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School of Geography

BSc Geography - Geology

Overview

What is Geography-Geology?

This is an integrated programme, run jointly by the School of Geography and the School of Earth and Environment, which combines the study of physical geography and the earth sciences. Importantly, a qualification in Geology is not a requirement for acceptance onto this course as we start from first principles.

Physical geographers seek to understand how the natural world around them works and also how humans have affected it. They tackle diverse questions ranging from What was the climate like in the past and how will it change in the future? to How will construction of a new housing estate in a catchment affect the flooding of a river? and How do agricultural fertilizers leach into lakes and rivers and cause changes to aquatic ecosystems? They bring a unique integrative approach to studying the world that allows them to see the ‘bigger picture’.

The Geology half of this programme provides an in-depth analysis of the geological evolution of the earth, from its origins as a planetary body over 4.5 billion years ago, to the present day processes that define how we live now and how we will deal with the effects of ongoing environmental change in the near future. We cover essential earth science disciplines including the origins of rocks and minerals, the evolution of life on earth, plate tectonics, earthquakes, volcanism, the structural deformation of rocks, geological mapping and fieldwork, and the use of geological natural resources.

Why study Geography-Geology?

Geography-Geology is ideal for students with a strong science background, who enjoy being outdoors and have an interest in environmental change. Geography-Geology graduates are highly regarded by employers for their teamwork, problem solving, IT and data handling and manipulation skills and find jobs across a range of sectors including environmental regulation, environmental consultancy, mineral exploration, engineering geology, and the hydrocarbon/petroleum industry.

Students can choose to follow one of three 'pathways' which enable the acquisition of skills in particular areas of geography and geology so our students can focus their studies towards a favoured aspect of the discipline, thereby maximising their chances of employability in their preferred sector. Students are able to sample a range of modules before deciding on which pathway to take. Advice on which pathway you should take will be provided by your tutor throughout years 1 and 2 of your studies.

Geography leaning pathway is where you specialise in geography in year 3 and carry out a geography dissertation (independent research project in year 3) under the supervision of a geography tutor.

Geology leaning pathway is where you carry out an independent geological mapping project between years 2 and 3 under the supervision of a geology tutor. If you choose this pathway, which specialises in geology, there is also a combination of modules (from years 2 and 3) that secures professional accreditation by the Geological Society of London. Graduates from an accredited course gain fast-track progression towards obtaining Chartered Geologist status, which is the key professional qualification for a career in some commercial spheres of employment.

Why not enhance your university experience and build your career by considering a Study Year Abroad or a Year in Industry?

How you study

Contact time

At Level 1 you will have approximately 12-16 hours per week 'contact time', i.e., participation in a session which is taught, led or facilitated by a member of staff (lectures, seminars, tutorials, or lab classes), in addition to several sessions where you will work in a group without staff supervision. The amount of contact time reduces a little at levels 2 and 3, having developed the skills and confidence for more autonomous and self-directed learning.

Independent learning

Part of studying at university is that you will take increasing responsibility for your own learning as you progress through your degree. Developing the skills to think and work independently is crucial to your success both at university and in your future career. Independent study involves a lot of reading around the subject, and although this may seem daunting at first, we will guide and support you to ensure you are able to:

  • use the Library resources and find information
  • read critically and develop a balanced argument
  • plan and prepare academic assignments
  • take and make good notes
  • develop strategies for dealing with the volume of reading required for your course
  • effectively manage your time to meet deadlines

Teaching

Lectures are a student’s staple diet - the main source of information and knowledge - but probably quite different to anything you have encountered at school. Lectures are usually 50 minutes long and may be attended by over 150 students at Level 1, but are smaller at Level 2 and smaller still at Level 3.

Lectures are a great way to introduce you to a topic, but you are never really sure whether you have understood a subject area until you have had the chance to discuss it in more detail in smaller groups. For this reason we also deliver teaching through tutorials (groups of six); seminars (groups of approximately 30); computer classes; lab practical classes; group-work; online exercises and fieldwork. Opportunities for extra help, including 'drop-in' workshops, one-to-one assistance, and an extensive programme of generic skills training offered by Skills@Library, are also readily available.

Workload

The style of learning and teaching at university is quite different to what you will have been used to at school or college. At university, you are expected to read widely for each module you study. A twenty-credit module equates to 200 hours study time, which includes contact time (lectures, classes), independent reading and study time, preparation of assignments and exam revision. A full workload is 120 credits at each level of study, so you are expected to spend about 40 hours per week during term-time on your studies.

Feedback

We appreciate how important it is that you receive prompt and constructive feedback on all your work so that you know how well you are progressing with your studies. Feedback also provides us with an opportunity to advise you on any particular areas where we feel you may benefit from further reading or additional study skills support. Different styles of feedback that you are most likely to encounter in your studies include:

  • One-to-one, group or whole class verbal feedback
  • Peer review feedback
  • Electronic feedback via email or posted on the VLE (Blackboard)
  • Written feedback – on a feedback sheet, and as annotations on your work
  • Example or model answers made available to the whole group

Attendance

We monitor attendance to ensure that we can identify and help you if you are experiencing any personal or academic difficulties which are impacting on your ability to study. Attendance is compulsory and registers are taken at some sessions. We ask you to notify the School if you are unable to attend for any reason.

Assessment

Assessment methods vary from module to module, and this gives you the flexibility to choose modules based on the assessment criteria that suits your particular strengths. Types of assessment include:

  • examinations
  • individual or group reports
  • practical exercises
  • individual or group presentations
  • essays
  • posters
  • projects (such as the dissertation)
  • reflective logs

Course structure

Each year of the BSc programme is designed around a combination of compulsory core modules, as well as opportunities to take optional modules so you can choose additional subjects of interest. The balance of compulsory to core modules depends upon the year and programme of study and is explained fully in the programme catalogue.

If you opt to study abroad or to join our year in industry scheme you will pursue this at the end of Year 2, returning to your final year of study once completed.

Level 1

You will study the following compulsory modules:

GEOG1070: Physical Geography Tutorial

This module introduces the ways in which physical geographers seek to understand the natural world around them (and the human impact on the natural world). In small groups (5-7 students) you will learn how to read and understand academic papers, the scientific process, and how to write cogent and convincing explanations of the different research approaches used in physical geography.

GEOG1075: Data Analysis for Physical Geography

This module will give you foundational skills in geographical information systems (GIS), statistics, and report writing that will underpin the rest of your degree. These skills are gained using a virtual geomorphological tour through the fascinating arid environment of Death Valley, California.

SOEE1570: Geology 1

  • What is the internal structure of the Earth?
  • How does plate tectonic behaviour act as a mechanism for plate motion, mountain building, subduction, basin formation and long-term geological evolution on a continental scale?
  • What are the processes of formation of igneous, sedimentary and metamorphic rocks?
  • How are rocks and minerals described using physical and optical properties?
  • How do we relate geological materials to their environments of formation?
  • What techniques are used in the study of fossils and trace fossils?
  • How do we decipher earth history and deep time using stratigraphic concepts?
  • What is the geological history of the British Isles?

SOEE1580: Geology 2

  • What are the mechanics of deformation?
  • How do we account for the formation of geological structures?
  • What are stereographic projection techniques?
  • How are geological maps constructed from basic stratigraphic rules?
  • What are the processes of formation of igneous and metamorphic rocks?
  • What are the main types of sedimentary rocks and how can we use sedimentary structures to understand their environments of deposition?
  • How can we apply fieldwork techniques to geological problem solving?

Optional modules include:

GEOG1040: Dynamic Landscapes

  • Why are there mountains?
  • Are glaciers the most erosive features in the natural world, 'bull-dozing' all before them?
  • How much do 'slow' processes, such as soil creep, shape landscapes?
  • How does water move through the landscape and how does it affect weathering and erosion processes around the world?
  • What is a geomorphological hazard?

