Earth, Climate and Environmental Change

Core Modules

Year 1

• Evolving Earth

  This module introduces the 4.6 billion-year history of our Evolving Earth and provides you with the skills to interpret that history. The module is subdivided into two complimentary streams that closely integrate. One stream (palaeontology) considers the story of life from its origin to the rise and fall of the dinosaurs, concluding with our own recent human evolution. It focuses on major events in evolution, and introduces you to the key concepts including systematic palaeontology, palaeoecology, palaeobiology, evolution, and taphonomy. The other stream (sedimentology) considers earth surface processes and palaeoenvironments and teaches you how to recognise the changing environments through time using techniques including rock classification, textural analysis, facies analysis and graphic logging, palaeoflow analysis, and stratigraphy. Because life and environments have co-evolved and are co-dependent, palaeontology and sedimentology need to be taught in close parallel, providing you with a powerful synthetic understanding of how our Earth has evolved in the past and continues to change in the future.

• Human Interaction with the Earth

  With the adoption of the Paris Agreement and the recent COP26, a seismic societal shift towards issues related to sustainability and climate change is taking place globally. The next generation of geoscientists are now required to understand the complex interrelations between human activities and a changing Earth system. With this module, students will explore key themes at the core of human-Earth interaction such as anthropogenic climate change, geohazards, environmental pollution, and sustainable exploitation of energy resources and energy-critical elements.

• Climate, Ocean and Atmosphere
• Physics and Chemistry of the Earth

  In this module you will develop an understanding of basic concepts in chemistry and physics and how to apply these to geological processes. You will look at atoms and atomic structure, the periodic table of elements, reactions, equations, geochemical analysis, the composition of the earth, interpretation of phase diagrams, solubility of minerals, weathering and the hydrological cycle. You will also consider Newton’s Laws, kinematics, circular motion, planetary orbits, gravity, magnetism, electricity, resistivity, stress, strain, seismicity, isostasy, radioactivity, and geochronology.

• Earth Scientists Toolkit

  In this module you develop an understanding of the skills required to practice geology in the field, carrying out a series of activities in South Devon and Pembrokeshire. You will learn to describe and interpret the origin of sedimentary, igneous and metamorphic rocks and how to prepare a geological map and cross-section using standard symbols. You will examine stereographic projections, sedimentary logging, the construction of stratigraphic columns for the identification of rocks, and the analysis of structural features using stereonets.

Year 2

• Research in Earth, Climate and Environmental Change

  In this research led module skills in scientific writing, communication and data interpretation will be developed alongside an understanding of current research topics in Earth, Climate and Environmental Change. A series of seminars will be led by experts on a range of research topics in the field of Earth, Climate and Environmental change. From these seminars, you will gain an understanding of cutting edge research and the way in which research projects are planned and carried out. A literature review exercise on one of the research topics from the seminar series will be undertaken with support from tutors.

  You will receive training in techniques for literature searching, synthesising a large quantity of literature and reference managing. Data interpretation skills will be developed through a short guided quantitative project.

• Geohazards

  In this module you will develop an understanding of the hazards associated with geological activity, their causes, and approaches to risk management. You will look at volcanoes, earthquakes, and radon, and the hazards associated with the exploitation of geological resources and associated anthropogenic activity, including asbestos, the mining industry, and contaminated land. You will examine a variety of geological and geochemical data, and learn to interpret and analyse these in order to make scientifically justified decisions as to the level of risk.

• Geochemistry

  In this module you will develop an understanding of advanced chemical concepts relevant to the Earth Sciences. You will focus on isotope geochemistry and consider techniques that are directly applicable in most geological contexts. You will attend practical classes and conduct a small project involving the analysis and interpretation of a real geochemical dataset.

• Earth Scientists Environmental Toolkit

  By the end of the module students should: Have gained an appreciation of some aspects of anthropogenic impact on the environment by visiting a range of field sites Understand the principles of environmental sampling, including sampling strategies, sources of error and sample contamination issues Have gained experience of a range of sample preparation methods and how to produce analytical data for a number of different sample types Understand how ICP-AES can be used for environmental analysis and gained practical experience of laboratory techniques Have gained experience of safe laboratory working practices Have developed team working skills, including time management, negotiation, and co-operation Have further developed their data analysis and report writing skills. Be able to plan and undertake an independent field-based environmental project.

