and education purposes. The environmental aspects of processing, health and safety in the plants, and collaboration with the mining industry are essential parts of education.

Applied geophysics concentrates on the basic phenomena in geophysics and how to apply the knowledge for example in exploration, mapping and management of natural resources, and in environmental and engineering studies. In the life cycle of a mine, geophysics plays an important role in all stages: before opening the mine in mineral exploration and resource assessment, during active mining operations in exploration for additional resources and environmental monitoring, and after the closure of the mine in environmental monitoring and mapping of potentially contaminated areas.

Graduating students understand and govern the technical, geological, financial, regulatory, environmental and social aspects of sustainable mining. Job opportunities exist in all fields related to the mining value chain including exploration, mining, mineral processing, and other kinds of rock engineering both in the industry and in research.

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Mineral resources are a part of almost everything surrounding our everyday life. Finding those resources is the job of economic geologists, multidisciplinary scientists who use geochemistry, mineralogy, geophysics, petrology and structural geology to understand, describe, and explore for mineral resources.

The MSc in Mineral Resources will prepare you to enter a career in the mineral industry or to pursue PhD research. The degree has been designed by recommendations from industry, and provides practical training involving methodologies and technologies at the forefront of mineral exploration.

Key experiences include field excursions to a world-class ore deposit in the UK and the Rio Tinto mine in southern Spain to study the genesis of volcanic massive sulphide deposits and innovative acid mine drainage remediation methods.

Highlights

• Delivers a wide range of experience in the field of mineral resources based on the “mineral system” approach.
• Focuses on current genetic models of ore deposits, applied field training, 3D geological modelling and mineral exploration.
• Designed in collaboration with the mineral resources industry.
• Provides key industry skills, such as sub-surface mapping, core logging, integration of multiple spatial data sets and 3D modelling.
• Dynamic working atmosphere supported by collegial staff and student community.

Teaching format

The MSc in Mineral Resources is a comprehensive course that combines core knowledge, field work, short courses and a research dissertation and integrates that with first-hand experience through a diverse and challenging set of industry-relevant mapping, logging and 3D geological modelling skills.

The MSc degree requires two semesters of full-time (or four semesters part-time) coursework, equivalent to a total of eight taught modules. The assessment for the taught modules is based on coursework and written examinations.

The final three months of your course will be focused on independent research which concludes with a 15,000-word field- and laboratory-based dissertation.

Further particulars regarding curriculum development.

Modules

The modules in this programme have varying methods of delivery and assessment. For more details of each module, including weekly contact hours, teaching methods and assessment, please see the latest module catalogue which is for the 2017–2018 academic year; some elements may be subject to change for 2018 entry.

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The international master program in Geophysics at KIT is research-oriented, has a strong focus on exploration and earthquake seismology and brings together theory and field experiments. This provides our students the opportunity to cover the full range of geophysics from data acquisition to modelling, inversion and interpretation. The program is taught entirely in English.

Objective & Content

Students studying in the international master program in Geophysics benefit from the strong expertise in exploration and earthquake seismology for which the Geophysical Institute of KIT is known worldwide for more than 50 years.

In the international research-oriented master program we bring together our knowledge in theory as well as in field experiments and give our students the possibility to understand the full picture from data acquisition to modelling, inversion and interpretation.

Students take part in compulsory and elective courses within their 1st year covering different topics of seismology and proximate subjects. During their 2nd year, students will be fully integrated in one of the research groups working on their theses in order to have an optimum preparation for their future work in science and industry. For more details on the program structure see program structure above.

Recently, the concept of in situ lecturing was successfully established at KIT. In situ lectures are taught at the place which is being studied giving students the possibility to fully understand the dimensions and observe the whole range of parameters involved in the subject. Within the last years, in situ lectures have led our students to the Aeolian Islands, deep into potash mines in Thuringia, to the Gotthard base tunnel while it was built, and to seismically active regions in Germany and the Czech Republic.

International summer schools are conducted in cooperation with Bandung Institute of Technology and Australia National University. Since KIT is part of the Eucor universities 

Students can also choose lectures offered by our European partners.

Program Structure

Compulsory courses in the 1st year include Theory of Seismic Waves, Seismology, Physics of Seismic Instruments, Seismic Imaging, Seismic Modelling as well as Inversion and Tomography. In order to specialize, students can choose electives from Geophysics or proximate subjects. Lectures on Array Processing, Full Waveform Inversion, Geological Hazards and Risk, Induced Seismicity, Hazard and Risk Assessment of Mediterranean Volcanoes and a Winter School at the Black Forest Observatory are regularly offered.

During the 2nd year of the program students will be integrated in one of the research groups working on their thesis. We consider it as important to fully immerse into a project and work on it deeply over a longer period so that our students have an optimum preparation for their work in science and industry.

Requirements

Qualification for university entrance (e.g. Abitur, high school diploma, national test for university entrance, ...)

The Bachelor degree has to be completed with a minimum of 180 ECTS points or within a regular period of study of at least three years. If the Bachelor degree has not yet been conferred by the closing date for applications, but will be completed before the registration, you can apply with a preliminary transcript of records.

Profound knowledge of Geophysics, Mathematics and Physics (usually a minimum 20 credits each during the Bachelor studies). Missing credits in Geophysics can individually caught up for during the 1st year. For immediate success students without background in Geophysics can take part in an interactive convergence course covering the most important topics from Seismology and Seismics.

On request the following proofs can also be accepted: Bachelor degree of a university program taught in English University entrance qualification received in an English program Bachelor thesis written in English.

How to apply

Apply here: https://www.sle.kit.edu/vorstudium/master-geophysik.php  ;

Applications for the winter term (beginning in October) can be submitted until 15 July (Non-EU-Applicants) and until 30 September (German and EU-Applicants).

Due to the modular structure of the program, a start in the summer term (April) is also possible, but not recommended for students from abroad or students who do not hold a Bachelor degree in Geophysics.

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