GEOG1045: Living Planet

  • What are biogeochemical cycles and why are they also known as 'cycles of life'?
  • What is a soil and how do soils affect life on earth?
  • What is a biome and how did the earth's biomes form?
  • Why are flamingos pink?
  • How do ecosystems respond to human disturbance?

GEOG1055: Environmental Change: Past and Future

  • Is climate change really happening?
  • How rapidly has climate changed in the past?
  • How many ice ages have there been?
  • How have humans responded/adapted to climate change in the past?
  • What does the future hold for planet earth under a changing climate?

GEOG1065: Nature, Society and Environment

  • What do we mean by sustainability?
  • What is an ecosystem service?
  • Is there such a thing as environmental justice?
  • How will climate change affect human societies?
  • What is re-wilding?

Level 2

You will study the following compulsory modules:

GEOG2115 Research project and statistical skills in physical geography

TBC

SOEE2062: Sedimentary Processes

  • What are the common physical processes of sedimentation?
  • How do we measure and classify flows and what governs sediment transport?
  • What types of bedforms are generated in unidirectional, oscillatory and multidirectional flows?
  • How do sediments undergo soft-sediment deformation and erosion?
  • What are the main types of depositional sedimentary environments?
  • What is facies analysis and how can it be applied to the study of alluvial, deltaic and deep-sea clastic sedimentary environments?
  • What sedimentary processes occur in carbonate reefs and mounds, shallow platform carbonate and peritidal settings?

SOEE2094: Study Skills and Advanced Mapwork

  • What are the main skills required to analyse geological features and maps and interpret some remote sensing images?
  • What are the main applications of various remote sensing tools to geological mapping?
  • How can different images from areas of active and ancient tectonics be interpreted?
  • What are the main GIS applications in geology, and how can Digital Elevation Models (DEM) be applied to geological problem solving?
  • How can remote sensing be used to study hydrogeology, fault-loss maps, isopach maps, landslides and to generate accurate cross-sections where units change in thickness?

SOEE2103: Fieldwork for Geography/Geology

  • How are skills of field observation, geological mapping, field data recording skills applied in the field?
  • What are the main techniques in the preparation and presentation of geological maps and reports?
  • How do geologists investigate the nature and history of sedimentary rocks in the field within the context of sedimentary basin development?
  • How do geologists develop hazard and safety awareness in the field?

SOEE2145: Palaeoecology, Palaeobiology and Evolution

  • What are the principles of ecology and how they can be applied in palaeoecological analysis?
  • What are the main uses of trace fossils in reconstructing palaeoenvironments?
  • What is palaeobiology?
  • How do we study reef palaeoecology and evolutionary history?
  • How do we study exceptionally preserved biotas?
  • How can we use fossils to determine ancient oxygen levels?
  • What are micro and macroevolutionary patterns?
  • What are cladograms and evolutionary trees and how are they constructed?
  • What are the main mass-extinctions in the history of life?

Optional modules include - one of the following:

GEOG2005: Field class: The dynamic environment of the Cévennes National Park (Massif Central, France)

  • What physical and biological processes characterise the upland landscape of the Cevennes National Park in southern France?
  • How has the environment of the Cevennes changed over time in response to human activity and shifts in climate?
  • How can present and past processes be studied and measured in the field and the laboratory, and what research approaches and techniques are most useful?
  • What does the future hold for the Cevennes National Park, and what challenges face its environmental managers?

GEOG2009: Field class: The dynamic environment of the Hohe Tauern National Park (Eastern Alps, Austria)

  • What physical forms and processes are peculiar to Alpine environments?
  • How is a knowledge of physical geography essential to understanding Alpine environments?
  • What processes in particular have shaped the Alpine landscape (e.g. glacial and fluvial processes)?
  • How can these be studied and measured in the field, and what techniques are most useful?
  • How might climate change and human activities influence Alpine landscapes?
  • How do Alpine processes affect human resources such as hydro power and water supply?

Optional modules - Two from the following:

GEOG2060: Living within limits: natural resource management for sustainable development

This module explores the interface between physical and human geography, and explores how humans 'exploit' their natural environment. Key questions that will be discussed on the module include:

  • What is a natural resource?
  • What are the different approaches to natural resource management?
  • Are there limits to growth and how well does the 'technofix' model describe resource use?
  • How is environmental and resource policy developed?
  • What role do non-governmental advocacy groups and the private sector play in policy making?

GEOG2080: Earth Surface Processes

  • This module focuses on hydrological and geomorphological processes and landforms in temperate and glacierised catchments, and provides answers to questions such as:
  • How do hydrological and glacial processes respond to climate change?
  • Why do rivers flood and how can we reduce the flood hazard?
  • How do avalanches occur; how great a hazard are they?
  • What are the factors that control the magnitude and severity of glacial outburst floods?

GEOG2085: Ecosystems: process, pattern and change

  • What evolutionary processes have shaped life on earth?
  • What are mass extinctions and how do they occur?
  • How do biomes and ecosystems function?
  • How does the global carbon cycle interact with climate?
  • What is the 'Anthropocene'?

GEOG2090: Climate Systems

  • How can we conceptualise and model (using computers) the global climate system?
  • What are the most important controls on global climate?
  • What is the role of the oceans in the global climate system?
  • Why, in its recent geological past, has the earth undergone repeated glaciations and de-glaciations?
  • What are the causes and nature of recent climate change?

Optional Modules: Two from the following or only Mineralogy and Petrology

SOEE1301: Intermediate Mathematics for Environmental and Geophysical Scientists

  • Differentiation and integration.
  • Manipulate complex numbers.
  • Solve ordinary differential equations, including first and second order.
  • Vector algebra and differentiation, including graphical representations.
  • Taylor series.
  • Introduction to partial derivatives.

SOEE1311: Advanced Mathematics for Environmental and Geophysical Scientists

  • Determine the partial derivatives and extrema of a function.
  • Introduction to line, surface, volume integrals.
  • Apply the grad operator (div, grad, curl).
  • Solve partial differential equations.
  • Fourier analysis.

SOEE2010: Chemistry of the Earth

  • What are the main geochemical cycles
  • What is the nature of the oxygen, water and carbon dioxide cycles?
  • What are the main chemical processes that take place in geochemical cycles?
  • What is the chemistry of surface waters?
  • What is the chemistry of deep-earth fluids - radiogenic isotopes?
  • What are Isotope tracers?
  • What are the stable isotopes of O and H?
  • How can chemistry be applied to account for Earth and planetary evolution?
  • What is the chemical evolution of the Earth?

SOEE2050: Deformation Processes

  • What are the main approaches used in the theoretical and meso-to- micro scale analysis of structures?
  • How do we undertake practical 2D strain analysis?
  • What are the main 3D strain concepts?
  • What is incremental strain, kinematics and polyphase deformation?
  • What are the main techniques used in fold construction?
  • How do we study fault and shear zone evolution and micro structures?

SOEE2110: Introductory Oceanography

  • What is the nature of the sea-floor in terms of its deposits and resources?
  • What is the hydrologic cycle; properties and circulation of sea-water?
  • What are the main oceanic environments?
  • How do we study marine food chains?
  • What are the main concerns relating to marine pollution?
  • What are hydrothermal processes?

SOEE2460: Contaminated Land Studies: Integrating Business Skills and Science in Consultancy

  • How is geological science is used to solve problems relating to minerals and mining?
  • What do environmental consultancy companies do?
  • What is the Source-Pathway-Receptor approach used by governments and regulatory agencies to identify the hazards arising from contaminated land and pollutant migration?
  • What are the main issues relating to groundwater pollution?
  • How can we remediate acid mine drainage in the UK?
  • What tasks are junior environmental consultants typically required to undertake in their investigation of a site identified by a client as potentially suitable for residential development?