• Earth Scientists Digital Toolkit

  The purpose of this module is to embed GIS and programming skills for the creation, analysis and interpretation of geospatial data and coding skills to facilitate data collection, analysis, modelling and interpretation. The module explains the origin of GIS and trains students in the creation of georeferenced point, line and polygon data, combine raster and vector data, and data analysis. It also introduces Python and the use of arrays, reading and writing, branching and repeating, and plotting.

Year 3

• Earth, Climate and Environmental Change research project

  Projects can be field and/or laboratory based, generating new scientific data, or they can be computational, analysing existing data that has not been subject to detailed and critical analysis. Early in term 1 you will submit a project plan to the supervisor and course leader and will receive written feedback on the project plan. Formative feedback will also be provided at the end of term 1 following presentations showing progress made so far. You will be expected to regularly meet with your project supervisor for guidance. At the end of the project you will present the results of your research as a scientific report and as an oral presentation.

   

• Advanced Practical Meteorology

  This module will provide you with a working knowledge of basic meteorology. The module will begin with atmospheric basics and terminology including didactic sessions and workshops/practicals on solar radiation, thermodynamics, water vapour, stability, clouds and precipitation. It will progress into skill sessions (lectures and practicals) on radar, interpreting satellite maps and weather reports and finish with sessions (lectures and practicals) putting it all together (review and consolidation) for understanding of winds, fronts, air masses and thunderstorms. The module will finish up with lectures and practicals demonstrating how basic meteorological understanding can be applied for career useful consideration of meteorological hazards: tropical and extra tropical cyclones, regional winds boundary layers and pollutant dispersal, numerical weather prediction and atmospheric optics.

• Modern Climate Change

  This course has two main aims:

  1) To introduce you to the evidence for and mechanisms of modern climate change – what climate change is, how the climate change is manifested, what physical mechanisms are driving it, and what its future status might be.

  2) Methods of research in multi-disciplinary topics, report writing, and communication of complex ideas for policy makers using Earth Science as a subject matter.

• Advanced Palaeoclimate

  The Earth’s climate has changed across geological time, due to the interaction of a huge array of inter-related climate forcing agents. These changes have been reconstructed using many different lines of chemical, biological and physical proxy data, and mechanistically interrogated using computer simulations (Earth-System models). In this module, you will be taught about the key features of major climatic events in Earth’s history and should gain an appreciation of the typical rates and magnitudes of change that characterise these episodes. A key aim of the module is to demonstrate some of the techniques used for quantitative palaeoclimate reconstruction, and for you to learn the critical evaluation skills needed to interpret these datasets. These skills will be developed through class practical exercises and a summative task that requires the interpretation of a raw palaeoclimate dataset.

   

• Advanced Geohazards

  The module will cover hazards associated with geological activity, their causes and risk management including topics such as volcanoes and earthquakes, and those associated with anthropogenic activity such as mining and land contamination. Students will work in small groups to investigate geohazards pertinent to a city of their choice, bringing together all aspects of the course including physical, chemical and anthropogenic hazards. Formative assessments draw together a variety of geological, numerical and geochemical data that require analysis and interpretation of these data.

• Earth Scientists Independent Project

  Under the guidance of a departmental supervisor the student will design and execute an independent research project. The project may utilise data collected in the field, laboratory, and/or scientific literature. Data handling using statistical or GIS techniques must be integrated into the project. Departmental facilities are available for use by students either in supplementing data already acquired or in producing their main database. BSc Geology and MSci Geoscience projects must be based on a minimum of 21 days of mapping, either through field observations or digitally using remote sensing and other data as appropriate (which need not be terrestrial). Projects based on field observations will be supporting by at least one day of guidance in the field by a departmental supervisor. Students on other departmental degree courses must complete a project in a topic appropriate to their degree. Guidance on data analysis and presentation will be provided in timetabled classes following the data collection stage. All students submit a written report, with other material as required, in a style appropriate to their topic (e.g. consultancy report, scientific paper) and give an oral presentation at the end of their project.

