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| Start date: | September |
| Duration: | 1 year full-time (2-3 years part-time) |
| Structure: | The programme consists of 120 taught credits (80 compulsory and 40 optional) and a 60 credit dissertation |
| Entry requirements: | Normally students will have an upper second Bachelors' degree in an approved subject. Overseas applicants are required to possess an IELTS 6.5 or equivalent English proficiency score. |
| Funding: | Applicants can apply for a range of bursaries and scholarships offered by the School and the University. |
| How to apply: | The Postgraduate Admissions Office Swansea University Swansea SA2 8PP Tel: + 44 (0)1792 295358 Fax: + 44 (0)1792 295110 |
| Further information: | Dr Iain Robertson School of the Environment and Society Swansea University Swansea SA2 8PP E-mail: i.robertson@swansea.ac.uk Tel: +44 (0)1792 295184 |
The MSc in Environmental Dynamics and Climatic Change provides a cross-disciplinary training in the scientific basis of past, present, and future changes in Earth’s climate and environment. The course places particular emphasis on recent global and regional environmental and climatic change, the scientific basis and limitations of models and data collection techniques. It combines the international research strengths of staff within the School of the Environment and Society in environmental and climate dynamics (processes and mechanisms involved in stability and change), marine and ecosystem biology, and environmental management and sustainable development. The breadth of the course means the dissertation component can range from applied science to management and students are encouraged to seek industrial links for this aspect.
Compulsory modules cover: scientific and analytical techniques including laboratory, field, Earth observation and computer skills; recent and future climatic and environmental change; as well as providing a sound understanding of the basis and limitations of current climate assessments. Students will also be provided with the opportunity to develop their ability to communicate complex scientific arguments to broad audiences. Optional modules allow the course to be tailored to individual management or scientific needs.
Graduates from this course will have broad knowledge of the current scientific issues underpinning climatic change and environmental and ecosystem dynamics, and the practical problem solving, ICT, and communication skills required for a successful career in the environmental service industry, regulating bodies or academia.
Core Science Skills (BIOM25 – 10 credits; Prof. K.J. Flynn). This module provides students with the basic scientific skills to conduct postgraduate studies within the School of the Environment and Society. Topics covered include the philosophy of science, experimental design, library and internet sources, data analysis and presentation skills. Evaluation of this module is by continuous assessment.
Mapping and Monitoring the Changing Environment from Space (GEGM10 – 20 credits; Dr A. Luckman). This module explains the use of remote sensing as a tool for gathering and analyzing information about human resources and the natural environment. It is appropriate for students who would find it valuable to understand how information about human activity and environmental change is retrieved from images of the Earth acquired by satellite or aircraft instruments. Emphasis is placed on the role of ongoing missions in providing operational information for science and society. Elements of Geographic Information Systems (GIS) appropriate for dealing with spatially-explicit image data are examined. Lecture material is supported by hands-on experience exploring satellite images in a computer environment. Evaluation of this module is by a practical report (50%) and examination (50%).
Introduction to Environmental Dynamics and Climatic Change (GEGM07 – 20 credits; Dr S Davies and Prof. F.A. Street-Perrott). This module aims to explain and understand past, present and potential future changes in the Earth’s climate and environment. It provides a cross-disciplinary approach to environmental processes and dynamics operating on land, in the oceans and in the atmosphere on a global and regional scale. Emphasis is placed on the techniques and evidence available for reconstructing past environmental dynamics, the implications for present-day processes, future predictions and likely impacts. Evaluation of this module is by a continuous assessment (50%) and examination (50%).
Measuring and Monitoring Environmental Dynamics and Climatic Change (GEGM08 – 20 credits; Dr I Robertson). This module provides students with the relevant analytical, numerical and practical skills to enable them to conduct a research dissertation. Topics covered include hydrological and erosional responses to climatic change, the application of geophysical techniques in environmental science, novel analytical techniques and data handling and modelling. The lecture material is supported by practical field experience and laboratory sessions utilising the extensive state-of-the-art facilities within the School. Evaluation of this module is by continuous assessment.