SOEE2580: Gemstones

  • What is the origin of colour in gemstones?
  • How can we grow artificial gemstones?
  • What are the main occurrences of and uses of diamond, corundum and beryl minerals (industrial and domestic)?
  • What are gemstone treatments? How are gemstones processed to enhance colour and clarity?
  • What methods are used to identify crystals?
  • What are the main exploration strategies for locating gemstone deposits?
  • What is gemstone provenancing using trace chemical (destructive) and optical (non-destructive) means?

SOEE2590: Mineralogy and Petrology

  • What are the main groups of minerals and how are they classified?
  • How do we study mineral structure, chemistry, mode of formation?
  • What techniques are used to identify minerals?
  • What are the major types of crystalline rocks and how do they behave in geological processes?
  • How do common types of ores form?

SOEE2600: Sedimentary Basins and Hydrocarbon Resources

  • How do we interpret and describe the mode of origin of a range of sedimentary basins?
  • How do we characterize the structural style of sedimentary basins, including from seismic data?
  • How do we recognize and explain lateral variations of sedimentary facies in a variety of basin settings?
  • How can we derive tectonic subsidence/uplift histories from the history of base-level change and burial represented in the stratigraphic record?
  • What criteria are required for assessment of the development of thermally mature hydrocarbon source rocks?
  • How do petroleum fluids migrate through carrier beds and into reservoirs?
  • What are the main types of hydrocarbon reservoir?
  • How are seal rocks juxtaposed against reservoirs to form hydrocarbon traps?

SOEE2620: Explosive Volcanism: Processes, Deposits and Resources

  • What are the main types of explosive volcanism?
  • What is the nature of pyroclastic and volcaniclastic deposits?
  • What are pyroclastic air-fall and density currents?
  • What is the nature of the landscape responses to explosive volcanism?
  • What types of geothermal resources are associated with explosive volcanism and how are they hosted in pyroclastic/volcaniclastic deposits?

SOEE2630: Fundamentals of Geophysics

  • What are the main techniques of seismology?
  • What is the origin and form of seismic waves and how are they used to locate earthquakes, and understand earth structure?
  • How are seismic refraction and reflection surveys used to search for resources?
  • How are seismic data acquired and processed?
  • What are the main principles involved in gravity surveying?
  • What are the fundamental principles and practices employed in geomagnetism and palaeomagnetism studies?
  • What are the main types of geoelectric and electromagnetic and GPR methods?

SOEE2650: GIS for Geosciences

Level 3

Geography leaning pathway

You will study the following compulsory modules:

GEOG3600: Geography Dissertation

The dissertation (independent research project) is your chance to tackle a geographical research question (or questions) of your choice and to put into practice the skills and subject knowledge you have acquired in the first two years.

SOEE3060: Advanced Sedimentology and its Applications

  • How do complex sedimentary successions arise in response to a range of both intrinsic operating processes and to a range of external controls such as sea-level change, climate change, and tectonic basin development?
  • How do sedimentary successions in a variety of settings form important economic resources including, for example, the site of hydrocarbon reserves?
  • What is the sedimentary response to global stratigraphic cyclicity driven by glacio-eustasy?
  • How can the technique of sequence stratigraphy be applied to account for complex sedimentary successions and their style of accumulation within developing sedimentary basins?

Optional modules - one or two from the following level 3 BSc Geography modules:

GEOG3062: New Zealand Fieldtrip

The New Zealand field trip takes place in early December and lasts for two weeks. Initially, there is a guided tour of several glaciated parts of the Mt Cook National Park. You will then undertake an independent research project in the Matukituki valley near Wanaka, Mt Aspiring National Park. In this project you will study first-hand some of the most dynamic glacial, hydrological, geomorphological and ecological systems anywhere in the world. The module boasts an excellent staff-student ratio, exceptional resources in the form of supplementary material, and the field trip is an excellent example of research-led teaching because it capitalises on considerable staff research expertise in this area. As a student on this module, you will not be disappointed!

GEOG3065: Water Science and Management

  • How do the natural dynamics of river systems influence their morphology, flows, water quality and biological communities?
  • What are the most serious issues requiring the management of rivers and their catchments?
  • How can hydrological and geomorphological alterations benefit river ecosystems by improving water quality?
  • What are the approaches to managing water sustainably, both in an environmental context and within water supply/treatment networks?
  • How do key water policies and legislation impact on the management of our rivers?

GEOG3180: Management of Wilderness and Global Ecosystems

  • What are wildernesses and why should we protect them?
  • How is the idea of wilderness linked to the rise of the 'environmental movement'?
  • Why is wilderness an essential component of the ecosystem services model?
  • How can GIS be used to identify, map and manage wilderness landscapes?
  • What is rewilding and why should we create more wilderness?
  • How does wilderness feature in world conservation policy?

GEOG3440: Environment, Conflict and Policy

  • What are the key principles underlying policies aimed at solving environmental conflicts?
  • What is the fundamental science underlying the application of these key principles?
  • How do actual environmental disputes develop and how can contrasting viewpoints of different stakeholders be reconciled?
  • When does the politics of policy sometimes override science?
  • How can negotiation skills be used in practise to manage debates on environmental conflict?

GEOG3520: Workplace Co-operative Project

This module is mutually exclusive with GEOG3820: Research Placement. The module provides students with an opportunity to:

  • Work in collaboration with an outside organisation on a project that is of use to the organisation and suitable as an advanced component of a degree in Geography.
  • Design, negotiate, record and manage their work in cooperation with an academic supervisor and a member of staff from the outside organisation.

GEOG3690: Tropical forests and sustainable development

  • How resilient have tropical rain forests been to environmental change during geological history?
  • What is the role of glacial ‘refugia’ in shaping current tropical rain forest communities?
  • How have indigenous people affected tropical rain forests landscapes?
  • What factors control the diversity of tropical rain forests?
  • How do tropical rain forests affect the climate system?
  • Is sustainable development possible in SE Asia?
  • What constraints on economic and social development are imposed by the fragile natural environments of SE Asia?
  • How do national-governmental and international policies affect land-use in SE Asia?
  • In a land-use context, what is meant by 'good governance'?
  • What are the causes of land-use change in SE Asia and what is the relationship between land-use change and social and economic development?

GEOG3710: Digital worlds: computer simulation of Earth's dynamic environments

  • What is an environmental model and why do scientists and environmental managers use models?
  • How can models be both wrong and useful?
  • How are models constructed?
  • How are models tested and used both by practitioners (e.g., policy makers) and scientists?
  • What is a numerical experiment and what can it tell us about an environmental system?

GEOG3820: Research Placement

This module is mutually exclusive with GEOG3012: New Zealand Research Project and GEOG3520: Workplace Co-operative Project. In this module students undertake a substantial piece of original research on a project put forward by an academic supervisor. Often, the project will be an important part of a wider research programme of the supervisor. Students will be expected to contribute to the design of the project and will gain an in-depth appreciation of how academics ‘do’ research. The module is useful for those considering a career in research through study for a higher degree (MSc or PhD).

GEOG3875: Biogeochemical Cycles: Process to Policy

Global biogeochemical cycles describe the movement of biologically important elements through the Earth System (the combination of atmosphere, oceans, rocks and biota). The processes which govern such cycles are fundamental to all life, and result in a complex series of interactions and feedbacks. This module takes an Earth System Science approach to the study of the global cycling of biologically important elements, such as carbon, nitrogen, and phosphorous. You will learn about the processes governing the movement of these elements, and how to represent them using simple box models and address questions such as:

  • How do biogeochemical cycles combine to control Earth evolution, regulation, and climate?
  • How have humans impacted biogeochemical cycles, and what are the future implications of this?

