Studying for an MA or MSc by Research (MbR) can be an excellent opportunity to develop your intellectual skills and your academic interest in a particular field, and to help you stand out from the crowd as a self-motivated, independent thinker. This is distinct from our Taught Masters programmes.
The MbR is a 12-month research project (24 months part time). It can be suitable for:
As a research masters student you will have regular meetings with your supervisors; access to research student training courses; and the option to sit in on taught masters modules (not for assessment or credit). You will join a large and dynamic community of research students in one of the UK's top Geography departments.
The MbR is assessed by a thesis of up to 30,000 words, and by an oral examination. One key learning outcome of the MbR is that your research should be of a publishable standard, and once you have passed your exam we will offer advice about preparing your work for publication.
A short list of possible topics is provided below but you are also free to propose your own topic. We will consider any topic within human or physical geography, provided it can be supervised by one of our staff. Click on the People tab on the homepage of the appropriate Research Cluster you are interested in http://www.geog.leeds.ac.uk/research/
Please also see available PhD topics as many of these are also suitable for an MA/MSc by Research.
MA/MSc (by Research): suggested topics
All of these topics will require further development and to be written up as a full research proposal when applying. You are also welcome to discuss your own ideas with an appropriate member of staff.
1) Wild land, wild places: developing multiscale spatial modelling approaches to wilderness in Europe
Dr Steve Carver
This project will work with multiple datasets, across multiple spatial scales and with multiple agencies to develop spatial modelling/GIS approaches to wilderness allocation and inventory that is sensitive to spatial setting (wild, remote, rural, peri-urban), biophysical landscapes (upland, lowland, forest, coast, marine) and cultural contexts. The project will build on existing work on wilderness quality mapping across Europe, the UK, Scotland and the Scottish National Parks to develop spatially explicit approaches to identifying wild land (large areas typically possessing the full range of wilderness characteristics of remoteness and naturalness) and wild places (smaller areas or sites that are perhaps close to urban areas yet are relatively natural and so are important sites for both people and wildlife). The results will feed into regional, national and local policy decision making on nature conservation, connectivity management and development planning.
2) Carbon storage in Yorkshire peatlands
Dr Sheila Palmer
Our uplands store significant amounts of carbon as organic matter in peaty soil but our ability to accurately quantify and map the amount of carbon stored is limited by the lack of data at appropriate spatial resolution. This project will use a combination of GIS mapping, statistical and geospatial analysis of existing spatially detailed information in order to: i) estimate the total carbon stored in upland peat; and ii) determine whether key parameters such as depth and bulk density can be estimated from more readily obtained proxies. Some field sampling may be required to improve data records. The aim of this project is to produce a map(s) of carbon storage at two locations in Yorkshire for which detailed information on peat depth and carbon content exists, and to evaluate findings alongside existing estimates based on national soil maps.
3) A Holocene proxy climate record from a peatland in the most northerly island of Britain
Dr Graeme Swindles
The Shetland Isles are particularly sensitive to changes in North Atlantic climate. The aim of this project is to generate a new high-resolution multiproxy climate record from a core taken from an ombrotrophic peat bog in Unst, Shetland Isles. A suite of methods for peatland palaeoclimate reconstruction will be used to generate proxy climate data from the peat sequence (plant macrofossils, humification and testate amoebae). This will provide a baseline Holocene palaeoclimate record which, together with archaeological evidence, will be used to examine human sensitivities and responses to long-term climatic change in this marginal environment.
4) What controls carbon cycling in marine sediments?
Dr Clare Woulds
The burial of organic carbon in marine sediments is a key flux in the global carbon cycle, and represents one of the only mechanisms for sequestering carbon on geological timescales. The problem is that many interdependent factors combine to control the efficiency with which carbon is buried. The lest well understood factor is the activity of sediment-dwelling communities. This project will involve processing and analysing samples from isotope enrichment experiments conducted in two contrasting Scottish estuaries. The data will allow construction of short-term carbon budgets, which will reveal how factors including sediment type and oxygen availability influence the biological processing of organic carbon.
5) How forests behave in mountainous landscapes
Dr Ian Lawson
Palaeoecological data show that, in the mountainous landscapes of the Mediterranean, forests have responded to past climate change by moving up and down the mountains, as well as north and south. This project will use a combination of vegetation modelling, climate model outputs, and palaeoecological data, to investigate how topography has conditioned the palaeoecological record at several key sites. The aim of the project is to test and refine our current understanding of the broad-scale pattern of ecosystem response to climate change across the Mediterranean basin.