Environmental Management Systems (EGIM21- 10 credits; Dr C R Hayes). The aim of the module is to provide students with an understanding of environmental management systems and how to both develop and implement such systems. Topics covered include the general principles of management systems such as the European Union's Eco-management and audit scheme (ISO 14001), environmental assessment, documentation and implementation. Evaluation of this module is by a written report and examination.
Modelling Environmental Dynamics and Climatic Change (GEGM04 – 20 credits; Dr P North). This module introduces computational modelling in the context of environmental dynamics and climatic Change. It aims to develop thinking about environmental issues within a modelling framework, and to develop practical skills in developing and using computational models, and in computer data analysis and visualisation. Examples are focussed on solving practical scientific problems which involve modelling the terrestrial carbon and hydrological cycles. Evaluation of this module is by a project report (50%) and examination (50%).
Environmental Management and Sustainable Development (GEGM05 – 20 credits; Dr C Barrow). This module introduces the principles, practice and key issues of environmental management, with a focus on sustainable development. Other key themes include: the precautionary principle, awareness of and coping with environmental change, anticipatory development approaches, environmental and resource degradation issues. There will be coverage of development/developing country environmental management topics and global challenges. Evaluation of this module is by an assignment (50%) and examination (50%).
Environmental Assessment and Management (BIOM22 – 20 credits; Dr I M Horsfall). In this module, students learn how to conduct an Environmental Impact Assessment (EIA). The risks and impacts of different industrial and economic activities on environmental systems and the associated legislation are covered. They will also learn how to apply and develop models of ecological systems, how to predict potential impacts through modelling, and how to manage natural resources in a sustainable way. Evaluation of this module is by a continuous assessment (40%) and examination (60%).
Ecosystems (BIOM32 - 20 credits; Prof G C Hays). This module introduces students to terrestrial and aquatic ecosystems, food webs, and the mechanisms by which biota interact and interrelate with the environment. Students in this module will acquire a full understanding for how to conduct research onto free-living behaviour of marine and terrestrial vertebrates, apply principles of conservation and management and understand the debate on anthropogenically driven environmental change, including climate change. Evaluation of this module is by continuous assessment and examination.
Risk Assessment and Management (EGTM77 – 10 credits; Prof. J Gittus). This module will provide an insight into the assessment and calculation of risk in a variety of contexts. Case studies will be examined which highlight the economic, environmental, technical, social and political consequences of decision making and the subsequent effects of accidents. Evaluation of this module is by continuous assessment and examination.
Materials Recycling Techniques (EGTM78 – 10 credits; Dr D H Isaac). This module reviews the recycling methods across the major materials sectors, and leads to an individual case study of a specific recycling issue by each student. The main materials studied include steel, aluminium, glass, paper and plastics. The emphasis is on current production and how recyclate is accommodated into the procedures. The specific technical and economic barriers to recycling in each sector are considered, particularly some of the major issues associated with plastics recycling. Evaluation of this module is by continuous assessment and examination.
Environmental Analysis and Legislation (EGTM79 – 10 credits; Dr J C Arnold). This module presents the principles of life cycle analysis and its application to the materials industry. It covers the assessment of energy conservation by optimal use of resources, including consideration of primary extraction processes, design/manufacturing/fabrication, improving product life, ‘lightweighting’ and end of life usage. It also reviews the current and planned European legislation that is of relevance to materials recycling, and considers its implementation in the UK. Evaluation of this module is by essay and examination.
Dissertation (GEGM06 – 60 credits). This module provides the opportunity to undertake a substantial individual research project in Environmental Dynamics and Climatic Change. All dissertation topics will be agreed during Semester 2, and supervisors will be allocated during this time. Formal work on the dissertation will begin in the first week of July, and in line with university guidelines, the final deadline for submission of dissertations is October 15th. Support will provided by a staff supervisor and through student-led discussions. There will also be the opportunity to provide constructive criticism to fellow students undertaking related research projects, learning from their research problems and subsequent solutions. Interim results will be presented orally and in a poster session. The final results of the research dissertation will be presented in the form of a scientific paper in the format of a leading international journal (8000 words), supported by full data and documentary details in an appropriate electronic format and a one page summary suitable for an intelligent lay person (an additional 7,000 words).