GEOG3885: Ecosystems of the Quaternary

With a focus on the Quaternary period of Earth’s history (the last 2.6 million years), this module uses a palaeoecological approach to address the following questions:

  • How have modern ecosystems come into being?
  • How do plants and animals respond biogeographically to climate change?
  • What effect have Quaternary climate cycles had on the evolution of species and communities?
  • How can we apply this knowledge to managing the ecological consequences of human impact on the environment?

Optional modules - three to five of the following earth science modules:

SOEE3040: Easter Field Class (Geological Science)

  • How are pure and applied geological concepts used in field situations?
  • What are the main set of skills used by geologists for integration of field observations and synthesis of geological models?
  • How are techniques for understanding the dynamics of formation, cooling, alteration of mid-oceanic ridges, their subsequent emplacement as ophiolites and their unroofing and post-emplacement history applied in a field-based situation?

SOEE3042: Easter Field Class (Environmental Geology)

  • How are environmental geologic principles applied in the field?
  • What are the main set of skills used by geologists for integration of field observations and synthesis of geological models?
  • What are the main environmental impacts of mining and waste disposal, and earthquake/tectonic effects on structures?

SOEE3091: Advances in Paleontology

  • What is the origin of life and what is its role in controlling Precambrian sedimentary environments?
  • What form do chemosynthetic communities take?
  • What is the form of the enigmatic Ediacaran fauna?
  • How did the Cambrian explosion lead to diversification of life on Earth?
  • What was the cause of the End-Ordovician extinction?
  • How did the evolution of Tertiary floral communities take place and lead to the rise of grasses?
  • What factors led to the rise of the hominids and H. sapiens?

SOEE3110: Earth System Science: Biogeochemical Cycles

  • What are the major biogeochemical cycles and how they can be used to understand the Earth System?
  • What are the general principles and science of biogeochemistry in relation to the Earth system?
  • How can changes in biogeochemical cycles (past, present and future) have an affect on the Earth System, and vice versa?

SOEE3135: Engineering Geology

  • What is the significance and importance of different rock and soil types, and their characteristics in engineering construction and design?
  • How do geologists determine strength and other index properties of both intact rock, rock masses, single discontinuities and soil?
  • How do geologists undertake geotechnical assessments?
  • How do geologists undertake preliminary design of a Site Investigation?
  • How do geologists provide an engineering description of rocks and soils?
  • How do geologists design slopes and underground openings?
  • How do geologists recognise and understand slope instability in soils and rocks?
  • How do geologists analyse slopes for stability?

SOEE3171: Volcanic Processes

  • What are the major types of volcanic eruptions and their products?
  • What are the physical controls on eruptive processes and the transport and deposition of eruption products?
  • What are the commonly used volcano monitoring and hazard assessment techniques?
  • What are the major impacts of volcanic activity on climate?

SOEE3281: Physical and Chemical Hydrogeology

  • How does groundwater fit into the hydrological cycle?
  • What characteristics of rocks and soils determine aquifer quality?
  • How do geologists interpret hydrogeological maps?
  • How do geologists find groundwater fluxes in aquifers from hydraulic head data?
  • How can a simple 'water balance' model of an aquifer be used to predict sustainable yields and predict the potential impacts of groundwater abstraction?
  • What are the principles and uses of aquifer pumping tests?
  • How do geologists evaluate the accuracy and completeness of a routine groundwater analysis?
  • How does the chemical composition of natural groundwaters develop?
  • What are the main mineral dissolution reactions giving rise to specific groundwater compositions?
  • How do geologists describe the behaviour of key groundwater contaminants and the major threats to groundwater quality?
  • How do geologists describe the main factors controlling aquifer vulnerability?

SOEE3480: Past Global Environmental Systems

  • What approaches are used to interpret the interacting factors that have controlled the Earth's climate and global environments through geological time at times of both crisis and during background states that were fundamentally different to today?
  • How are multidisciplinary data sources (geochemical, geological, palaeontological) integrated with palaeoclimate models and used to evaluate the causes of phenomena such as glaciation, mass extinction and intense greenhouse climates?

SOEE3500: Basin Dynamics and Petroleum Systems

  • What are the origins of petroleum in the context of the geodynamic evolution, and the burial and thermal histories of sedimentary basins?
  • What are the differing structural, magmatic and heat flow characteristics of continental margins?
  • How do contrasting reservoir styles and hydrocarbon trap opportunities relate to the nature and evolution of the continental margin?
  • How do teams of geologists work together to address petroleum exploration objectives within a quasi-commercial and competitive project to develop a drilling proposal?

SOEE3720: Environmental Geology in Northern Ireland

  • How can interpretation techniques benefit from field-based observations in the disciplines of igneous petrology, sedimentary petrology and Quaternary geology?
  • What was the geological development of Northern Ireland?
  • How do geologists embed professional practice in environmental geology?

Geology leaning pathway (non-accredited)

You will study the following compulsory modules:

SOEE3078: Independent Project

  • How do geologists undertake independent field- or laboratory-based research-led studies?
  • How are techniques of geological mapping executed in a field-based situation?

SOEE3060: Advanced Sedimentology and its Applications

  • How do complex sedimentary successions arise in response to a range of both intrinsic operating processes and to a range of external controls such as sea-level change, climate change, and tectonic basin development?
  • How do sedimentary successions in a variety of settings form important economic resources including, for example, the site of hydrocarbon reserves?
  • What is the sedimentary response to global stratigraphic cyclicity driven by glacio-eustasy?
  • How can the technique of sequence stratigraphy be applied to account for complex sedimentary successions and their style of accumulation within developing sedimentary basins?

Optional modules - two or three modules from the geography modules listed below:

GEOG3062: New Zealand Fieldtrip

The New Zealand field trip takes place in early December and lasts for two weeks. Initially, there is a guided tour of several glaciated parts of the Mt Cook National Park. You will then undertake an independent research project in the Matukituki valley near Wanaka, Mt Aspiring National Park. In this project you will study first-hand some of the most dynamic glacial, hydrological, geomorphological and ecological systems anywhere in the world. The module boasts an excellent staff-student ratio, exceptional resources in the form of supplementary material, and the field trip is an excellent example of research-led teaching because it capitalises on considerable staff research expertise in this area. As a student on this module, you will not be disappointed!

GEOG3065: Water Science and Management

  • How do the natural dynamics of river systems influence their morphology, flows, water quality and biological communities?
  • What are the most serious issues requiring the management of rivers and their catchments?
  • How can hydrological and geomorphological alterations benefit river ecosystems by improving water quality?
  • What are the approaches to managing water sustainably, both in an environmental context and within water supply/treatment networks?
  • How do key water policies and legislation impact on the management of our rivers?

GEOG3180: Management of Wilderness and Global Ecosystems

  • What are wildernesses and why should we protect them?
  • How is the idea of wilderness linked to the rise of the 'environmental movement'?
  • Why is wilderness an essential component of the ecosystem services model?
  • How can GIS be used to identify, map and manage wilderness landscapes?
  • What is rewilding and why should we create more wilderness?
  • How does wilderness feature in world conservation policy?

GEOG3440: Environment, Conflict and Policy

  • What are the key principles underlying policies aimed at solving environmental conflicts?
  • What is the fundamental science underlying the application of these key principles?
  • How do actual environmental disputes develop and how can contrasting viewpoints of different stakeholders be reconciled?
  • When does the politics of policy sometimes override science?
  • How can negotiation skills be used in practise to manage debates on environmental conflict?