Optional Modules

There are a number of optional course modules available during your degree studies. The following is a selection of optional course modules that are likely to be available. Please note that although the College will keep changes to a minimum, new modules may be offered or existing modules may be withdrawn, for example, in response to a change in staff. Applicants will be informed if any significant changes need to be made.

Year 1

• All modules are core

Year 2

• Stratigraphy and the History of Life

  In this module you will develop an understanding of the key events in the history of life and their environmental impact using the fossil and sedimentary record. You will analyse fossil assemblages using stratigraphic principles such as absolute dating, lithostratigraphy, biostratigraphy and sequence stratigraphy. You will consider how to interpret sedimentary rocks, and examine the importance of fossil assemblages in the interpretation of events in earth history.

• Applied Geophysics

  In this module you will develop an understanding of the theory and practice of seismic, gravity, magnetic and resistivity surveying. You will consider the methods used to manipulate, analyse, and display geophysical data to solve geological exploration problems, and examine the strengths and weaknesses of the different data types.

• Geothermal Energy

  The module will introduce you to the principles of deep and shallow geothermal energy and its current and potential use for producing electricity and space heating (and, for heat pumps, also space cooling). Geothermal energy is the close to other geological topics such as hydrogeology, volcanology, and hydrocarbon reservoirs. The module will underline the ideal combination between geothermal energy (steady source – always there) and other but non-steady renewable sources (solar, wind and wave energy). The module will provide clear and detailed overviews on the main geothermal energy sources, namely (1) shallow geothermy (heat pumps), (2) hot-dry-rock (enhanced geothermal systems), and (3) natural geothermal (hydrothermal) systems, both in sedimentary basins and in active volcanic areas. Highly successful projects (most shallow geothermy and natural systems project) and the less successful (many hot-dry-rock projects) will be analysed to learn from them. The focus is on quantitative methods for understanding and using geothermal systems, including the basic physical principles that control the formation and maintenance of such systems, petrophysical principles, thermal principles, and using large datasets to assess the potential of geothermal systems in different geological environments. The module also covers the environmental, political/social, and economic aspects of the exploration and use of geothermal energy. The module aims to provide the students with knowledge and skills for analysing and exploring geothermal energy, both shallow and deep, in the UK and worldwide.

• Introductory Palaeobiology

Year 3

• Hydrogeology
• Environmental Biogeochemistry
• Applied Geochemistry

  The aim of the course is to provide students with practical and analytical skills in Geochemistry and provide a geochemical stream throughout the degree programme. The focus of the course is on practical skills. Practical analytical skills are highly sought after in industrial and academic geological research and will allow future non-practitioners to understand the constraints of modern Geochemical analysis. The course will be run in two streams: The first stream will be weekly one hour lectures/workshops which will concentrate on the theory of analysis of air, water and solid samples for isotopic ratios, uncertainty propagation, advanced isotopic techniques and weathering. The second stream will be weekly three-hour practicals in the departmental research laboratories. Practicals will be designed to collect and analyse air, water and solid samples, prepare the samples for analysis, run on the relevant machine, reduce the data and interpret the data with uncertainty and then write up as a report for one formative and two summative pieces of assessment.

• Planetary Geology and Geophysics
• Solar, Wind and Marine Energy
• Subsurface storage of CO2 and Energy

  The module will introduce you to the Geoscience (and wider background) needed to understand the exploitation of the subsurface for the storage of carbon dioxide (to reduce greenhouse gas emissions) and the storage of renewable energy (e.g. compressed air storage within salt). These new uses of the subsurface are expected to become significant businesses through the 2020s (in response to the Paris Climate Agreement), and the Petroleum Industry has the necessary skills, knowledge and resources to develop these. Consequently, many of our future graduates will likely find significant career opportunities in these new areas rather than in traditional hydrocarbon extraction. The module introduction will cover the environmental, economic, political and social background so that you understand the business model that will enable this new industry (specifically the how and why of carbon pricing). You will then investigate the geophysical methods required to evaluate potential subsurface structures. You will also look at the science behind subsurface utilization (e.g. issues such as what structures and sediments are needed and how these are similar to, or different from, the structures and sediments that form hydrocarbon reservoirs). In summary, the module aim is to produce graduates who can explore and exploit sedimentary basins in all the ways they are likely to be important during the 21st century.