GEOG3520: Workplace Co-operative Project

This module is mutually exclusive with GEOG3820: Research Placement. The module provides students with an opportunity to:

  • Work in collaboration with an outside organisation on a project that is of use to the organisation and suitable as an advanced component of a degree in Geography.
  • Design, negotiate, record and manage their work in cooperation with an academic supervisor and a member of staff from the outside organisation.

GEOG3690: Tropical forests and sustainable development

  • How resilient have tropical rain forests been to environmental change during geological history?
  • What is the role of glacial ‘refugia’ in shaping current tropical rain forest communities?
  • How have indigenous people affected tropical rain forests landscapes?
  • What factors control the diversity of tropical rain forests?
  • How do tropical rain forests affect the climate system?
  • Is sustainable development possible in SE Asia?
  • What constraints on economic and social development are imposed by the fragile natural environments of SE Asia?
  • How do national-governmental and international policies affect land-use in SE Asia?
  • In a land-use context, what is meant by 'good governance'?
  • What are the causes of land-use change in SE Asia and what is the relationship between land-use change and social and economic development?

GEOG3710: Digital worlds: computer simulation of Earth's dynamic environments

  • What is an environmental model and why do scientists and environmental managers use models?
  • How can models be both wrong and useful?
  • How are models constructed?
  • How are models tested and used both by practitioners (e.g., policy makers) and scientists?
  • What is a numerical experiment and what can it tell us about an environmental system?

GEOG3820: Research Placement

This module is mutually exclusive with GEOG3012: New Zealand Research Project and GEOG3520: Workplace Co-operative Project. In this module students undertake a substantial piece of original research on a project put forward by an academic supervisor. Often, the project will be an important part of a wider research programme of the supervisor. Students will be expected to contribute to the design of the project and will gain an in-depth appreciation of how academics ‘do’ research. The module is useful for those considering a career in research through study for a higher degree (MSc or PhD).

GEOG3875: Biogeochemical Cycles: Process to Policy

Global biogeochemical cycles describe the movement of biologically important elements through the Earth System (the combination of atmosphere, oceans, rocks and biota). The processes which govern such cycles are fundamental to all life, and result in a complex series of interactions and feedbacks. This module takes an Earth System Science approach to the study of the global cycling of biologically important elements, such as carbon, nitrogen, and phosphorous. You will learn about the processes governing the movement of these elements, and how to represent them using simple box models and address questions such as:

  • How do biogeochemical cycles combine to control Earth evolution, regulation, and climate?
  • How have humans impacted biogeochemical cycles, and what are the future implications of this?

GEOG3885: Ecosystems of the Quaternary

With a focus on the Quaternary period of Earth’s history (the last 2.6 million years), this module uses a palaeoecological approach to address the following questions:

  • How have modern ecosystems come into being?
  • How do plants and animals respond biogeographically to climate change?
  • What effect have Quaternary climate cycles had on the evolution of species and communities?
  • How can we apply this knowledge to managing the ecological consequences of human impact on the environment?

Optional modules - one to three modules from the earth science modules listed below:

SOEE3040: Easter Field Class (Geological Science)

  • How are pure and applied geological concepts used in field situations?
  • What are the main set of skills used by geologists for integration of field observations and synthesis of geological models?
  • How are techniques for understanding the dynamics of formation, cooling, alteration of mid-oceanic ridges, their subsequent emplacement as ophiolites and their unroofing and post-emplacement history applied in a field-based situation?

SOEE3042: Easter Field Class (Environmental Geology)

  • How are environmental geologic principles applied in the field?
  • What are the main set of skills used by geologists for integration of field observations and synthesis of geological models?
  • What are the main environmental impacts of mining and waste disposal, and earthquake/tectonic effects on structures?

SOEE3091: Advances in Paleontology

  • What is the origin of life and what is its role in controlling Precambrian sedimentary environments?
  • What form do chemosynthetic communities take?
  • What is the form of the enigmatic Ediacaran fauna?
  • How did the Cambrian explosion lead to diversification of life on Earth?
  • What was the cause of the End-Ordovician extinction?
  • How did the evolution of Tertiary floral communities take place and lead to the rise of grasses?
  • What factors led to the rise of the hominids and H. sapiens?

SOEE3110: Earth System Science: Biogeochemical Cycles

  • What are the major biogeochemical cycles and how they can be used to understand the Earth System?
  • What are the general principles and science of biogeochemistry in relation to the Earth system?
  • How can changes in biogeochemical cycles (past, present and future) have an affect on the Earth System, and vice versa?

SOEE3135: Engineering Geology

  • What is the significance and importance of different rock and soil types, and their characteristics in engineering construction and design?
  • How do geologists determine strength and other index properties of both intact rock, rock masses, single discontinuities and soil?
  • How do geologists undertake geotechnical assessments?
  • How do geologists undertake preliminary design of a Site Investigation?
  • How do geologists provide an engineering description of rocks and soils?
  • How do geologists design slopes and underground openings?
  • How do geologists recognise and understand slope instability in soils and rocks?
  • How do geologists analyse slopes for stability?

SOEE3171: Volcanic Processes

  • What are the major types of volcanic eruptions and their products?
  • What are the physical controls on eruptive processes and the transport and deposition of eruption products?
  • What are the commonly used volcano monitoring and hazard assessment techniques?
  • What are the major impacts of volcanic activity on climate?

SOEE3281: Physical and Chemical Hydrogeology

  • How does groundwater fit into the hydrological cycle?
  • What characteristics of rocks and soils determine aquifer quality?
  • How do geologists interpret hydrogeological maps?
  • How do geologists find groundwater fluxes in aquifers from hydraulic head data?
  • How can a simple 'water balance' model of an aquifer be used to predict sustainable yields and predict the potential impacts of groundwater abstraction?
  • What are the principles and uses of aquifer pumping tests?
  • How do geologists evaluate the accuracy and completeness of a routine groundwater analysis?
  • How does the chemical composition of natural groundwaters develop?
  • What are the main mineral dissolution reactions giving rise to specific groundwater compositions?
  • How do geologists describe the behaviour of key groundwater contaminants and the major threats to groundwater quality?
  • How do geologists describe the main factors controlling aquifer vulnerability?

SOEE3480: Past Global Environmental Systems

  • What approaches are used to interpret the interacting factors that have controlled the Earth's climate and global environments through geological time at times of both crisis and during background states that were fundamentally different to today?
  • How are multidisciplinary data sources (geochemical, geological, palaeontological) integrated with palaeoclimate models and used to evaluate the causes of phenomena such as glaciation, mass extinction and intense greenhouse climates?

SOEE3500: Basin Dynamics and Petroleum Systems

  • What are the origins of petroleum in the context of the geodynamic evolution, and the burial and thermal histories of sedimentary basins?
  • What are the differing structural, magmatic and heat flow characteristics of continental margins?
  • How do contrasting reservoir styles and hydrocarbon trap opportunities relate to the nature and evolution of the continental margin?
  • How do teams of geologists work together to address petroleum exploration objectives within a quasi-commercial and competitive project to develop a drilling proposal?

SOEE3720: Environmental Geology in Northern Ireland

  • How can interpretation techniques benefit from field-based observations in the disciplines of igneous petrology, sedimentary petrology and Quaternary geology?
  • What was the geological development of Northern Ireland?
  • How do geologists embed professional practice in environmental geology?

Geology leaning pathway (accredited)

You will study the following compulsory modules:

SOEE3078: Independent Project

  • How do geologists undertake independent field- or laboratory-based research-led studies?
  • How are techniques of geological mapping executed in a field-based situation?

SOEE3060: Advanced Sedimentology and its Applications

  • How do complex sedimentary successions arise in response to a range of both intrinsic operating processes and to a range of external controls such as sea-level change, climate change, and tectonic basin development?
  • How do sedimentary successions in a variety of settings form important economic resources including, for example, the site of hydrocarbon reserves?
  • What is the sedimentary response to global stratigraphic cyclicity driven by glacio-eustasy?
  • How can the technique of sequence stratigraphy be applied to account for complex sedimentary successions and their style of accumulation within developing sedimentary basins?

Plus

SOEE3042: Easter Field Class (Environmental Geology)

  • How are environmental geologic principles applied in the field?
  • What are the main set of skills used by geologists for integration of field observations and synthesis of geological models?
  • What are the main environmental impacts of mining and waste disposal, and earthquake/tectonic effects on structures.

Or

SOEE3720: Environmental Geology in Northern Ireland

  • How can interpretation techniques benefit from field-based observations in the disciplines of igneous petrology, sedimentary petrology and Quaternary geology?
  • What was the geological development of Northern Ireland?
  • How do geologists embed professional practice in environmental geology?

and the following two modules:

SOEE3135: Engineering Geology

  • What is the significance and importance of different rock and soil types, and their characteristics in engineering construction and design?
  • How do geologists determine strength and other index properties of both intact rock, rock masses, single discontinuities and soil?
  • How do geologists undertake geotechnical assessments?
  • How do geologists undertake preliminary design of a Site Investigation?
  • How do geologists provide an engineering description of rocks and soils?
  • How do geologists design slopes and underground openings?
  • How do geologists recognise and understand slope instability in soils and rocks?
  • How do geologists analyse slopes for stability?

SOEE3281: Physical and Chemical Hydrogeology

  • How does groundwater fit into the hydrological cycle?
  • What characteristics of rocks and soils determine aquifer quality?
  • How do geologists interpret hydrogeological maps?
  • How do geologists find groundwater fluxes in aquifers from hydraulic head data?
  • How can a simple 'water balance' model of an aquifer be used to predict sustainable yields and predict the potential impacts of groundwater abstraction?
  • What are the principles and uses of aquifer pumping tests?
  • How do geologists evaluate the accuracy and completeness of a routine groundwater analysis?
  • How does the chemical composition of natural groundwaters develop?
  • What are the main mineral dissolution reactions giving rise to specific groundwater compositions?
  • How do geologists describe the behaviour of key groundwater contaminants and the major threats to groundwater quality?
  • How do geologists describe the main factors controlling aquifer vulnerability?

Or the compulsory modules listed above plus

SOEE3500: Basin Dynamics and Petroleum Systems

  • What are the origins of petroleum in the context of the geodynamic evolution, and the burial and thermal histories of sedimentary basins?
  • What are the differing structural, magmatic and heat flow characteristics of continental margins?
  • How do contrasting reservoir styles and hydrocarbon trap opportunities relate to the nature and evolution of the continental margin?
  • How do teams of geologists work together to address petroleum exploration objectives within a quasi-commercial and competitive project to develop a drilling proposal?

SOEE3560: Field Class: Petroleum Reservoir Architectures

  • What are the main events in the geological evolution of the North Sea Basin, with particular reference to its hydrocarbon potential?
  • How are geological features observed across a range of scales, from seismic cross-sections to geophysical log data and to outcrop related?
  • What are the main roles and interactions of geoscientists and petroleum engineers in developing a static reservoir model?
  • What are the methods, nomenclature and parameters which are used to characterise source rock potential and the reservoir properties of rocks from outcrop and log data?
  • How do primary depositional architectures and secondary diagenetic features, and faults and fractures influence fluid flow in hydrocarbon reservoir and aquifer analogues?
  • What are the uncertainties in geological data analysis and in the modelling process with respect to a static reservoir model?

Optional modules - zero or one module from the Earth Science options listed below:

SOEE3040: Easter Field Class (Geological Science)

  • How are pure and applied geological concepts used in field situations?
  • What are the main set of skills used by geologists for integration of field observations and synthesis of geological models?
  • How are techniques for understanding the dynamics of formation, cooling, alteration of mid-oceanic ridges, their subsequent emplacement as ophiolites and their unroofing and post-emplacement history applied in a field-based situation?

SOEE3091: Advances in Paleontology

  • What is the origin of life and what is its role in controlling Precambrian sedimentary environments?
  • What form do chemosynthetic communities take?
  • What is the form of the enigmatic Ediacaran fauna?
  • How did the Cambrian explosion lead to diversification of life on Earth?
  • What was the cause of the End-Ordovician extinction?
  • How did the evolution of Tertiary floral communities take place and lead to the rise of grasses?
  • What factors led to the rise of the hominids and H. sapiens?

SOEE3110: Earth System Science: Biogeochemical Cycles

  • What are the major biogeochemical cycles and how they can be used to understand the Earth System?
  • What are the general principles and science of biogeochemistry in relation to the Earth system?
  • How can changes in biogeochemical cycles (past, present and future) have an affect on the Earth System, and vice versa?

SOEE3135: Engineering Geology

  • What is the significance and importance of different rock and soil types, and their characteristics in engineering construction and design?
  • How do geologists determine strength and other index properties of both intact rock, rock masses, single discontinuities and soil?
  • How do geologists undertake geotechnical assessments?
  • How do geologists undertake preliminary design of a Site Investigation?
  • How do geologists provide an engineering description of rocks and soils?
  • How do geologists design slopes and underground openings?
  • How do geologists recognise and understand slope instability in soils and rocks?
  • How do geologists analyse slopes for stability?

SOEE3171: Volcanic Processes

  • What are the major types of volcanic eruptions and their products?
  • What are the physical controls on eruptive processes and the transport and deposition of eruption products?
  • What are the commonly used volcano monitoring and hazard assessment techniques?
  • What are the major impacts of volcanic activity on climate?

SOEE3281: Physical and Chemical Hydrogeology

  • How does groundwater fit into the hydrological cycle?
  • What characteristics of rocks and soils determine aquifer quality?
  • How do geologists interpret hydrogeological maps?
  • How do geologists find groundwater fluxes in aquifers from hydraulic head data?
  • How can a simple 'water balance' model of an aquifer be used to predict sustainable yields and predict the potential impacts of groundwater abstraction?
  • What are the principles and uses of aquifer pumping tests?
  • How do geologists evaluate the accuracy and completeness of a routine groundwater analysis?
  • How does the chemical composition of natural groundwaters develop?
  • What are the main mineral dissolution reactions giving rise to specific groundwater compositions?
  • How do geologists describe the behaviour of key groundwater contaminants and the major threats to groundwater quality?
  • How do geologists describe the main factors controlling aquifer vulnerability?

SOEE3480: Past Global Environmental Systems

  • What approaches are used to interpret the interacting factors that have controlled the Earth's climate and global environments through geological time at times of both crisis and during background states that were fundamentally different to today?
  • How are multidisciplinary data sources (geochemical, geological, palaeontological) integrated with palaeoclimate models and used to evaluate the causes of phenomena such as glaciation, mass extinction and intense greenhouse climates?

SOEE3500: Basin Dynamics and Petroleum Systems

  • What are the origins of petroleum in the context of the geodynamic evolution, and the burial and thermal histories of sedimentary basins?
  • What are the differing structural, magmatic and heat flow characteristics of continental margins?
  • How do contrasting reservoir styles and hydrocarbon trap opportunities relate to the nature and evolution of the continental margin?
  • How do teams of geologists work together to address petroleum exploration objectives within a quasi-commercial and competitive project to develop a drilling proposal?

SOEE2232: Exploration Seismics

  • What are the physical principles that underlie the application of the seismic refraction and reflection techniques to the determination of shallow structure and the exploration for hydrocarbons, water and other mineral resources?
  • What are the techniques and equipment used to undertake exploration seismic surveys on land and sea?
  • What techniques are used for the processing and interpretation of seismic refraction data?

Optional modules - two modules from the Geography options listed below:

GEOG3065: Water Science and Management

  • How do the natural dynamics of river systems influence their morphology, flows, water quality and biological communities?
  • What are the most serious issues requiring the management of rivers and their catchments?
  • How can hydrological and geomorphological alterations benefit river ecosystems by improving water quality?
  • What are the approaches to managing water sustainably, both in an environmental context and within water supply/treatment networks?
  • How do key water policies and legislation impact on the management of our rivers?

GEOG3130: Alternative Urban Futures

  • What are the different kinds of alternative futures urban areas face?
  • How will key challenges such as peak oil, climate change, social and spatial justice impact on our urban spaces?
  • What role will eco-modernisation, localisation, state renewal and grassroots democracy have to play in determining these futures?
  • How will the multi-faceted nature of urban change impact on future urban scenarios and alternatives in practice?

GEOG3180: Management of Wilderness and Global Ecosystems

  • What are wildernesses and why should we protect them?
  • How is the idea of wilderness linked to the rise of the 'environmental movement'?
  • Why is wilderness an essential component of the ecosystem services model?
  • How can GIS be used to identify, map and manage wilderness landscapes?
  • What is rewilding and why should we create more wilderness?
  • How does wilderness feature in world conservation policy?

GEOG3440: Environment, Conflict and Policy

  • What are the key principles underlying policies aimed at solving environmental conflicts?
  • What is the fundamental science underlying the application of these key principles?
  • How do actual environmental disputes develop and how can contrasting viewpoints of different stakeholders be reconciled?
  • When does the politics of policy sometimes override science?
  • How can negotiation skills be used in practise to manage debates on environmental conflict?

GEOG3520: Workplace Co-operative Project

This module is mutually exclusive with GEOG3820: Research Placement. The module provides students with an opportunity to:

  • Work in collaboration with an outside organisation on a project that is of use to the organisation and suitable as an advanced component of a degree in Geography.
  • Design, negotiate, record and manage their work in cooperation with an academic supervisor and a member of staff from the outside organisation.

GEOG3690: Tropical forests and sustainable development

  • How resilient have tropical rain forests been to environmental change during geological history?
  • What is the role of glacial ‘refugia’ in shaping current tropical rain forest communities?
  • How have indigenous people affected tropical rain forests landscapes?
  • What factors control the diversity of tropical rain forests?
  • How do tropical rain forests affect the climate system?
  • Is sustainable development possible in SE Asia?
  • What constraints on economic and social development are imposed by the fragile natural environments of SE Asia?
  • How do national-governmental and international policies affect land-use in SE Asia?
  • In a land-use context, what is meant by 'good governance'?
  • What are the causes of land-use change in SE Asia and what is the relationship between land-use change and social and economic development?

GEOG3710: Digital worlds: computer simulation of Earth's dynamic environments

  • What is an environmental model and why do scientists and environmental managers use models?
  • How can models be both wrong and useful?
  • How are models constructed?
  • How are models tested and used both by practitioners (e.g., policy makers) and scientists?
  • What is a numerical experiment and what can it tell us about an environmental system?

GEOG3820: Research Placement

This module is mutually exclusive with GEOG3012: New Zealand Research Project and GEOG3520: Workplace Co-operative Project. In this module students undertake a substantial piece of original research on a project put forward by an academic supervisor. Often, the project will be an important part of a wider research programme of the supervisor. Students will be expected to contribute to the design of the project and will gain an in-depth appreciation of how academics ‘do’ research. The module is useful for those considering a career in research through study for a higher degree (MSc or PhD).

GEOG3875: Biogeochemical Cycles: Process to Policy

Global biogeochemical cycles describe the movement of biologically important elements through the Earth System (the combination of atmosphere, oceans, rocks and biota). The processes which govern such cycles are fundamental to all life, and result in a complex series of interactions and feedbacks. This module takes an Earth System Science approach to the study of the global cycling of biologically important elements, such as carbon, nitrogen, and phosphorous. You will learn about the processes governing the movement of these elements, and how to represent them using simple box models and address questions such as:

  • How do biogeochemical cycles combine to control Earth evolution, regulation, and climate?
  • How have humans impacted biogeochemical cycles, and what are the future implications of this?

GEOG3885: Ecosystems of the Quaternary

With a focus on the Quaternary period of Earth’s history (the last 2.6 million years), this module uses a palaeoecological approach to address the following questions:

  • How have modern ecosystems come into being?
  • How do plants and animals respond biogeographically to climate change?
  • What effect have Quaternary climate cycles had on the evolution of species and communities?
  • How can we apply this knowledge to managing the ecological consequences of human impact on the environment?

BSc Geography-Geology FF68

A Levels

3 A-levels at grades AAB including Geography, plus one of Biology, Chemistry, Geology, Maths or Physics (A to come from Geography or one of the other above-named subjects). Offers exclude General Studies and Critical Thinking.

International Baccalaureate

36 points overall with 17 points at Higher Level, including 6 in Geography.

Scottish Highers/Advanced Highers

Grades AAABB/AAB, including Geography.

Cambridge Pre-U

Grades D3, D3, M2 including Geography, plus one of Biology, Chemistry, Geology, Maths or Physics (D3 to come from Geography or one of the other above-named subjects).

Welsh Baccalaureate

We accept the Welsh Baccalaureate but only in combination with other A Levels, including Geography.

BTEC

We accept BTEC qualifications in a relevant subject area but only in combination with other A Levels, including Geography.

For all qualifications listed above, we also require GCSE English and Mathematics at grade C or above.

International and non-standard qualifications

We welcome applications from a range of backgrounds; from applicants coming to university following school or college, from those who have taken or are planning to take a gap year, from applicants looking to return to studying after some time out of the education system (including those taking Access courses in relevant subject areas), from overseas applicants, and from applicants with non-standard qualifications.

Overseas applicants must fulfil our English Language requirement: IELTS 6.0 with no less than 5.5 in each component skill.

Please email geo-ug-enq@leeds.ac.uk for advice regarding international or non-standard qualifications.

Fieldwork

Ask any of our students and they will tell you that taking part in field trips is one of the most enjoyable and memorable aspects of the geography programmes at Leeds.

We offer BSc field trips at each level of study and they provide a great opportunity to study a fascinating subject in contrasting environments away from the University. During the field trips you will learn essential fieldwork and team working skills, transferable skills that will prove invaluable to your future career. Field trips are also a fantastic way to travel and see new places and to get to know your tutors and other students better.

All compulsory fieldtrips at level 1 and 2 are paid for. This includes four nights at Malham Tarn, one week in Austria or France. Plus all day trips associated with all modules at levels 1 and 2.

Level 1

Malham

Malham

Summary
This four day fieldtrip to the Yorkshire Dales is based at the Malham Tarn Field Centre. Malham Tarn is one of only eight upland alkaline lakes in Europe and the site is an internationally important National Nature Reserve. The focus of the trip is to research the unique landscape of the Yorkshire Dales in terms of geology, geomorphology, hydrology, ecology and soils. We will also investigate how the landscape has changed in relation to climate change and human impacts in the past, and how it may change in future.

Geology field trips

As part of your degree programme you will also have the opportunity to take part in field trips organised by the School of Earth & Environment.

Yorkshire, Pembrokeshire and the Lake District (core)

In Year 1, the main field course is a week in South Wales (Pembrokeshire) during the Easter vacation, where you will work in teams to learn the basic skills of a field geologist.

In early summer at the end of Year 1, you will go to the north of Scotland for 12 days to develop your geological mapping skills.

Level 2

Austrian Alps

Austrian Alps

Summary
This one week residential field trip to the Hohe Tauern Alps in Austria is based in the hotel Rudolfshutte, Uttendorf which is located 2,300 m above sea level, surrounded by glaciers and 22 imposing 3,000-meter peaks of the Hohe Tauern National Park. The emphasis throughout the trip is on research into mountain environments including glaciology, proglacial rivers, vegetation, soils and water quality.
(Offered as an alternative to the Mediterranean field trip).

Structure and content
Preparation for the field class is through a series of computer and reading based fieldwork planning/familiarisation exercises. Subjects covered include Alpine glaciation and glacial processes, fluvial sediments and bedforms in proglacial channels, soil types and processes, water quality, vegetation types and ecological relationships, natural resource exploitation, mountain hazards and human adaptations, conservation and national park management, GIS and remote sensing. The emphasis is on field research including training in field techniques and the formulation of hypotheses for research projects. The module is mainly assessed on work done in the field.

Mediterranean France

France

Summary
This week long field trip is set in Cevennes in South-West France which boasts a Mediterranean climate all year round and some of Europe’s most dramatic limestone gorges and caves. During the trip you will have the opportunity to develop an understanding of the distinctive characteristics of the climate, geology and vegetation in this region and how they have changed over time.
(Offered as an alternative to the Austrian field trip).

Structure and content
During your first few days you will be introduced to the locale and to a range of different fieldwork skills which you will put into practice by working in a small group on a self-directed project. You will study the landscape history of the area, encompassing evidence of vegetation and geomorphological change during the Quaternary period, sediment sampling, description and interpretation, ecological surveys and investigations into both prehistoric and modern human impacts on the environment.

Geology field trips

Ireland (core)

During Easter you will visit the west coast of Ireland to work on sedimentary and metamorphic rocks. This will involve field mapping training (location, boundary mapping, structures and sedimentary features etc) field exercises on sedimentary rocks and basin analysis, safety and hazard assessment.

Level 3

New Zealand

New Zealand

Summary
This field trip to the central Southern Alps on South Island, enables third year students to get first-hand experience of conducting field-based research in physical geography in an exotic and challenging environment. This is a landscape with a diverse range of tectonic, glacial and fluvial landforms, and a wide range of vegetation and fauna. It has one of the highest sediment delivery rates in the World, which presents an incredible opportunity to dramatically understand processes that have formed, and are forming the landscape. We arrive in Queenstown ('the outdoor adventure capital of the World') and are based near Wanaka. We spend several days on a guided tour, visit a local academic and/or governmental research institute, and conduct our own field research.
See New Zealand field trip website

Structure and content
In semester one, you are required to complete an online Virtual Field Course briefing and introduction. They must also produce a research proposal, including a budget and a full risk assessment, and defend this at an 'interview'.

The field trip normally takes place in early December, and lasts for two weeks. During the trip you will collect field data in groups but will be individually responsible for processing, interpreting and presenting that data. Many different aspects of both modern and past glacial, fluvial and ecological phenomena can be investigated and advice towards topical research and staff research interests will be given.

In semester two, you are required to give an oral presentation at a 'School of Geography Third Year Conference'. Additionally, the 4000 word final report will take the format of an academic paper or short communication, and will be included within a bound 'proceedings' volume.

Cyprus (optional)

Both field trip options are to Cyprus and dependent on which trip you choose further your understanding in the following areas:

  • Dynamics of formation, cooling, alteration of mid-oceanic ridges, their subsequent emplacement as ophiolites and their unroofing and post-emplacement history
  • Environmental impacts of mining and waste disposal, and earthquake/tectonic effects on structures

Greenland

Greenland

Summary
This module provides an exciting opportunity for students to undertake a physical geography research project within an Arctic environment at the margin of the Greenland ice sheet, the world's largest glacier outside the Antarctic. The field course, based near Kangerlussuaq (67°00' N, 50°43' W), will cover Arctic Glacial, Periglacial, Permafrost, Glacifluvial, Aeolian and Hydrological processes. This field trip is intended to be a unique example of research led teaching, capitalising on considerable staff research expertise in Arctic fluvial and glacial processes within this region. Students are assessed for the fieldwork, and after the field trip with a conference-style oral presentation and an academic paper style short report.

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Study abroad

Leeds offers a fantastic study abroad scheme to a wide range of destinations. Those who are accepted onto the scheme will transfer from the standard three-year BSc Programme to a four-year ‘international’ programme and will study abroad between levels 2 and 3.

Where can I go?

We have long-established partnerships with a number of overseas universities who reserve places each year specifically for Leeds geographers.

European (Erasmus) destinations

Students applying for either Spain or France are required to have competence in the language, but at the University of Utrecht teaching takes place in English.

Worldwide destinations

Teaching takes place in English at all the above universities.

Further worldwide destinations through the Study Abroad Office

In addition to the above options, Geography students can enter the university-wide competition for a place at a university partnered by Leeds through the Study Abroad Office.

What costs are involved?

Benefits of the Erasmus programme include a full fee waiver at both Leeds and the partner university in Europe, and receipt of a non-repayable Erasmus maintenance grant. Students going to worldwide destinations pay a reduced fee to Leeds, but no fee to the overseas university

How is study abroad assessed?

To qualify for the scheme you need a minimum 2:1 average in your second year. The study abroad year is assessed on a ‘pass/fail’ basis. Grades achieved overseas do not contribute numerically towards the Leeds degree classification.

Why study abroad?

Studying abroad brings many benefits, academically, socially and personally:

  • International experience to enhance your CV and increase your employability
  • A chance to step outside your comfort zone, develop your skills, maturity and confidence – you will definitely reap the benefits in your final year of study
  • An ideal way to further your studies in a new context and learning environment
  • A fantastic opportunity to travel and make new friends which might not be possible in the future

Year in industry

‘Many employers will only consider applicants who have already done some form of placement or internship with them – getting that experience before graduation is invaluable.’
(The Graduate Market in 2011, High fliers Research)

At Leeds our aim is to ensure our students thrive in their academic studies and leave us as highly employable graduates with a wide range of skills and attributes sought after in today’s job market.

Leeds is one of the few geography departments in the UK to offer a year in industry scheme which allows you to extend your three-year programme to a four-year industrial degree. This is a fantastic opportunity to add value to your CV, experience the ‘real world’ first-hand and, in many cases, be offered a permanent job with the placement company upon graduating. With staff dedicated to helping you to secure a placement that is right for you, and by keeping in close contact with you throughout your placement year, we ensure you get the most out of your time with your chosen company.

To see what our students think and to find out more about the benefits of the year in industry programme read our brochure and watch the video below:

A Year in Industry PDF

Careers

Investing in your future

We take your future very seriously and know that employability is uppermost in many students’ minds. If you choose to study geography at Leeds, you can be confident that you are not only joining a university whose graduates are targeted by top employers, but that as geography graduates, your employment opportunities couldn’t be more exciting and wide-ranging.

We structure the BSc programme to ensure you develop the key transferable skills sought after by graduate recruiters, skills such as: team-working, commercial awareness, report-writing, fluency in oral communication and presentation, numerical analysis, IT expertise and investigative skills.

Read our employability leaflet to find out about all the opportunities available to you, both at School and University level, to enhance your employment prospects. 

Graduate destinations

Up to 80% of our undergraduates secure appropriate graduate employment within six months of graduating; others go on to do further study. Here is a snapshot of the kinds of careers our graduates pursue or for more detailed information click here.

Environmental management

  • Conservation
  • Land and water management
  • Public utilities

Management and consultancy

  • Transport planning and consultancy
  • Graduate training schemes in multinational companies
  • IT and business consultancy

Using GIS

  • Retail planning
  • Direct marketing
  • GIS companies

Government and NGOs

  • Local government administration
  • Civil service (police, armed forces)
  • Regional and overseas development

Financial

  • Banking
  • Insurance
  • Financial services

Further study and training

  • Vocational Masters
  • PhD study
  • Teacher training/conversion courses